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openverifla_2.3/verilog/verifla/computer_input_of_verifla.v Property changes : Deleted: svn:executable ## -1 +0,0 ## -* \ No newline at end of property Index: openverifla_2.3/verilog/verifla/u_rec_of_verifla.v =================================================================== --- openverifla_2.3/verilog/verifla/u_rec_of_verifla.v (revision 41) +++ openverifla_2.3/verilog/verifla/u_rec_of_verifla.v (nonexistent) @@ -1,169 +0,0 @@ - -/* -Update: Laurentiu Duca, 20180808_1200: - - consider baud_clk_posedge -Update: Laurentiu Duca, 20180724_1550: - - removed "rdy_o <= 1'b0;" from idle state - and moved to STA_CHECK_START_BIT. - - sample in the middle of the data bit - - correct init values and sizes -*/ - -///////////////////////////////////////////////////////////////////// -//// Author: Zhangfeifei //// -//// //// -//// Advance Test Technology Laboratory, //// -//// Institute of Computing Technology, //// -//// Chinese Academy of Sciences //// -//// //// -//// If you encountered any problem, please contact : //// -//// Email: zhangfeifei@ict.ac.cn or whitewill@opencores.org //// -//// Tel: +86-10-6256 5533 ext. 5673 //// -//// //// -//// Downloaded from: //// -//// http://www.opencores.org/pdownloads.cgi/list/ucore //// -///////////////////////////////////////////////////////////////////// -//// //// -//// Copyright (C) 2005-2006 Zhangfeifei //// -//// zhangfeifei@ict.ac.cn //// -//// //// -//// //// -//// This source file may be used and distributed freely without //// -//// restriction provided that this copyright statement is not //// -//// removed from the file and any derivative work contains the //// -//// original copyright notice and the associated disclaimer. //// -//// //// -//// Please let the author know if it is used //// -//// for commercial purpose. //// -//// //// -//// THIS SOFTWARE IS PROVIDED ``AS IS'' AND WITHOUT ANY //// -//// EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED //// -//// TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS //// -//// FOR A PARTICULAR PURPOSE. IN NO EVENT SHALL THE AUTHOR //// -//// OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, //// -//// INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES //// -//// (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE //// -//// GOODS OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR //// -//// BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF //// -//// LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT //// -//// (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT //// -//// OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE //// -//// POSSIBILITY OF SUCH DAMAGE. //// -//// //// -///////////////////////////////////////////////////////////////////// -//// //// -//// //// -//// Date of Creation: 2005.12.3 //// -//// //// -//// Version: 0.0.1 //// -//// //// -//// Description: rx module of the uart module,data format is //// -//// 8bits data,1 bits stop bit,and no parity check //// -//// //// -///////////////////////////////////////////////////////////////////// -//// //// -//// Change log: //// -//// //// -///////////////////////////////////////////////////////////////////// - -module u_rec_of_verifla( - clk_i,rst_i,//system signal - baud_clk_posedge, - rxd_i,//serial data in - rdy_o,data_o //data ready and parallel data out signal - ); - - parameter // state difinition - STA_IDLE = 0, - STA_CHECK_START_BIT = 1, - STA_RECEIVE = 2; - - input clk_i; - input rst_i; - input baud_clk_posedge; - input rxd_i; - - output rdy_o; - output [7:0] data_o; - - reg rdy_o; - reg [7:0] data_o; - - reg [7:0] rsr;//reciving shift register - reg [3:0] num_of_rec; - - reg [1:0] reg_sta; - - //the counter to count the clk in - reg [3:0] count; - reg count_c;//the carry of count - - always @(posedge clk_i or posedge rst_i) - begin - if(rst_i) - begin - data_o <= 8'b0; - rdy_o <= 1'b0; - rsr <= 8'h0; - num_of_rec <= 4'b0; - count <= 4'b0; - count_c <= 1'b0; - reg_sta <= STA_IDLE; - end - else begin - if(baud_clk_posedge) - case (reg_sta) - STA_IDLE: - begin - num_of_rec <= 4'd0; - count <= 4'd0; - if(!rxd_i) - reg_sta <= STA_CHECK_START_BIT;//recive a start bit - else - reg_sta <= STA_IDLE; - end - STA_CHECK_START_BIT: - begin - if(count >= 7) - begin - count <= 0; - if(!rxd_i) begin - //has passed 8 clk and rxd_i is still zero,then start bit has been confirmed - rdy_o <= 1'b0; - reg_sta <= STA_RECEIVE; - end - else - reg_sta <= STA_IDLE; - end - else begin - reg_sta <= STA_CHECK_START_BIT; - count <= count +1; - end - end - STA_RECEIVE: - begin - {count_c,count} <= count +1; - //has passed 16 clk after the last bit has been checked,sampling a bit - if(count_c) - begin - if(num_of_rec <=4'd7) - begin //sampling the received bit - rsr <= {rxd_i,rsr[7:1]}; - num_of_rec <= num_of_rec +1; - reg_sta <= STA_RECEIVE; - end - else begin//sampling the stop bit - //if(rxd_i)//if stop bit exist - //begin - data_o <= rsr; - rdy_o <= 1'b1; - //end - reg_sta <= STA_IDLE; - end - end - end - endcase - end - end - -endmodule

openverifla_2.3/verilog/verifla/u_rec_of_verifla.v Property changes : Deleted: svn:executable ## -1 +0,0 ## -* \ No newline at end of property Index: openverifla_2.3/verilog/verifla/common_internal_verifla.v =================================================================== --- openverifla_2.3/verilog/verifla/common_internal_verifla.v (revision 41) +++ openverifla_2.3/verilog/verifla/common_internal_verifla.v (nonexistent) @@ -1,38 +0,0 @@ - -// Data input width and indentical samples bits must be multiple of 8. -parameter LA_DATA_INPUT_WORDLEN_BITS=16; - -// Trigger -parameter LA_TRIGGER_VALUE={LA_DATA_INPUT_WORDLEN_BITS{1'b0}}, - LA_TRIGGER_MASK={{(LA_DATA_INPUT_WORDLEN_BITS - 10){1'b0}}, 2'b11, 8'h00}, - LA_TRACE_MASK={LA_DATA_INPUT_WORDLEN_BITS{1'b1}}; - -parameter LA_MEM_CLEAN_BEFORE_RUN=0; -parameter LA_IDENTICAL_SAMPLES_BITS=16; -parameter LA_MEM_WORDLEN_BITS=(LA_DATA_INPUT_WORDLEN_BITS+LA_IDENTICAL_SAMPLES_BITS); -parameter LA_MEM_WORDLEN_OCTETS=((LA_MEM_WORDLEN_BITS+7)/8); -parameter LA_MEM_ADDRESS_BITS=6; -parameter LA_MEM_FIRST_ADDR=0, - LA_MEM_LAST_ADDR=((1<> 3), - LA_MEM_LAST_ADDR_BEFORE_TRIGGER=(LA_TRIGGER_MATCH_MEM_ADDR-1); -parameter LA_MAX_SAMPLES_AFTER_TRIGGER_BITS=26, - LA_MAX_SAMPLES_AFTER_TRIGGER={1'b0, {(LA_MAX_SAMPLES_AFTER_TRIGGER_BITS-1){1'b1}}}; - -// Identical samples -parameter LA_MAX_IDENTICAL_SAMPLES=((1 << LA_IDENTICAL_SAMPLES_BITS) - 2); //{LA_IDENTICAL_SAMPLES_BITS{1'b1}}; - -/* -Reserved mem words: - LA_MEM_EMPTY_SLOT which represents an empty and not used memory slot. -It has sense if LA_MEM_CLEAN_BEFORE_RUN and - a) when the trigger event arrives before the filling of the full btqueue. - b) after the trigger event and after capturing LA_MAX_SAMPLES_AFTER_TRIGGER -*/ -//`define LA_INIT_MEM_AT_RESET -parameter LA_MEM_EMPTY_SLOT={LA_MEM_WORDLEN_BITS{1'b0}}; - -//`define DEBUG_LA

openverifla_2.3/verilog/verifla/common_internal_verifla.v Property changes : Deleted: svn:executable ## -1 +0,0 ## -* \ No newline at end of property Index: openverifla_2.3/verilog/verifla/top_of_verifla.v =================================================================== --- openverifla_2.3/verilog/verifla/top_of_verifla.v (revision 41) +++ openverifla_2.3/verilog/verifla/top_of_verifla.v (nonexistent) @@ -1,69 +0,0 @@ -/* -file: top_of_verifla.v -license: GNU GPL -Revision history -revision date: 2007/Sep/03; author: Laurentiu DUCA -- sys_run: an internal possible run command -- combined_reset_low which allows the user to reset the monitor - -revision date: 2007/Jul/4; author: Laurentiu DUCA -- v01 -*/ - - -module top_of_verifla(clk, rst_l, sys_run, data_in, - // Transceiver - uart_XMIT_dataH, uart_REC_dataH - ); - -`include "common_internal_verifla.v" - -input clk, rst_l, sys_run; -input [LA_DATA_INPUT_WORDLEN_BITS-1:0] data_in; -output uart_XMIT_dataH; -input uart_REC_dataH; - -// App. specific. -wire [LA_MEM_WORDLEN_BITS-1:0] mem_port_A_data_in, mem_port_B_dout; -wire [LA_MEM_ADDRESS_BITS-1:0] mem_port_A_address, mem_port_B_address; -wire mem_port_A_wen; -wire user_run; -wire sc_run, ack_sc_run, sc_done; - -// Transceiver -wire [7:0] xmit_dataH; -wire xmit_doneH; -wire xmitH; -// Receiver -wire [7:0] rec_dataH; -wire rec_readyH; -// Baud -wire baud_clk_posedge; - -uart_of_verifla iUART (clk, rst_l, baud_clk_posedge, - // Transmitter - uart_XMIT_dataH, xmitH, xmit_dataH, xmit_doneH, - // Receiver - uart_REC_dataH, rec_dataH, rec_readyH); - -memory_of_verifla mi ( - .addra(mem_port_A_address), .addrb(mem_port_B_address), - .clk(clk), .rst_l(rst_l), - .dina(mem_port_A_data_in), .doutb(mem_port_B_dout), - .wea(mem_port_A_wen)); - -computer_input_of_verifla ci (clk, rst_l, - rec_dataH, rec_readyH, user_run); - -monitor_of_verifla mon (clk, rst_l, - sys_run, user_run, data_in, - mem_port_A_address, mem_port_A_data_in, mem_port_A_wen, - ack_sc_run, sc_done, sc_run); -// send_capture_of_verifla must use the same reset as the uart. -send_capture_of_verifla sc (clk, rst_l, baud_clk_posedge, - sc_run, ack_sc_run, sc_done, - mem_port_B_address, mem_port_B_dout, - xmit_doneH, xmitH, xmit_dataH); - -endmodule -

openverifla_2.3/verilog/verifla/top_of_verifla.v Property changes : Deleted: svn:executable ## -1 +0,0 ## -* \ No newline at end of property Index: openverifla_2.3/verilog/verifla/u_xmit_of_verifla.v =================================================================== --- openverifla_2.3/verilog/verifla/u_xmit_of_verifla.v (revision 41) +++ openverifla_2.3/verilog/verifla/u_xmit_of_verifla.v (nonexistent) @@ -1,157 +0,0 @@ -/* -Update: Laurentiu Duca, 20180808_1200: - - consider baud_clk_posedge -Update: Laurentiu Duca, 20180724_1550: - - In state STA_TRANS, put num_of_trans <= 4'd8 instead of 7. - in order to send stop bit. - - correct init values and sizes -*/ - - -///////////////////////////////////////////////////////////////////// -//// Author: Zhangfeifei //// -//// //// -//// Advance Test Technology Laboratory, //// -//// Institute of Computing Technology, //// -//// Chinese Academy of Sciences //// -//// //// -//// If you encountered any problem, please contact : //// -//// Email: zhangfeifei@ict.ac.cn or whitewill@opencores.org //// -//// Tel: +86-10-6256 5533 ext. 5673 //// -//// //// -//// Downloaded from: //// -//// http://www.opencores.org/pdownloads.cgi/list/ucore //// -///////////////////////////////////////////////////////////////////// -//// //// -//// Copyright (C) 2005-2006 Zhangfeifei //// -//// zhangfeifei@ict.ac.cn //// -//// //// -//// //// -//// This source file may be used and distributed freely without //// -//// restriction provided that this copyright statement is not //// -//// removed from the file and any derivative work contains the //// -//// original copyright notice and the associated disclaimer. //// -//// //// -//// Please let the author know if it is used //// -//// for commercial purpose. //// -//// //// -//// THIS SOFTWARE IS PROVIDED ``AS IS'' AND WITHOUT ANY //// -//// EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED //// -//// TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS //// -//// FOR A PARTICULAR PURPOSE. IN NO EVENT SHALL THE AUTHOR //// -//// OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, //// -//// INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES //// -//// (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE //// -//// GOODS OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR //// -//// BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF //// -//// LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT //// -//// (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT //// -//// OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE //// -//// POSSIBILITY OF SUCH DAMAGE. //// -//// //// -///////////////////////////////////////////////////////////////////// -//// //// -//// //// -//// Date of Creation: 2005.12.3 //// -//// //// -//// Version: 0.0.1 //// -//// //// -//// Description: tx module of the uart module,data format is //// -//// 8bits data,1 bits stop bit,and no parity check //// -//// //// -///////////////////////////////////////////////////////////////////// -//// //// -//// Change log: //// -//// //// -///////////////////////////////////////////////////////////////////// - -module u_xmit_of_verifla( - clk_i,rst_i,//system signal - baud_clk_posedge, - data_i,wen_i,//parallel data in and enable signal - txd_o,//serial data out - tre_o// ready to transmit flag - ); - - parameter // state difinition - STA_IDLE = 0, - STA_TRANS = 1, - STA_FINISH = 2; - - input clk_i; - input rst_i; - input baud_clk_posedge; - input [7:0] data_i; - input wen_i; - - output txd_o; - output tre_o; - - reg txd_o; - reg tre_o; - - reg [7:0] tsr;//transmitting shift register - reg [3:0] num_of_trans; - - reg [1:0] reg_sta; - - //the counter to count the clk in - reg [3:0] count; - reg count_c;//the carry of count - - always @(posedge clk_i or posedge rst_i) - begin - if(rst_i) - begin - tsr <= 8'b0; - txd_o <= 1'b1; - tre_o <= 1'b1; - num_of_trans <= 4'b0; - count_c <= 1'b0; - count <= 4'b0; - reg_sta <= STA_IDLE; - end - else begin - if(baud_clk_posedge) - case(reg_sta) - STA_IDLE: - begin - num_of_trans <= 4'd0; - count <= 4'd0; - count_c <= 1'b0; - if(wen_i) - begin - tsr <= data_i; - tre_o <= 1'b0; - txd_o <= 1'b0;// transmit the start bit - reg_sta <= STA_TRANS; - end - else - reg_sta <= STA_IDLE; - end - STA_TRANS: - begin - {count_c,count} <= count + 1; - - if(count_c) - begin - if(num_of_trans <=4'd8) - begin - //note ,when num_of_trans==8 ,we transmit the stop bit - tsr <= {1'b1,tsr[7:1]}; - txd_o <= tsr[0]; - num_of_trans <= num_of_trans+1; - reg_sta <= STA_TRANS; - end - else begin - txd_o <= 1'b1; - tre_o <= 1'b1; - reg_sta <= STA_IDLE; - end - end - end - endcase - end - end - -endmodule

openverifla_2.3/verilog/verifla/u_xmit_of_verifla.v Property changes : Deleted: svn:executable ## -1 +0,0 ## -* \ No newline at end of property Index: openverifla_2.3/verilog/verifla/monitor_of_verifla.v =================================================================== --- openverifla_2.3/verilog/verifla/monitor_of_verifla.v (revision 41) +++ openverifla_2.3/verilog/verifla/monitor_of_verifla.v (nonexistent) @@ -1,299 +0,0 @@ -/* -file: monitor_of_verifla.v -license: GNU GPL -Revision history -20181016-1225 -- LA_TRACE_MASK -20180827-1700 -- broke mon_run in sys_run and user_run -- clean memory at user_run -20180823-1435 -- mon_run_reg -20180814-1600 -- LA_MEM_CLEAN_BEFORE_RUN is parameter now -20180808-1700 -- ifdef LA_MEM_CLEAN_BEFORE_RUN -revision date: 20180730-1500; Laurentiu Duca -- redesign of mem struct -- the bt_queue_tail_address is wrote at the end of capture. -revision date: 2007/Sep/03; author: Laurentiu DUCA -- the bt_queue_head_address is wrote at the end of capture. -- zero all memory at a mon_run (if LA_MEM_CLEAN_BEFORE_RUN). -- note that _at_ means after trigger event and _bt_ means before trigger event - -revision date: 2007/Jul/4; author: Laurentiu DUCA -- v01 -*/ - - -module monitor_of_verifla (clk, rst_l, - sys_run, user_run, data_in, - mem_port_A_address, mem_port_A_data_in, mem_port_A_wen, - ack_sc_run, sc_done, sc_run); - -`include "common_internal_verifla.v" - -// MON_states -parameter - MON_STATES_BITS=4, - MON_STATE_IDLE=0, - MON_STATE_DO_MEM_CLEAN=1, - MON_STATE_PREPARE_RUN=2, - MON_STATE_WAIT_TRIGGER_MATCH=3, - MON_STATE_AFTER_TRIGGER=4, - MON_STATE_DATA_CAPTURED=5, - MON_STATE_SC_RUN=6, - MON_STATE_WAIT_SC_DONE=7; - -// input -input clk, rst_l; -input [LA_DATA_INPUT_WORDLEN_BITS-1:0] data_in; -input sys_run, user_run, ack_sc_run, sc_done; -// output -output [LA_MEM_ADDRESS_BITS-1:0] mem_port_A_address; -output [LA_MEM_WORDLEN_BITS-1:0] mem_port_A_data_in; -output mem_port_A_wen; -output sc_run; -reg [LA_MEM_ADDRESS_BITS-1:0] mem_port_A_address; -reg [LA_MEM_WORDLEN_BITS-1:0] mem_port_A_data_in; -reg mem_port_A_wen; -reg sys_run_reg, sc_run, next_sc_run; - -// local -reg [MON_STATES_BITS-1:0] mon_state, next_mon_state; -reg [LA_MAX_SAMPLES_AFTER_TRIGGER_BITS-1:0] - next_mon_samples_after_trigger, mon_samples_after_trigger; -reg [LA_MEM_ADDRESS_BITS-1:0] next_mon_write_address, mon_write_address; -reg [LA_MEM_ADDRESS_BITS-1:0] next_bt_queue_tail_address, bt_queue_tail_address; -reg [LA_DATA_INPUT_WORDLEN_BITS-1:0] mon_old_data_in, - mon_current_data_in; //={LA_DATA_INPUT_WORDLEN_BITS{1'b0}}; -reg [LA_IDENTICAL_SAMPLES_BITS-1:0] mon_clones_nr, next_mon_clones_nr; - - -// Register the input data -// such that mon_current_data_in is constant the full clock period. -always @(posedge clk or negedge rst_l) -begin - if(~rst_l) - begin - mon_old_data_in <= 0; - mon_current_data_in <= 0; - sys_run_reg <= 0; - end - else begin - mon_old_data_in <= mon_current_data_in; - mon_current_data_in <= data_in; - sys_run_reg <= sys_run; - end -end - -// set new values -always @(posedge clk or negedge rst_l) -begin - if(~rst_l) - begin - mon_state <= MON_STATE_IDLE; - sc_run <= 0; - mon_write_address <= LA_MEM_FIRST_ADDR; - bt_queue_tail_address <= 0; - mon_samples_after_trigger <= 0; - mon_clones_nr <= 1; - end - else begin - mon_state <= next_mon_state; - sc_run <= next_sc_run; - mon_write_address <= next_mon_write_address; - bt_queue_tail_address <= next_bt_queue_tail_address; - mon_samples_after_trigger <= next_mon_samples_after_trigger; - mon_clones_nr <= next_mon_clones_nr; - end -end - - -// continuous assignments -wire [LA_MEM_ADDRESS_BITS-1:0] one_plus_mon_write_address = (mon_write_address+1); -wire [LA_IDENTICAL_SAMPLES_BITS-1:0] oneplus_mon_clones_nr = (mon_clones_nr+1); -wire data_in_changed = ((mon_current_data_in & LA_TRACE_MASK) != (mon_old_data_in & LA_TRACE_MASK)); -wire last_mem_addr_before_trigger = (mon_write_address == LA_MEM_LAST_ADDR_BEFORE_TRIGGER); -wire not_maximum_mon_clones_nr = (mon_clones_nr < LA_MAX_IDENTICAL_SAMPLES); - - -// mon_prepare_run is called from states MON_STATE_IDLE and MON_STATE_PREPARE_RUN -task mon_prepare_run; -begin - // we share the same clock as memory. - mem_port_A_address=LA_MEM_FIRST_ADDR; - mem_port_A_data_in={{(LA_IDENTICAL_SAMPLES_BITS-1){1'b0}}, 1'b1, mon_current_data_in}; - mem_port_A_wen=1; - next_mon_write_address=LA_MEM_FIRST_ADDR; - next_mon_clones_nr=2; - next_mon_state = MON_STATE_WAIT_TRIGGER_MATCH; -end -endtask - - -// state machine -always @(*) -/* - mon_state or sys_run_reg - or ack_sc_run or sc_done or sc_run - // eliminate warnings - or mon_write_address or bt_queue_tail_address or mon_samples_after_trigger - or mon_current_data_in or mon_old_data_in or mon_clones_nr - or data_in_changed or oneplus_mon_clones_nr or one_plus_mon_write_address - or not_maximum_mon_clones_nr - or last_mem_addr_before_trigger) -*/ -begin - // implicit - next_mon_state=mon_state; - next_sc_run=sc_run; - next_mon_write_address=mon_write_address; - next_bt_queue_tail_address=bt_queue_tail_address; - next_mon_samples_after_trigger=mon_samples_after_trigger; - next_mon_clones_nr = mon_clones_nr; - mem_port_A_address=0; - mem_port_A_data_in=0; - mem_port_A_wen=0; - - // state dependent - case(mon_state) - MON_STATE_IDLE: - begin - if(sys_run_reg || user_run) - begin - if(LA_MEM_CLEAN_BEFORE_RUN || user_run) begin - next_mon_write_address=LA_MEM_FIRST_ADDR; - next_mon_state=MON_STATE_DO_MEM_CLEAN; - end else - mon_prepare_run; - end - else - next_mon_state=MON_STATE_IDLE; - end - - MON_STATE_DO_MEM_CLEAN: - begin - mem_port_A_address=mon_write_address; - mem_port_A_data_in=LA_MEM_EMPTY_SLOT; - mem_port_A_wen=1; - if(mon_write_address < LA_MEM_LAST_ADDR) - begin - next_mon_write_address=mon_write_address+1; - next_mon_state = MON_STATE_DO_MEM_CLEAN; - end - else - // at the new posedge clock, will clean memory at its last address - next_mon_state = MON_STATE_PREPARE_RUN; - end - - MON_STATE_PREPARE_RUN: - begin - mon_prepare_run; - end - - MON_STATE_WAIT_TRIGGER_MATCH: - begin - // circular queue - if((mon_current_data_in & LA_TRIGGER_MASK) != - (LA_TRIGGER_VALUE & LA_TRIGGER_MASK)) - begin - next_mon_state = MON_STATE_WAIT_TRIGGER_MATCH; - mem_port_A_wen = 1; - mem_port_A_address = data_in_changed ? - (last_mem_addr_before_trigger ? LA_MEM_FIRST_ADDR : one_plus_mon_write_address) : - (not_maximum_mon_clones_nr ? mon_write_address : - (last_mem_addr_before_trigger ? LA_MEM_FIRST_ADDR : one_plus_mon_write_address)); - mem_port_A_data_in = data_in_changed ? - {{(LA_IDENTICAL_SAMPLES_BITS-1){1'b0}}, 1'b1, mon_current_data_in} : - (not_maximum_mon_clones_nr ? {mon_clones_nr, mon_current_data_in} : - {{(LA_IDENTICAL_SAMPLES_BITS-1){1'b0}}, 1'b1, mon_current_data_in}); - next_mon_clones_nr = data_in_changed ? 2 : - (not_maximum_mon_clones_nr ? oneplus_mon_clones_nr : 2); - next_mon_write_address = data_in_changed ? - (last_mem_addr_before_trigger ? LA_MEM_FIRST_ADDR: one_plus_mon_write_address) : - (not_maximum_mon_clones_nr ? mon_write_address : - (last_mem_addr_before_trigger ? LA_MEM_FIRST_ADDR : one_plus_mon_write_address)); - end - else begin - // trigger matched - next_mon_state=MON_STATE_AFTER_TRIGGER; - mem_port_A_address=LA_TRIGGER_MATCH_MEM_ADDR; - mem_port_A_data_in = {{{(LA_IDENTICAL_SAMPLES_BITS-1){1'b0}}, 1'b1}, mon_current_data_in}; - mem_port_A_wen=1; - next_mon_write_address=LA_TRIGGER_MATCH_MEM_ADDR; - next_mon_clones_nr=2; - next_bt_queue_tail_address = mon_write_address; - next_mon_samples_after_trigger=1; - end - end - - MON_STATE_AFTER_TRIGGER: - begin - if((mon_samples_after_trigger < LA_MAX_SAMPLES_AFTER_TRIGGER) && - (mon_write_address < LA_MEM_LAST_ADDR)) - begin - mem_port_A_wen = 1; - mem_port_A_address = data_in_changed ? one_plus_mon_write_address : - (not_maximum_mon_clones_nr ? mon_write_address : one_plus_mon_write_address); - mem_port_A_data_in = data_in_changed ? {{(LA_IDENTICAL_SAMPLES_BITS-1){1'b0}}, 1'b1, mon_current_data_in} : - (not_maximum_mon_clones_nr ? {mon_clones_nr, mon_current_data_in} : - {{(LA_IDENTICAL_SAMPLES_BITS-1){1'b0}}, 1'b1, mon_current_data_in}); - next_mon_clones_nr = data_in_changed ? 2 : - (not_maximum_mon_clones_nr ? oneplus_mon_clones_nr : 2); - next_mon_write_address = data_in_changed ? one_plus_mon_write_address : - (not_maximum_mon_clones_nr ? mon_write_address : one_plus_mon_write_address); - next_mon_samples_after_trigger=mon_samples_after_trigger+1; - next_mon_state=MON_STATE_AFTER_TRIGGER; - end - else begin - mem_port_A_wen=0; - next_mon_state=MON_STATE_DATA_CAPTURED; - end - end - - MON_STATE_DATA_CAPTURED: - begin - // Save bt_queue_tail_address - mem_port_A_address = LA_BT_QUEUE_TAIL_ADDRESS; - mem_port_A_data_in = - {{(LA_MEM_WORDLEN_BITS-LA_MEM_ADDRESS_BITS){1'b0}}, - bt_queue_tail_address}; - mem_port_A_wen = 1; - next_mon_state=MON_STATE_SC_RUN; - end - - MON_STATE_SC_RUN: - begin - next_mon_state=MON_STATE_WAIT_SC_DONE; - next_sc_run=1; - end - MON_STATE_WAIT_SC_DONE: - begin - // sc_run must already be 1, when entering state MON_STATE_SEND_CAPTURE. - if(ack_sc_run) - next_sc_run=0; - if((sc_run == 0) && (sc_done)) - next_mon_state=MON_STATE_IDLE; - else - next_mon_state=MON_STATE_WAIT_SC_DONE; - end - - - default: // should never get here - begin - next_mon_state=4'bxxxx; - next_sc_run=1'bx; - next_mon_write_address={LA_MEM_ADDRESS_BITS{1'bx}}; - next_bt_queue_tail_address={(LA_MEM_ADDRESS_BITS){1'bx}}; - next_mon_samples_after_trigger={LA_MAX_SAMPLES_AFTER_TRIGGER_BITS{1'bx}}; - next_mon_clones_nr={LA_IDENTICAL_SAMPLES_BITS{1'bx}}; - mem_port_A_address={LA_MEM_ADDRESS_BITS{1'bx}}; - mem_port_A_data_in={LA_MEM_WORDLEN_BITS{1'bx}}; - mem_port_A_wen=1'bx; - end - endcase -end - - -endmodule

openverifla_2.3/verilog/verifla/monitor_of_verifla.v Property changes : Deleted: svn:executable ## -1 +0,0 ## -* \ No newline at end of property Index: openverifla_2.3/verilog/verifla/memory_of_verifla.v =================================================================== --- openverifla_2.3/verilog/verifla/memory_of_verifla.v (revision 41) +++ openverifla_2.3/verilog/verifla/memory_of_verifla.v (nonexistent) @@ -1,69 +0,0 @@ -/* -20180814-1600 -- LA_MEM_CLEAN_BEFORE_RUN is not used here anymore; -LA_INIT_MEM_AT_RESET is used instead. -20180808-1700 -- ifdef LA_MEM_CLEAN_BEFORE_RUN -Author: Laurentiu Duca -License: GNU GPL -*/ - -module memory_of_verifla ( - clk, rst_l, //clkb, - addra, wea, dina, addrb, doutb -); - -`include "common_internal_verifla.v" - -input rst_l; -input clk; -//input clkb; -input wea; -input [LA_MEM_ADDRESS_BITS-1:0] addra; -input [LA_MEM_ADDRESS_BITS-1:0] addrb; -output [LA_MEM_WORDLEN_BITS-1:0] doutb; -input [LA_MEM_WORDLEN_BITS-1:0] dina; - -reg [LA_MEM_WORDLEN_BITS-1:0] mem[LA_MEM_LAST_ADDR:0]; - -//assign doutb = mem[addrb]; -// This works too as a consequence of send_capture_of_verifla architecture. -reg [LA_MEM_WORDLEN_BITS-1:0] doutb; -always @(posedge clk or negedge rst_l) -if(~rst_l) - doutb <= LA_MEM_EMPTY_SLOT; -else - doutb <= mem[addrb]; - -`ifndef LA_INIT_MEM_AT_RESET -always @(posedge clk) -begin - if(wea) begin - mem[addra] <= dina; - end -end -`else -//reg [LA_MEM_WORDLEN_BITS-1:0] i; -always @(posedge clk or negedge rst_l) -begin - if(~rst_l) begin:RESET_SECTON - integer i; - for(i=0; i<=LA_MEM_LAST_ADDR; i=i+1) - mem[i] <= LA_MEM_EMPTY_SLOT; - end else begin - if(wea) begin - mem[addra] <= dina; - end - end -end -`endif - -initial begin:INIT_SECTION - integer i; - for(i=0; i<=LA_MEM_LAST_ADDR; i=i+1) - mem[i] <= LA_MEM_EMPTY_SLOT; - //$readmemh("mem2018-2.mif", mem); -end - -endmodule -

openverifla_2.3/verilog/verifla/memory_of_verifla.v Property changes : Deleted: svn:executable ## -1 +0,0 ## -* \ No newline at end of property Index: openverifla_2.3/verilog/verifla/single_pulse_of_verifla.v =================================================================== --- openverifla_2.3/verilog/verifla/single_pulse_of_verifla.v (revision 41) +++ openverifla_2.3/verilog/verifla/single_pulse_of_verifla.v (nonexistent) @@ -1,83 +0,0 @@ -// Update: 20180814_1555, author: Laurentiu Duca -// User readable form. -// Create Date: 16:17:26 02/23/2007 -// Additional Comments: single pulse from a multi-periods-contiguos pulse -// Author: Laurentiu Duca -// License: GNU GPL - -`timescale 1ns / 1ps - -module single_pulse_of_verifla(clk, rst_l, ub, ubsing); -input clk, rst_l; -input ub; -output ubsing; - - -reg next_state, state; -reg ubsing_reg, next_ubsing_reg; - -assign ubsing = ubsing_reg; - -always @(posedge clk or negedge rst_l) -begin - if (~rst_l) begin - state <= 0; - ubsing_reg <= 0; - end else begin - state <= next_state; - ubsing_reg <= next_ubsing_reg; - end -end - -always @(*) -begin - next_state <= state; - next_ubsing_reg <= 0; - case (state) - 0: if (ub == 1) begin - next_state <= 1; - next_ubsing_reg <= 1; - end - 1: if (ub == 0) - next_state <= 0; - endcase -end - - -/* -Truth table -==== -before (posedge clk) | after (posedge clk) -ub / state(q1q0) | state(q1q0) / ubsing -0 / 00 | 00 / 0 -1 / 00 | 01 / 1 -x / 01 | 10 / 0 -0 / 10 | 00 / 0 -1 / 10 | 10 / 0 - -Notes: -- works only if the (posedge ub) comes 2 clk periods after the prevoius (negedge ub). -- after rst_l, ub can be either 0 or 1. -*/ - -/* -reg [1:0] q; -assign ubsing = q[0]; - -always @ (posedge clk or negedge rst_l) -begin - -if(~rst_l) -begin - q[0] <= 0; - q[1] <= 0; -end -else -begin - q[0] <= ~q[0] && ub && ~q[1]; - q[1] <= q[0] || (~q[0] && ub && q[1]); -end -end -*/ - -endmodule

openverifla_2.3/verilog/verifla/single_pulse_of_verifla.v Property changes : Deleted: svn:executable ## -1 +0,0 ## -* \ No newline at end of property Index: openverifla_2.3/verilog/verifla/inc_of_verifla.v =================================================================== --- openverifla_2.3/verilog/verifla/inc_of_verifla.v (revision 41) +++ openverifla_2.3/verilog/verifla/inc_of_verifla.v (nonexistent) @@ -1,17 +0,0 @@ -parameter CLOCK_FREQUENCY = 50000000; -// If CLOCK_FREQUENCY < 50 MHz then BAUDRATE must be < 115200 bps (for example 9600). -parameter BAUDRATE = 115200; - -parameter T2_div_T1_div_2 = CLOCK_FREQUENCY / (BAUDRATE * 16 * 2); -// Assert: BAUD_COUNTER_SIZE >= log2(T2_div_T1_div_2) bits -parameter BAUD_COUNTER_SIZE = 15; -//`define DEBUG -/* -1s ... 50000000 T1 -1bit ... 16 T2 -1s .. 115200 bits -=> -1s .. 115200 * 16 T2 - -T2 = 5000000 T1 / (115200 * 16) = T1 * 50000000 / (115200 * 16) -*/

openverifla_2.3/verilog/verifla/inc_of_verifla.v Property changes : Deleted: svn:executable ## -1 +0,0 ## -* \ No newline at end of property Index: openverifla_2.3/verilog/verifla/baud_of_verifla.v =================================================================== --- openverifla_2.3/verilog/verifla/baud_of_verifla.v (revision 41) +++ openverifla_2.3/verilog/verifla/baud_of_verifla.v (nonexistent) @@ -1,45 +0,0 @@ - -module baud_of_verifla( - sys_clk, - sys_rst_l, - baud_clk_posedge - ); - - -`include "inc_of_verifla.v" - - -input sys_clk; -input sys_rst_l; -output baud_clk_posedge; -reg baud_clk; -reg baud_clk_posedge; - -reg [BAUD_COUNTER_SIZE-1:0] counter=0; //{BAUD_COUNTER_SIZE{1'b0}}; - -always @(posedge sys_clk or negedge sys_rst_l) -begin - if(~sys_rst_l) begin - baud_clk <= 0; - baud_clk_posedge <= 0; - counter <= 0; - end else if (counter < T2_div_T1_div_2) begin - counter <= counter + 1; - baud_clk <= baud_clk; - baud_clk_posedge <= 0; - end else begin - if(~baud_clk) // baud_clk will become 1 - baud_clk_posedge <= 1; - counter <= 0; - baud_clk <= ~baud_clk; - end -end - -/* -reg [2:0] baud_vec=3'b000; -always @(posedge clk) baud_vec = {baud_vec[1:0], baud_clk}; -wire baud_clk_posedge=(baud_vec[2:1]=2'b01; -wire baud_clk_negedge=(baud_vec[2:1]=2'b10; -*/ - -endmodule

openverifla_2.3/verilog/verifla/baud_of_verifla.v Property changes : Deleted: svn:executable ## -1 +0,0 ## -* \ No newline at end of property Index: openverifla_2.3/verilog/verifla/uart_of_verifla.v =================================================================== --- openverifla_2.3/verilog/verifla/uart_of_verifla.v (revision 41) +++ openverifla_2.3/verilog/verifla/uart_of_verifla.v (nonexistent) @@ -1,101 +0,0 @@ -/* -Update: Laurentiu Duca, 20180808_1200: - - consider baud_clk_posedge -*/ -module uart_of_verifla ( sys_clk, - sys_rst_l, - baud_clk_posedge, - - // Transmitter - uart_XMIT_dataH, - xmitH, - xmit_dataH, - xmit_doneH, - - // Receiver - uart_REC_dataH, - rec_dataH, - rec_readyH - ); - -input sys_clk; -input sys_rst_l; -output baud_clk_posedge; - -// Trasmitter -output uart_XMIT_dataH; -input xmitH; -input [7:0] xmit_dataH; -output xmit_doneH; - -// Receiver -input uart_REC_dataH; -output [7:0] rec_dataH; -output rec_readyH; - -wire baud_clk_posedge; -wire [7:0] rec_dataH; -wire rec_readyH; - - - -// Instantiate the Transmitter -u_xmit_of_verifla txd1 ( - .clk_i(sys_clk), - .rst_i(!sys_rst_l), - .baud_clk_posedge(baud_clk_posedge), - .data_i(xmit_dataH), - .wen_i(xmitH), - .txd_o(uart_XMIT_dataH), - .tre_o(xmit_doneH) - ); -/* -u_xmit iXMIT( .sys_clk(baud_clk), - .sys_rst_l(sys_rst_l), - - .uart_xmitH(uart_XMIT_dataH), - .xmitH(xmitH), - .xmit_dataH(xmit_dataH), - .xmit_doneH(xmit_doneH) - ); -*/ - -// Instantiate the Receiver -u_rec_of_verifla rxd1( - .clk_i(sys_clk), - .rst_i(!sys_rst_l),//system signal - .baud_clk_posedge(baud_clk_posedge), - .rxd_i(uart_REC_dataH),//serial data in - .rdy_o (rec_readyH), .data_o(rec_dataH) //data ready and parallel data out signal - ); -/* -u_rec iRECEIVER (// system connections - .sys_rst_l(sys_rst_l), - .sys_clk(baud_clk), - // uart - .uart_dataH(uart_REC_dataH), - .rec_dataH(rec_dataH), - .rec_readyH(rec_readyH) - ); -*/ - -// Instantiate the Baud Rate Generator - -baud_of_verifla baud1( .sys_clk(sys_clk), - .sys_rst_l(sys_rst_l), - .baud_clk_posedge(baud_clk_posedge) - ); - -/* -reg [2:0] baud_clk_vec=0; -always @(posedge sys_clk or negedge sys_rst_l) -begin - if(~sys_rst_l) - baud_clk_vec = 0; - else - baud_clk_vec = {baud_clk_vec[1:0], baud_clk}; -end -wire baud_clk_posedge; -assign baud_clk_posedge=baud_clk_vec[2:1]==2'b01; -*/ -endmodule

openverifla_2.3/verilog/verifla/uart_of_verifla.v Property changes : Deleted: svn:executable ## -1 +0,0 ## -* \ No newline at end of property Index: openverifla_2.3/verilog/keyboard-driver/keyboard.ucf =================================================================== --- openverifla_2.3/verilog/keyboard-driver/keyboard.ucf (revision 41) +++ openverifla_2.3/verilog/keyboard-driver/keyboard.ucf (nonexistent) @@ -1,28 +0,0 @@ -#NET "switch[0]" LOC="L13"; -#NET "switch[1]" LOC="L14"; -#NET "switch[2]" LOC="H18"; -#NET "switch[3]" LOC="N17"; - -NET "clk" LOC = "C9"; -NET "reset" LOC = "L13"; - -NET "kbd_data_line" LOC = "G13"; -NET "kbd_clk" LOC = "G14"; - -#NET "J1_0" LOC = "N15"; -#NET "J1_1" LOC = "N14"; -#NET "J1_2" LOC = "E15"; -#NET "J1_3" LOC = "V7"; - -#leds -NET "kbd_key[0]" LOC="D4"; -NET "kbd_key[1]" LOC="C3"; -NET "kbd_key[2]" LOC="D6"; -NET "kbd_key[3]" LOC="E6"; -NET "kbd_key[4]" LOC="D13"; -NET "kbd_key[5]" LOC="A7"; -NET "kbd_key[6]" LOC="G9"; -NET "kbd_key[7]" LOC="A8"; - -NET "uart_REC_dataH" LOC = "R13"; -NET "uart_XMIT_dataH" LOC = "P13";

openverifla_2.3/verilog/keyboard-driver/keyboard.ucf Property changes : Deleted: svn:executable ## -1 +0,0 ## -* \ No newline at end of property Index: openverifla_2.3/verilog/keyboard-driver/keyboard_driver_test.v =================================================================== --- openverifla_2.3/verilog/keyboard-driver/keyboard_driver_test.v (revision 41) +++ openverifla_2.3/verilog/keyboard-driver/keyboard_driver_test.v (nonexistent) @@ -1,90 +0,0 @@ -`timescale 1ns / 1ps -module keyboard_driver_test(kbd_key); - -`include "../verifla/common_internal_verifla.v" - -// This test module is wrote -// in the following scenario: the driver is on the FPGA and the keyboard -// is attached to the FPGA development board - -// Declaration -output [7:0] kbd_key; -wire [7:0] kbd_key; -// This signals must explicitly added to the simulation. -// For debugging purposes, also add the register named "i" from the keyboard driver -reg reset, clk; -reg kbd_clk, kbd_data_line; -wire uart_XMIT_dataH; -reg uart_REC_dataH=1; - -reg [64:0] i; - -keyboard kd (kbd_data_line, kbd_clk, kbd_key, - clk, reset, - //top_of_verifla transceiver - uart_XMIT_dataH, uart_REC_dataH -); - -always begin - clk = 0; - #5; - clk = 1; - #5; -end - -// Reset the driver by using the reset button of the FPGA board. -initial begin - $dumpfile("kbd.vcd"); - $dumpvars; - reset = 0; - #10; - reset = 1; - #10; - reset = 0; -end - -// Now, simulate the keyboard. -// Consider the keyboard clock period to be about 10 units. -initial begin - // At the begining, the line is idle for some periods. - kbd_clk=1; kbd_data_line=1; #2050; #2050; - - // When a key is pressed, the keyboard sends its scan code - // on the data line. For the 'a' key, the scan code is 1Ch=00011100b. - // The order is LSb first, so the bits are sent in the following order: 00111000. - // Simulate pressing the 'a' key. - // Send start bit. - kbd_clk=1; #250; kbd_data_line=0; #250; kbd_clk=0; #500; - // Send the scan code - kbd_clk=1; #250; kbd_data_line=0; #250; kbd_clk=0; #500; - kbd_clk=1; #250; kbd_data_line=0; #250; kbd_clk=0; #500; - kbd_clk=1; #250; kbd_data_line=1; #250; kbd_clk=0; #500; - kbd_clk=1; #250; kbd_data_line=1; #250; kbd_clk=0; #500; - kbd_clk=1; #250; kbd_data_line=1; #250; kbd_clk=0; #500; - kbd_clk=1; #250; kbd_data_line=0; #250; kbd_clk=0; #500; - kbd_clk=1; #250; kbd_data_line=0; #250; kbd_clk=0; #500; - kbd_clk=1; #250; kbd_data_line=0; #250; kbd_clk=0; #500; - // Send the parity bit which is '1' for the 'a' key. - kbd_clk=1; #250; kbd_data_line=1; #250; kbd_clk=0; #500; - // Send the stop bit. - kbd_clk=1; #250; kbd_data_line=1; #250; kbd_clk=0; #500; - // Put the line idle for two periods. - kbd_clk=1; kbd_data_line=1; #2050; #2050; - #1000; - // When the 'a' key - that is now pressed, - // will be released, then the keyboard will send F0h, 1Ch. - // We do not simulate this because the process is similar. - -`ifdef DEBUG_LA - //$display("value: %b", {{{(LA_IDENTICAL_SAMPLES_BITS-1){1'b0}}, 1'b1}, {LA_DATA_INPUT_WORDLEN_BITS{1'b0}}}); - for(i = 0; i <= LA_MEM_LAST_ADDR; i = i + 1) begin - //$display("i=%d m2[i]=%d m1[i]=%b", i, kd.verifla.mi.m2[i], kd.verifla.mi.m1[i]); - $display("%d %h %h %h %h", i, kd.verifla.mi.mem[i][31:24], kd.verifla.mi.mem[i][22:16], - kd.verifla.mi.mem[i][15:8], kd.verifla.mi.mem[i][7:0]); - end - //$display("m[%d]=%d", LA_MEM_LAST_ADDR, kd.verifla.mi.mem[LA_MEM_LAST_ADDR]); -`endif - $stop; -end - -endmodule

openverifla_2.3/verilog/keyboard-driver/keyboard_driver_test.v Property changes : Deleted: svn:executable ## -1 +0,0 ## -* \ No newline at end of property Index: openverifla_2.3/verilog/keyboard-driver/keyboard.v =================================================================== --- openverifla_2.3/verilog/keyboard-driver/keyboard.v (revision 41) +++ openverifla_2.3/verilog/keyboard-driver/keyboard.v (nonexistent) @@ -1,81 +0,0 @@ -module keyboard(kbd_data_line, kbd_clk, kbd_key, - clk, reset, - //top_of_verifla transceiver - uart_XMIT_dataH, uart_REC_dataH -); - - -input clk, reset; -//top_of_verifla transceiver -input uart_REC_dataH; -output uart_XMIT_dataH; - -// App. specific -input kbd_data_line, kbd_clk; -output [7:0] kbd_key; // register for storing keyboard data - -reg [7:0] kbd_key; -reg [3:0] i; // initial value needs to be not equal to 0 through 7. set initial to 10. - -wire negedge_kbd_clk; - - -// This is the keyboard driver logic (fsm). -always @ (posedge clk or posedge reset) -begin - if(reset) - begin - i=10; - kbd_key=8'h0; //{8'b00010010};//8'h0; - end - else begin - if(negedge_kbd_clk) - begin - if ((i >= 0) && (i <= 7)) - // If i is pointing to a bit of data let us keep it. - begin - kbd_key = {kbd_data_line, kbd_key[7:1]}; - i = i + 1; - end - else if ((i == 8) || (i == 9)) - // Otherwise if i is pointing to the parity bit or the stop bit let us ignore it. - begin - i = i + 1; - end - else // Else we have a start bit - begin - i = 0; - end - end - end -end - - -reg [2:0] kbd_clk_buf=3'b000; -always @ (posedge clk) kbd_clk_buf={kbd_clk_buf[1:0], kbd_clk}; -assign negedge_kbd_clk = kbd_clk_buf[2:1]==2'b10; - - -// Simple counter -reg [5:0] cnt=0; -always @(posedge clk or posedge reset) -begin - if(reset) - cnt = 0; - else - if(negedge_kbd_clk) - cnt = cnt+1; -end - -// VeriFLA -top_of_verifla verifla (.clk(clk), .rst_l(!reset), .sys_run(1'b1), - .data_in({cnt, kbd_data_line, kbd_clk, kbd_key}), - //{6'b0, kbd_data_line, kbd_clk, kbd_key}, - // Transceiver - .uart_XMIT_dataH(uart_XMIT_dataH), .uart_REC_dataH(uart_REC_dataH)); - -endmodule - -// Local Variables: -// verilog-library-directories:(".", "../verifla") -// End:

openverifla_2.3/verilog/keyboard-driver/keyboard.v Property changes : Deleted: svn:executable ## -1 +0,0 ## -* \ No newline at end of property Index: openverifla_2.3/vhdl/verifla/common_internal_verifla.vhd =================================================================== --- openverifla_2.3/vhdl/verifla/common_internal_verifla.vhd (revision 41) +++ openverifla_2.3/vhdl/verifla/common_internal_verifla.vhd (nonexistent) @@ -1,55 +0,0 @@ --- date: 20180821-1530 --- author: Laurentiu Duca ---------------------------------------------------------------------------- - -library IEEE; -use IEEE.STD_LOGIC_1164.ALL; -use IEEE.NUMERIC_STD.ALL; ---use ieee.std_logic_arith.all; ---use ieee.std_logic_unsigned.all; - ---------------------------------------------------------------------------- - -package common_internal_verifla is - --- Data input width and indentical samples bits must be multiple of 8. -constant LA_DATA_INPUT_WORDLEN_BITS: integer :=16; - --- Trigger -constant LA_TRIGGER_VALUE: std_logic_vector((LA_DATA_INPUT_WORDLEN_BITS-1) downto 0) - :=(others => '0'); -constant LA_TRIGGER_MASK: std_logic_vector((LA_DATA_INPUT_WORDLEN_BITS-1) downto 0) - :=(LA_DATA_INPUT_WORDLEN_BITS-7 downto LA_DATA_INPUT_WORDLEN_BITS-8 => '1', - others => '0'); -constant LA_TRACE_MASK: std_logic_vector((LA_DATA_INPUT_WORDLEN_BITS-1) downto 0) - :=(others => '1'); - -constant LA_MEM_CLEAN_BEFORE_RUN: integer :=1; -constant LA_IDENTICAL_SAMPLES_BITS: integer :=16; -constant LA_MEM_WORDLEN_BITS: integer :=(LA_DATA_INPUT_WORDLEN_BITS+LA_IDENTICAL_SAMPLES_BITS); -constant LA_MEM_WORDLEN_OCTETS: integer :=((LA_MEM_WORDLEN_BITS+7)/8); -constant LA_MEM_ADDRESS_BITS: integer :=6; -constant LA_MEM_FIRST_ADDR: integer := 0; -constant LA_MEM_LAST_ADDR: integer := 2 ** LA_MEM_ADDRESS_BITS - 1; - -constant LA_BT_QUEUE_TAIL_ADDRESS: integer :=LA_MEM_LAST_ADDR; --- constraint: (LA_MEM_FIRST_ADDR + 4) <= LA_TRIGGER_MATCH_MEM_ADDR <= (LA_MEM_LAST_ADDR - 4) -constant LA_TRIGGER_MATCH_MEM_ADDR: integer := 2 ** (LA_MEM_ADDRESS_BITS - 3); -constant LA_MEM_LAST_ADDR_BEFORE_TRIGGER: integer := LA_TRIGGER_MATCH_MEM_ADDR - 1; -constant LA_MAX_SAMPLES_AFTER_TRIGGER_BITS: integer :=26; -constant LA_MAX_SAMPLES_AFTER_TRIGGER: integer := 2 ** (LA_MAX_SAMPLES_AFTER_TRIGGER_BITS-1) - 1; - --- Identical samples -constant LA_MAX_IDENTICAL_SAMPLES: integer := 2 ** LA_IDENTICAL_SAMPLES_BITS - 2; - ---Reserved mem words --- LA_MEM_EMPTY_SLOT which represents an empty and not used memory slot. ---It has sense if LA_MEM_CLEAN_BEFORE_RUN and --- a) when the trigger event arrives before the filling of the full btqueue. --- b) after the trigger event and after capturing LA_MAX_SAMPLES_AFTER_TRIGGER - ---`define LA_INIT_MEM_AT_RESET: instead of this verilog define we have two architectures for memory. -constant LA_MEM_EMPTY_SLOT: std_logic_vector(LA_MEM_WORDLEN_BITS-1 downto 0) - := (others => '0'); - -end common_internal_verifla;

openverifla_2.3/vhdl/verifla/common_internal_verifla.vhd Property changes : Deleted: svn:executable ## -1 +0,0 ## -* \ No newline at end of property Index: openverifla_2.3/vhdl/verifla/top_of_verifla.vhd =================================================================== --- openverifla_2.3/vhdl/verifla/top_of_verifla.vhd (revision 41) +++ openverifla_2.3/vhdl/verifla/top_of_verifla.vhd (nonexistent) @@ -1,71 +0,0 @@ --- 20180820-1740 --- Author: Laurentiu Duca --- License: GNU GPL ------------------------------------------------------ - -library IEEE; -use IEEE.STD_LOGIC_1164.ALL; -use IEEE.NUMERIC_STD.ALL; ---use ieee.std_logic_arith.all; -use ieee.std_logic_unsigned.all; -use work.common_internal_verifla.all; - ------------------------------------------------------ - -entity top_of_verifla is - port (clk, rst_l, sys_run: in std_logic; - data_in: in std_logic_vector(LA_DATA_INPUT_WORDLEN_BITS-1 downto 0); - -- Transceiver - uart_XMIT_dataH: out std_logic; - uart_REC_dataH: in std_logic); -end top_of_verifla; - ------------------------------------------------------ - -architecture top_of_verifla_arch of top_of_verifla is - - signal mem_port_A_data_in, mem_port_B_dout: std_logic_vector(LA_MEM_WORDLEN_BITS-1 downto 0); - signal mem_port_A_address, mem_port_B_address: std_logic_vector (LA_MEM_ADDRESS_BITS-1 downto 0) ; - signal mem_port_A_wen: std_logic; - signal user_run: std_logic; - signal sc_run, ack_sc_run, sc_done: std_logic; - -- Transmitter - signal xmit_dataH: std_logic_vector(7 downto 0); - signal xmit_doneH, xmitH: std_logic; - -- Receiver - signal rec_dataH: std_logic_vector(7 downto 0); - signal rec_readyH: std_logic; - -- Baud - signal baud_clk_posedge: std_logic; - -begin - iUART: entity work.uart_of_verifla(uart_of_verifla_arch) - port map(clk, rst_l, baud_clk_posedge, - -- Transmitter - uart_XMIT_dataH, xmitH, xmit_dataH, xmit_doneH, - -- Receiver - uart_REC_dataH, rec_dataH, rec_readyH); - mi: entity work.memory_of_verifla(memory_of_verifla_arch) - port map (addra => mem_port_A_address, addrb => mem_port_B_address, - clk=>clk, rst_l=>rst_l, - dina=>mem_port_A_data_in, doutb=>mem_port_B_dout, - wea=>mem_port_A_wen); - - ci: entity work.computer_input_of_verifla(computer_input_of_verifla_arch) - port map (clk, rst_l, rec_dataH, rec_readyH, user_run); - - mon: entity work.monitor_of_verifla(monitor_of_verifla_arch) - port map (clk, rst_l, - sys_run, user_run, data_in, - mem_port_A_address, mem_port_A_data_in, mem_port_A_wen, - ack_sc_run, sc_done, sc_run); - - -- send_capture_of_verifla must use the same reset as the uart. - sc: entity work.send_capture_of_verifla(send_capture_of_verifla_arch) - port map (clk, rst_l, baud_clk_posedge, - sc_run, ack_sc_run, sc_done, - mem_port_B_address, mem_port_B_dout, - xmit_doneH, xmitH, xmit_dataH); - -end top_of_verifla_arch; -

openverifla_2.3/vhdl/verifla/top_of_verifla.vhd Property changes : Deleted: svn:executable ## -1 +0,0 ## -* \ No newline at end of property Index: openverifla_2.3/vhdl/verifla/u_xmit_of_verifla.vhd =================================================================== --- openverifla_2.3/vhdl/verifla/u_xmit_of_verifla.vhd (revision 41) +++ openverifla_2.3/vhdl/verifla/u_xmit_of_verifla.vhd (nonexistent) @@ -1,87 +0,0 @@ --- 20180816-1600 --- author: Laurentiu Duca --- license: GNU GPL ------------------------------------------------------ - -library IEEE; -use IEEE.STD_LOGIC_1164.ALL; -use IEEE.NUMERIC_STD.ALL; ---use ieee.std_logic_arith.all; ---use ieee.std_logic_unsigned.all; - ------------------------------------------------------ - - -entity u_xmit_of_verifla is -port( clk_i, rst_i, baud_clk_posedge: in std_logic; - data_i:in std_logic_vector(7 downto 0); - wen_i: in std_logic; - txd_o, tre_o: out std_logic -); -end u_xmit_of_verifla; - ------------------------------------------------------ - -architecture u_xmit_of_verifla_arch of u_xmit_of_verifla is - - type state_type is (STA_IDLE, STA_TRANS, STA_FINISH); - signal txd_o_reg, tre_o_reg: std_logic; - signal tsr: std_logic_vector(7 downto 0); -- transmitting shift register - signal num_of_trans: std_logic_vector(3 downto 0); - signal reg_sta: state_type; - signal count: std_logic_vector(4 downto 0); -- the counter to count the clk in - --signal count_c: std_logic; -- the carry of count - -begin - - txd_o <= txd_o_reg; - tre_o <= tre_o_reg; - - state_reg: process(clk_i, rst_i) - begin - if (rst_i='1') then - tsr <= x"00"; - txd_o_reg <= '1'; - tre_o_reg <= '1'; - num_of_trans <= "0000"; - --count_c <= '0'; - count <= "00000"; - reg_sta <= STA_IDLE; - elsif (rising_edge(clk_i)) then - if(baud_clk_posedge = '1') then - case reg_sta is - when STA_IDLE => - num_of_trans <= "0000"; - count <= "00000"; - --count_c <= '0'; - if (wen_i = '1') then - tsr <= data_i; - tre_o_reg <= '0'; - txd_o_reg <= '0'; - reg_sta <= STA_TRANS; - else - reg_sta <= STA_IDLE; - end if; - when STA_TRANS => - count <= std_logic_vector(unsigned('0' & count(3 downto 0)) + "00001"); - if(count(4) = '1') then - if(num_of_trans <= x"8") then - -- note ,when num_of_trans==8 ,we transmit the stop bit - tsr <= '1' & tsr(7 downto 1); - txd_o_reg <= tsr(0); - num_of_trans <= std_logic_vector(unsigned(num_of_trans) + "0001"); - reg_sta <= STA_TRANS; - else - txd_o_reg <= '1'; - tre_o_reg <= '1'; - reg_sta <= STA_IDLE; - end if; - end if; - when others => - -- this is forced by the vhdl compiler - end case; - end if; - end if; - end process; - -end u_xmit_of_verifla_arch; \ No newline at end of file

openverifla_2.3/vhdl/verifla/u_xmit_of_verifla.vhd Property changes : Deleted: svn:executable ## -1 +0,0 ## -* \ No newline at end of property Index: openverifla_2.3/vhdl/verifla/monitor_of_verifla.vhd =================================================================== --- openverifla_2.3/vhdl/verifla/monitor_of_verifla.vhd (revision 41) +++ openverifla_2.3/vhdl/verifla/monitor_of_verifla.vhd (nonexistent) @@ -1,337 +0,0 @@ --- Author: Laurentiu Duca --- License: GNU GPL --- 20181016-1225 --- LA_TRACE_MASK --- 20180826-1740 --- split mon_run in sys_run and user_run --- 20180820-1500 --- first source ------------------------------------------------------ - -library IEEE; -use IEEE.STD_LOGIC_1164.ALL; -use IEEE.NUMERIC_STD.ALL; ---use ieee.std_logic_arith.all; ---use ieee.std_logic_unsigned.all; -use work.common_internal_verifla.all; - ------------------------------------------------------ - -entity monitor_of_verifla is - port (clk, rst_l: in std_logic; - sys_run, user_run: in std_logic; - data_in: in std_logic_vector(LA_DATA_INPUT_WORDLEN_BITS-1 downto 0); - mem_port_A_address: out std_logic_vector(LA_MEM_ADDRESS_BITS-1 downto 0); - mem_port_A_data_in: out std_logic_vector(LA_MEM_WORDLEN_BITS-1 downto 0); - mem_port_A_wen: out std_logic; - ack_sc_run, sc_done: in std_logic; - sc_run: out std_logic); -end monitor_of_verifla; - ------------------------------------------------------ - -architecture monitor_of_verifla_arch of monitor_of_verifla is - - constant LA_MEM_FIRST_ADDR_SLV: std_logic_vector(LA_MEM_ADDRESS_BITS-1 downto 0) - := std_logic_vector(to_unsigned(LA_MEM_FIRST_ADDR, LA_MEM_ADDRESS_BITS)); - constant LA_MEM_LAST_ADDR_SLV: std_logic_vector(LA_MEM_ADDRESS_BITS-1 downto 0) - := std_logic_vector(to_unsigned(LA_MEM_LAST_ADDR, LA_MEM_ADDRESS_BITS)); - constant LA_BT_QUEUE_TAIL_ADDRESS_SLV: std_logic_vector(LA_MEM_ADDRESS_BITS-1 downto 0) - := LA_MEM_LAST_ADDR_SLV; - constant LA_TRIGGER_MATCH_MEM_ADDR_SLV: std_logic_vector(LA_MEM_ADDRESS_BITS-1 downto 0) - := std_logic_vector(to_unsigned(LA_TRIGGER_MATCH_MEM_ADDR, LA_MEM_ADDRESS_BITS)); - constant LA_MEM_LAST_ADDR_BEFORE_TRIGGER_SLV: std_logic_vector(LA_MEM_ADDRESS_BITS-1 downto 0) - := std_logic_vector(to_unsigned(LA_MEM_LAST_ADDR_BEFORE_TRIGGER, LA_MEM_ADDRESS_BITS)); - - --type state_type is (MON_STATE_IDLE, MON_STATE_DO_MEM_CLEAN, MON_STATE_PREPARE_RUN, - --MON_STATE_WAIT_TRIGGER_MATCH, MON_STATE_AFTER_TRIGGER, MON_STATE_DATA_CAPTURED, - --MON_STATE_SC_RUN, MON_STATE_WAIT_SC_DONE); - -- This way, at reset we can set any start state. - constant MON_STATE_IDLE: integer :=0; - constant MON_STATE_DO_MEM_CLEAN: integer :=1; - constant MON_STATE_PREPARE_RUN: integer :=2; - constant MON_STATE_WAIT_TRIGGER_MATCH: integer :=3; - constant MON_STATE_AFTER_TRIGGER: integer :=4; - constant MON_STATE_DATA_CAPTURED: integer :=5; - constant MON_STATE_SC_RUN: integer :=6; - constant MON_STATE_WAIT_SC_DONE: integer :=7; - - signal sys_run_reg: std_logic; - signal sc_run_aux, next_sc_run_aux: std_logic; - signal mon_state, next_mon_state: integer; -- state_type; - signal next_mon_samples_after_trigger, mon_samples_after_trigger: - std_logic_vector(LA_MAX_SAMPLES_AFTER_TRIGGER_BITS-1 downto 0); - signal next_mon_write_address, mon_write_address: - std_logic_vector(LA_MEM_ADDRESS_BITS-1 downto 0); - signal next_bt_queue_tail_address, bt_queue_tail_address: std_logic_vector(LA_MEM_ADDRESS_BITS-1 downto 0); - signal mon_old_data_in, mon_current_data_in: std_logic_vector(LA_DATA_INPUT_WORDLEN_BITS-1 downto 0); - signal mon_clones_nr, next_mon_clones_nr: std_logic_vector(LA_IDENTICAL_SAMPLES_BITS-1 downto 0); - signal one_plus_mon_write_address:std_logic_vector(LA_MEM_ADDRESS_BITS-1 downto 0); - signal oneplus_mon_clones_nr:std_logic_vector(LA_IDENTICAL_SAMPLES_BITS-1 downto 0); - signal data_in_changed: std_logic; - signal last_mem_addr_before_trigger: std_logic; - signal not_maximum_mon_clones_nr: std_logic; - -begin - - -- Register the input data - -- such that mon_current_data_in is constant the full clock period. - register_input_data: process(clk, rst_l) - begin - if (rst_l='0') then - mon_old_data_in <= (others => '0'); - mon_current_data_in <= (others => '0'); - sys_run_reg <= '0'; - elsif (rising_edge(clk)) then - mon_old_data_in <= mon_current_data_in; - mon_current_data_in <= data_in; - sys_run_reg <= sys_run; - end if; - end process; - - -- set new values - state_reg: process(clk, rst_l) - begin - if (rst_l='0') then - mon_state <= MON_STATE_IDLE; - sc_run_aux <= '0'; - mon_write_address <= std_logic_vector(to_unsigned(LA_MEM_FIRST_ADDR, LA_MEM_ADDRESS_BITS)); - bt_queue_tail_address <= (others => '0'); - mon_samples_after_trigger <= (others => '0'); - mon_clones_nr <= ((LA_IDENTICAL_SAMPLES_BITS-1) downto 1 => '0', others => '1'); - elsif (rising_edge(clk)) then - mon_state <= next_mon_state; - sc_run_aux <= next_sc_run_aux; - mon_write_address <= next_mon_write_address; - bt_queue_tail_address <= next_bt_queue_tail_address; - mon_samples_after_trigger <= next_mon_samples_after_trigger; - mon_clones_nr <= next_mon_clones_nr; - end if; - end process; - - -- continuous assignments - one_plus_mon_write_address <= - std_logic_vector(to_unsigned(to_integer(unsigned(mon_write_address)) + 1, LA_MEM_ADDRESS_BITS)); - oneplus_mon_clones_nr <= - std_logic_vector(to_unsigned(to_integer(unsigned(mon_clones_nr)) + 1, LA_IDENTICAL_SAMPLES_BITS)); - data_in_changed <= '1' when ((mon_current_data_in and LA_TRACE_MASK) /= (mon_old_data_in and LA_TRACE_MASK)) else '0'; - last_mem_addr_before_trigger <= - '1' when (to_integer(unsigned(mon_write_address)) = LA_MEM_LAST_ADDR_BEFORE_TRIGGER) else '0'; - not_maximum_mon_clones_nr <= - '1' when (to_integer(unsigned(mon_clones_nr)) < LA_MAX_IDENTICAL_SAMPLES) else '0'; - sc_run <= sc_run_aux; - - -- state machine - comb_logic: process(mon_state, sys_run_reg, user_run, ack_sc_run, sc_done, sc_run_aux, - mon_write_address, bt_queue_tail_address, mon_samples_after_trigger, - mon_current_data_in, mon_old_data_in, mon_clones_nr, - data_in_changed, oneplus_mon_clones_nr, one_plus_mon_write_address, - not_maximum_mon_clones_nr, last_mem_addr_before_trigger) - begin - -- implicit - next_mon_state <= mon_state; - next_sc_run_aux <= sc_run_aux; - next_mon_write_address <= mon_write_address; - next_bt_queue_tail_address <= bt_queue_tail_address; - next_mon_samples_after_trigger <= mon_samples_after_trigger; - next_mon_clones_nr <= mon_clones_nr; - mem_port_A_address <= (others => '0'); - mem_port_A_data_in <= (others => '0'); - mem_port_A_wen <= '0'; - case mon_state is - when MON_STATE_IDLE => - if((sys_run_reg = '1') or (user_run = '1')) then - if((LA_MEM_CLEAN_BEFORE_RUN = 1) or (user_run = '1')) then - next_mon_write_address <= LA_MEM_FIRST_ADDR_SLV; - next_mon_state <= MON_STATE_DO_MEM_CLEAN; - else - -- mon_prepare_run is called from states MON_STATE_IDLE and MON_STATE_PREPARE_RUN - -- we share the same clock as memory. - mem_port_A_address <= LA_MEM_FIRST_ADDR_SLV; - mem_port_A_data_in <= - std_logic_vector(to_unsigned(0, LA_IDENTICAL_SAMPLES_BITS-1)) & '1' & mon_current_data_in; - --{{(LA_IDENTICAL_SAMPLES_BITS-1){1'b0}}, 1'b1, mon_current_data_in}; - mem_port_A_wen <= '1'; - next_mon_write_address <= LA_MEM_FIRST_ADDR_SLV; - next_mon_clones_nr <= std_logic_vector(to_unsigned(2, LA_IDENTICAL_SAMPLES_BITS)); - next_mon_state <= MON_STATE_WAIT_TRIGGER_MATCH; - end if; - else - next_mon_state <= MON_STATE_IDLE; - end if; - when MON_STATE_DO_MEM_CLEAN => - mem_port_A_address <= mon_write_address; - mem_port_A_data_in <= LA_MEM_EMPTY_SLOT; - mem_port_A_wen <= '1'; - if(to_integer(unsigned(mon_write_address)) < LA_MEM_LAST_ADDR) then - next_mon_write_address <= std_logic_vector(to_unsigned(to_integer(unsigned(mon_write_address)) + 1, - LA_MEM_ADDRESS_BITS)); - next_mon_state <= MON_STATE_DO_MEM_CLEAN; - else - -- at the new posedge clock, will clean memory at its last address - next_mon_state <= MON_STATE_PREPARE_RUN; - end if; - when MON_STATE_PREPARE_RUN => - -- mon_prepare_run is called from states MON_STATE_IDLE and MON_STATE_PREPARE_RUN - -- we share the same clock as memory. - mem_port_A_address <= LA_MEM_FIRST_ADDR_SLV; - mem_port_A_data_in <= - std_logic_vector(to_unsigned(0, LA_IDENTICAL_SAMPLES_BITS-1)) & '1' & mon_current_data_in; - --{{(LA_IDENTICAL_SAMPLES_BITS-1){1'b0}}, 1'b1, mon_current_data_in}; - mem_port_A_wen <= '1'; - next_mon_write_address <= LA_MEM_FIRST_ADDR_SLV; - next_mon_clones_nr <= std_logic_vector(to_unsigned(2, LA_IDENTICAL_SAMPLES_BITS)); - next_mon_state <= MON_STATE_WAIT_TRIGGER_MATCH; - when MON_STATE_WAIT_TRIGGER_MATCH => - -- circular queue - if((mon_current_data_in and LA_TRIGGER_MASK) /= (LA_TRIGGER_VALUE and LA_TRIGGER_MASK)) then - next_mon_state <= MON_STATE_WAIT_TRIGGER_MATCH; - mem_port_A_wen <= '1'; - if(data_in_changed = '1') then - if(last_mem_addr_before_trigger = '1') then - mem_port_A_address <= LA_MEM_FIRST_ADDR_SLV; - else - mem_port_A_address <= one_plus_mon_write_address; - end if; - else - if(not_maximum_mon_clones_nr = '1') then - mem_port_A_address <= mon_write_address; - else - if(last_mem_addr_before_trigger = '1') then - mem_port_A_address <= LA_MEM_FIRST_ADDR_SLV; - else - mem_port_A_address <= one_plus_mon_write_address; - end if; - end if; - end if; - if(data_in_changed = '1') then - mem_port_A_data_in <= - std_logic_vector(to_unsigned(0, LA_IDENTICAL_SAMPLES_BITS-1)) & '1' & mon_current_data_in; - --{{(LA_IDENTICAL_SAMPLES_BITS-1){1'b0}}, 1'b1, mon_current_data_in} - else - if(not_maximum_mon_clones_nr = '1') then - mem_port_A_data_in <= mon_clones_nr & mon_current_data_in; - else - mem_port_A_data_in <= - std_logic_vector(to_unsigned(0, LA_IDENTICAL_SAMPLES_BITS-1)) & '1' & mon_current_data_in; - -- {{(LA_IDENTICAL_SAMPLES_BITS-1){1'b0}}, 1'b1, mon_current_data_in} - end if; - end if; - if(data_in_changed = '1') then - next_mon_clones_nr <= std_logic_vector(to_unsigned(2, LA_IDENTICAL_SAMPLES_BITS)); - else - if(not_maximum_mon_clones_nr = '1') then - next_mon_clones_nr <= oneplus_mon_clones_nr; - else - next_mon_clones_nr <= std_logic_vector(to_unsigned(2, LA_IDENTICAL_SAMPLES_BITS)); - end if; - end if; - if(data_in_changed = '1') then - if(last_mem_addr_before_trigger = '1') then - next_mon_write_address <= LA_MEM_FIRST_ADDR_SLV; - else - next_mon_write_address <= one_plus_mon_write_address; - end if; - else - if(not_maximum_mon_clones_nr = '1') then - next_mon_write_address <= mon_write_address; - else - if(last_mem_addr_before_trigger = '1') then - next_mon_write_address <= LA_MEM_FIRST_ADDR_SLV; - else - next_mon_write_address <= one_plus_mon_write_address; - end if; - end if; - end if; - else - -- trigger matched - next_mon_state <= MON_STATE_AFTER_TRIGGER; - mem_port_A_address <= LA_TRIGGER_MATCH_MEM_ADDR_SLV; - mem_port_A_data_in <= - std_logic_vector(to_unsigned(0, LA_IDENTICAL_SAMPLES_BITS-1)) & '1' & mon_current_data_in; - -- {{{(LA_IDENTICAL_SAMPLES_BITS-1){1'b0}}, 1'b1}, mon_current_data_in}; - mem_port_A_wen <= '1'; - next_mon_write_address <= LA_TRIGGER_MATCH_MEM_ADDR_SLV; - next_mon_clones_nr <= std_logic_vector(to_unsigned(2, LA_IDENTICAL_SAMPLES_BITS)); - next_bt_queue_tail_address <= mon_write_address; - next_mon_samples_after_trigger <= std_logic_vector(to_unsigned(1, LA_MAX_SAMPLES_AFTER_TRIGGER_BITS)); - end if; - when MON_STATE_AFTER_TRIGGER => - if((to_integer(unsigned(mon_samples_after_trigger)) < LA_MAX_SAMPLES_AFTER_TRIGGER) and - (to_integer(unsigned(mon_write_address)) < LA_MEM_LAST_ADDR)) then - mem_port_A_wen <= '1'; - if(data_in_changed = '1') then - mem_port_A_address <= one_plus_mon_write_address; - else - if(not_maximum_mon_clones_nr = '1') then - mem_port_A_address <= mon_write_address; - else - mem_port_A_address <= one_plus_mon_write_address; - end if; - end if; - if(data_in_changed = '1') then - mem_port_A_data_in <= - std_logic_vector(to_unsigned(0, LA_IDENTICAL_SAMPLES_BITS-1)) & '1' & mon_current_data_in; - --{{(LA_IDENTICAL_SAMPLES_BITS-1){1'b0}}, 1'b1, mon_current_data_in} : - else - if(not_maximum_mon_clones_nr = '1') then - mem_port_A_data_in <= mon_clones_nr & mon_current_data_in; - else - mem_port_A_data_in <= - std_logic_vector(to_unsigned(0, LA_IDENTICAL_SAMPLES_BITS-1)) & '1' & mon_current_data_in; - --{{(LA_IDENTICAL_SAMPLES_BITS-1){1'b0}}, 1'b1, mon_current_data_in}); - end if; - end if; - if(data_in_changed = '1') then - next_mon_clones_nr <= std_logic_vector(to_unsigned(2, LA_IDENTICAL_SAMPLES_BITS)); - else - if(not_maximum_mon_clones_nr = '1') then - next_mon_clones_nr <= oneplus_mon_clones_nr; - else - next_mon_clones_nr <= std_logic_vector(to_unsigned(2, LA_IDENTICAL_SAMPLES_BITS)); - end if; - end if; - if(data_in_changed = '1') then - next_mon_write_address <= one_plus_mon_write_address; - else - if(not_maximum_mon_clones_nr = '1') then - next_mon_write_address <= mon_write_address; - else - next_mon_write_address <= one_plus_mon_write_address; - end if; - end if; - next_mon_samples_after_trigger <= - std_logic_vector(to_unsigned(to_integer(unsigned(mon_samples_after_trigger)+1), - LA_MAX_SAMPLES_AFTER_TRIGGER_BITS)); - next_mon_state <= MON_STATE_AFTER_TRIGGER; - else - mem_port_A_wen <= '0'; - next_mon_state <= MON_STATE_DATA_CAPTURED; - end if; - when MON_STATE_DATA_CAPTURED => - -- Save bt_queue_tail_address - mem_port_A_address <= LA_BT_QUEUE_TAIL_ADDRESS_SLV; - mem_port_A_data_in <= - std_logic_vector(to_unsigned(0, LA_MEM_WORDLEN_BITS-LA_MEM_ADDRESS_BITS)) & bt_queue_tail_address; - -- {{(LA_MEM_WORDLEN_BITS-LA_MEM_ADDRESS_BITS){1'b0}}, bt_queue_tail_address}; - mem_port_A_wen <= '1'; - next_mon_state <= MON_STATE_SC_RUN; - when MON_STATE_SC_RUN => - next_mon_state <= MON_STATE_WAIT_SC_DONE; - next_sc_run_aux <= '1'; - when MON_STATE_WAIT_SC_DONE => - -- sc_run must already be 1. - if(ack_sc_run = '1') then - next_sc_run_aux <= '0'; - end if; - if((sc_run_aux = '0') and (sc_done = '1')) then - next_mon_state <= MON_STATE_IDLE; - else - next_mon_state <= MON_STATE_WAIT_SC_DONE; - end if; - when others => - -- this is forced by the vhdl compiler - end case; - end process; - -end monitor_of_verifla_arch;

openverifla_2.3/vhdl/verifla/monitor_of_verifla.vhd Property changes : Deleted: svn:executable ## -1 +0,0 ## -* \ No newline at end of property Index: openverifla_2.3/vhdl/verifla/memory_of_verifla.vhd =================================================================== --- openverifla_2.3/vhdl/verifla/memory_of_verifla.vhd (revision 41) +++ openverifla_2.3/vhdl/verifla/memory_of_verifla.vhd (nonexistent) @@ -1,96 +0,0 @@ --- 20180820-1740 --- Author: Laurentiu Duca --- License: GNU GPL ------------------------------------------------------ - -library IEEE; -use IEEE.STD_LOGIC_1164.ALL; -use IEEE.NUMERIC_STD.ALL; ---use ieee.std_logic_arith.all; -use ieee.std_logic_unsigned.all; -use work.common_internal_verifla.all; - ------------------------------------------------------ - -entity memory_of_verifla is port( - clk, rst_l: in std_logic; - addra: in std_logic_vector(LA_MEM_ADDRESS_BITS-1 downto 0); - wea: in std_logic; - dina: in std_logic_vector(LA_MEM_WORDLEN_BITS-1 downto 0); - addrb: in std_logic_vector(LA_MEM_ADDRESS_BITS-1 downto 0); - doutb: out std_logic_vector(LA_MEM_WORDLEN_BITS-1 downto 0) -); -end memory_of_verifla; ------------------------------------------------------ - -architecture memory_of_verifla_arch of memory_of_verifla is - -type reg_array is array (0 to LA_MEM_LAST_ADDR) of std_logic_vector(LA_MEM_WORDLEN_BITS-1 downto 0); - -impure function init_mem(n: in integer) return reg_array is - variable temp_mem : reg_array; -begin - for i in reg_array'range loop - temp_mem(i) := LA_MEM_EMPTY_SLOT; --std_logic_vector(to_unsigned(0, LA_MEM_WORDLEN_BITS)); - end loop; - return temp_mem; -end function; - -signal mem: reg_array := init_mem(0); - -begin - -- doutb <= mem(to_integer(unsigned(addrb))); - -- This works too as a consequence of send_capture_of_verifla architecture. - p0: process(clk, rst_l) - begin - if(rst_l = '0') then - doutb <= LA_MEM_EMPTY_SLOT; - elsif(rising_edge(clk)) then - doutb <= mem(to_integer(unsigned(addrb))); - end if; - end process; - - p1: process(clk) - begin - if(rising_edge(clk)) then - if(wea = '1') then - mem(to_integer(unsigned(addra))) <= dina; - end if; - end if; - end process; - -end memory_of_verifla_arch; ------------------------------------------------------ - -architecture memory_of_verifla_clean_at_reset_arch of memory_of_verifla is - -type reg_array is array (0 to LA_MEM_LAST_ADDR) of std_logic_vector(LA_MEM_WORDLEN_BITS-1 downto 0); -signal mem: reg_array; ---signal i: integer; - -begin - -- doutb <= mem(to_integer(unsigned(addrb))); - -- This works too as a consequence of send_capture_of_verifla architecture. - p0: process(clk, rst_l) - begin - if(rst_l = '0') then - doutb <= LA_MEM_EMPTY_SLOT; - elsif(rising_edge(clk)) then - doutb <= mem(to_integer(unsigned(addrb))); - end if; - end process; - - p1: process(clk, rst_l) - begin - if(rst_l = '0') then - for i in 0 to LA_MEM_LAST_ADDR loop - mem(i) <= LA_MEM_EMPTY_SLOT; - end loop; - elsif(rising_edge(clk)) then - if(wea = '1') then - mem(to_integer(unsigned(addra))) <= dina; - end if; - end if; - end process; - -end memory_of_verifla_clean_at_reset_arch;

openverifla_2.3/vhdl/verifla/memory_of_verifla.vhd Property changes : Deleted: svn:executable ## -1 +0,0 ## -* \ No newline at end of property Index: openverifla_2.3/vhdl/verifla/inc_of_verifla.vhd =================================================================== --- openverifla_2.3/vhdl/verifla/inc_of_verifla.vhd (revision 41) +++ openverifla_2.3/vhdl/verifla/inc_of_verifla.vhd (nonexistent) @@ -1,30 +0,0 @@ ---library IEEE; ---use IEEE.STD_LOGIC_1164.ALL; ---use IEEE.NUMERIC_STD.ALL; ---use ieee.std_logic_arith.all; ---use ieee.std_logic_unsigned.all; - ---------------------------------------------------------------------------- - -package inc_of_verifla is - -constant CLOCK_FREQUENCY: integer := 50000000; -constant BAUDRATE: integer := 115200; - -constant T2_div_T1_div_2: integer := (CLOCK_FREQUENCY / (BAUDRATE * 16 * 2)); --- Assert: BAUD_COUNTER_SIZE >= log2(T2_div_T1_div_2) bits -constant BAUD_COUNTER_SIZE: integer := 15; - --- 1s ... 50000000 T1 --- 1bit ... 16 T2 --- 1s .. 115200 bits --- => --- 1s .. 115200 * 16 T2 --- --- T2 = 5000000 T1 / (115200 * 16) = T1 * 50000000 / (115200 * 16) - -end inc_of_verifla; - -package body inc_of_verifla is - -end inc_of_verifla; Index: openverifla_2.3/vhdl/verifla/single_pulse_of_verifla.vhd =================================================================== --- openverifla_2.3/vhdl/verifla/single_pulse_of_verifla.vhd (revision 41) +++ openverifla_2.3/vhdl/verifla/single_pulse_of_verifla.vhd (nonexistent) @@ -1,66 +0,0 @@ ------------------------------------------------------ --- single pulse from a multi-periods-contiguous pulse --- date: 20180820-1700 --- author: Laurentiu Duca ------------------------------------------------------ - -library IEEE; -use IEEE.STD_LOGIC_1164.ALL; -use IEEE.NUMERIC_STD.ALL; ---use ieee.std_logic_arith.all; ---use ieee.std_logic_unsigned.all; - ------------------------------------------------------ - -entity single_pulse_of_verifla is -port( clk, rst_l: in std_logic; - ub: in std_logic; - ubsing: out std_logic -); -end single_pulse_of_verifla; - ------------------------------------------------------ - -architecture single_pulse_of_verifla_arch of single_pulse_of_verifla is - - signal next_state, state: std_logic; - signal ubsing_reg, next_ubsing_reg: std_logic; - -begin - ubsing <= ubsing_reg; - - state_reg: process(clk, rst_l) - begin - if (rst_l='0') then - state <= '0'; - ubsing_reg <= '0'; - elsif (rising_edge(clk)) then - state <= next_state; - ubsing_reg <= next_ubsing_reg; - end if; - end process; - - comb_logic: process(state, ub) - begin - next_state <= state; - next_ubsing_reg <= '0'; - case state is - when '0' => - if (ub = '1') then - next_state <= '1'; - next_ubsing_reg <= '1'; - end if; - when '1' => - if (ub = '0') then - next_state <= '0'; - end if; - when others => - -- this is forced by the vhdl compiler - --next_state <= '0'; - --next_ubsing_reg <= '0'; - end case; - end process; - -end single_pulse_of_verifla_arch; - ------------------------------------------------------ Index: openverifla_2.3/vhdl/verifla/baud_of_verifla.vhd =================================================================== --- openverifla_2.3/vhdl/verifla/baud_of_verifla.vhd (revision 41) +++ openverifla_2.3/vhdl/verifla/baud_of_verifla.vhd (nonexistent) @@ -1,67 +0,0 @@ --- 20180816-1450 --- baud rate generator --- author: Laurentiu Duca ------------------------------------------------------ - -library IEEE; -use IEEE.STD_LOGIC_1164.ALL; -use IEEE.NUMERIC_STD.ALL; ---use ieee.std_logic_arith.all; -use ieee.std_logic_unsigned.all; -use work.inc_of_verifla.all; - ------------------------------------------------------ - -entity baud_of_verifla is -port( sys_clk, sys_rst_l:in std_logic; - baud_clk_posedge: out std_logic -); -end baud_of_verifla; - ------------------------------------------------------ - -architecture baud_of_verifla_arch of baud_of_verifla is - - -- This were moved to inc_of_verifla.vhd - --constant CLOCK_FREQUENCY: integer := 50000000; - --constant BPS: integer := 115200; - -- 1s ... 50000000 T1 - -- 1bit ... 16 T2 - -- 1s .. 115200 bits - -- => - -- 1s .. 115200 * 16 T2 - -- - -- T2 = 5000000 T1 / (115200 * 16) = T1 * 50000000 / (115200 * 16) - --constant T2_div_T1_div_2: integer := (CLOCK_FREQUENCY / (BPS * 16 * 2)); - -- COUNTER_SIZE = log2(T2_T1_div_2) bits - --constant BAUD_COUNTER_SIZE: integer := 15; - - signal counter: std_logic_vector((BAUD_COUNTER_SIZE-1) downto 0); - signal baud_clk, baud_clk_posedge_reg: std_logic; - -begin - - baud_clk_posedge <= baud_clk_posedge_reg; - - state_reg: process(sys_clk, sys_rst_l) - begin - if (sys_rst_l='0') then - baud_clk <= '0'; - baud_clk_posedge_reg <= '0'; - counter <= std_logic_vector(to_unsigned(0, BAUD_COUNTER_SIZE)); --x"00000000"; - elsif (rising_edge(sys_clk)) then - if (counter < std_logic_vector(to_unsigned(T2_div_T1_div_2, BAUD_COUNTER_SIZE))) then - counter <= counter + std_logic_vector(to_unsigned(1, BAUD_COUNTER_SIZE)); - baud_clk <= baud_clk; - baud_clk_posedge_reg <= '0'; - else - if (baud_clk = '0') then - baud_clk_posedge_reg <= '1'; - end if; - counter <= std_logic_vector(to_unsigned(0, BAUD_COUNTER_SIZE)); - baud_clk <= not(baud_clk); - end if; - end if; - end process; - -end baud_of_verifla_arch; \ No newline at end of file

openverifla_2.3/vhdl/verifla/baud_of_verifla.vhd Property changes : Deleted: svn:executable ## -1 +0,0 ## -* \ No newline at end of property Index: openverifla_2.3/vhdl/verifla/uart_of_verifla.vhd =================================================================== --- openverifla_2.3/vhdl/verifla/uart_of_verifla.vhd (revision 41) +++ openverifla_2.3/vhdl/verifla/uart_of_verifla.vhd (nonexistent) @@ -1,50 +0,0 @@ --- uart_of_verifla --- date: 20180816_1740 --- author: Laurentiu Duca --- license: GNU GPL ------------------------------------------------------ - -library IEEE; -use IEEE.STD_LOGIC_1164.ALL; -use IEEE.NUMERIC_STD.ALL; ---use ieee.std_logic_arith.all; ---use ieee.std_logic_unsigned.all; - ------------------------------------------------------ - -entity uart_of_verifla is -port( sys_clk, sys_rst_l: in std_logic; - baud_clk_posedge: out std_logic; - uart_XMIT_dataH: out std_logic; - xmitH: in std_logic; - xmit_dataH: in std_logic_vector(7 downto 0); - xmit_doneH: out std_logic; - uart_REC_dataH: in std_logic; - rec_dataH: out std_logic_vector(7 downto 0); - rec_readyH: out std_logic -); -end uart_of_verifla; - ------------------------------------------------------ - -architecture uart_of_verifla_arch of uart_of_verifla is - - signal sys_rst: std_logic; - signal baud_clk_posedge_wire: std_logic; - -begin - sys_rst <= not sys_rst_l; - baud_clk_posedge <= baud_clk_posedge_wire; - - txd1: entity work.u_xmit_of_verifla(u_xmit_of_verifla_arch) - port map(clk_i => sys_clk, rst_i =>sys_rst, baud_clk_posedge => baud_clk_posedge_wire, - data_i => xmit_dataH, wen_i => xmitH, txd_o => uart_XMIT_dataH, tre_o => xmit_doneH); - - rxd1: entity work.u_rec_of_verifla(u_rec_of_verifla_arch) - port map(clk_i => sys_clk, rst_i => sys_rst, baud_clk_posedge => baud_clk_posedge_wire, - rxd_i => uart_REC_dataH, rdy_o => rec_readyH, data_o => rec_dataH); - - baud1: entity work.baud_of_verifla(baud_of_verifla_arch) - port map(sys_clk => sys_clk, sys_rst_l => sys_rst_l, baud_clk_posedge => baud_clk_posedge_wire); - -end uart_of_verifla_arch;

openverifla_2.3/vhdl/verifla/uart_of_verifla.vhd Property changes : Deleted: svn:executable ## -1 +0,0 ## -* \ No newline at end of property Index: openverifla_2.3/vhdl/verifla/send_capture_of_verifla.vhd =================================================================== --- openverifla_2.3/vhdl/verifla/send_capture_of_verifla.vhd (revision 41) +++ openverifla_2.3/vhdl/verifla/send_capture_of_verifla.vhd (nonexistent) @@ -1,130 +0,0 @@ --- 20180820-1740 --- Author: Laurentiu Duca --- License: GNU GPL ------------------------------------------------------ - -library IEEE; -use IEEE.STD_LOGIC_1164.ALL; -use IEEE.NUMERIC_STD.ALL; ---use ieee.std_logic_arith.all; ---use ieee.std_logic_unsigned.all; -use work.common_internal_verifla.all; - ------------------------------------------------------ - -entity send_capture_of_verifla is - port (clk, rst_l, baud_clk_posedge: in std_logic; - sc_run: in std_logic; - ack_sc_run, sc_done: out std_logic; - mem_port_B_address: out std_logic_vector(LA_MEM_ADDRESS_BITS-1 downto 0); - mem_port_B_dout: in std_logic_vector(LA_MEM_WORDLEN_BITS-1 downto 0); - xmit_doneH: in std_logic; - xmitH: out std_logic; - xmit_dataH: out std_logic_vector(7 downto 0)); -end send_capture_of_verifla; - ------------------------------------------------------ - -architecture send_capture_of_verifla_arch of send_capture_of_verifla is - - constant LA_MEM_LAST_ADDR_SLV: std_logic_vector(LA_MEM_ADDRESS_BITS-1 downto 0) - := std_logic_vector(to_unsigned(LA_MEM_LAST_ADDR, LA_MEM_ADDRESS_BITS)); - constant USERCMD_RESET: std_logic_vector(7 downto 0) :=x"00"; - constant USERCMD_RUN: std_logic_vector(7 downto 0) :=x"01"; - type state_type is (SC_STATE_IDLE, SC_STATE_ACK_SC_RUN, - SC_STATE_SET_MEMADDR_TO_READ_FROM, SC_STATE_GET_MEM_OUTPUT_DATA, - SC_STATE_SEND_OCTET, SC_STATE_WAIT_OCTET_SENT, SC_STATE_WORD_SENT); - - signal sc_state, next_sc_state: state_type; - signal sc_current_address, next_sc_current_address: std_logic_vector(LA_MEM_ADDRESS_BITS-1 downto 0); - signal sc_octet_id, next_sc_octet_id:std_logic_vector(LA_MEM_WORDLEN_OCTETS-1 downto 0); - signal sc_word_bits, next_sc_word_bits: std_logic_vector(LA_MEM_WORDLEN_BITS-1 downto 0); - -begin - - -- set up next value - state_reg: process(clk, rst_l) - begin - if (rst_l='0') then - sc_state<=SC_STATE_IDLE; - sc_current_address<=(others => '0'); - sc_word_bits<=(others => '0'); - sc_octet_id<= (others => '0'); - elsif (rising_edge(clk)) then - if (baud_clk_posedge = '1') then - sc_state <= next_sc_state; - sc_current_address <= next_sc_current_address; - sc_word_bits <= next_sc_word_bits; - sc_octet_id <= next_sc_octet_id; - end if; - end if; - end process; - - -- state machine - comb_logic: process(sc_state, sc_run, xmit_doneH, - sc_current_address, sc_word_bits, sc_octet_id, mem_port_B_dout) - begin - -- implicit - next_sc_state<=sc_state; - ack_sc_run<='0'; - sc_done<='0'; - xmit_dataH<=(others => '0'); - xmitH<='0'; - mem_port_B_address<=sc_current_address; - next_sc_current_address<=sc_current_address; - next_sc_word_bits<=sc_word_bits; - next_sc_octet_id<=sc_octet_id; - case sc_state is - when SC_STATE_IDLE => - if(sc_run = '1') then - next_sc_state <= SC_STATE_ACK_SC_RUN; - next_sc_current_address <= LA_MEM_LAST_ADDR_SLV; - else - next_sc_state <= SC_STATE_IDLE; - end if; - when SC_STATE_ACK_SC_RUN => - ack_sc_run <= '1'; - next_sc_state <= SC_STATE_SET_MEMADDR_TO_READ_FROM; - when SC_STATE_SET_MEMADDR_TO_READ_FROM => - mem_port_B_address <= sc_current_address; - -- next clock cycle we have memory dout of our read. - next_sc_state <= SC_STATE_GET_MEM_OUTPUT_DATA; - when SC_STATE_GET_MEM_OUTPUT_DATA => - next_sc_word_bits <= mem_port_B_dout; - -- LSB first - next_sc_octet_id <= (others => '0'); - next_sc_state <= SC_STATE_SEND_OCTET; - when SC_STATE_SEND_OCTET => - xmit_dataH <= sc_word_bits(7 downto 0); - next_sc_word_bits <= x"00" & sc_word_bits(LA_MEM_WORDLEN_BITS-1 downto 8); - -- shift_right(unsigned(sc_word_bits),8); - xmitH <= '1'; - next_sc_octet_id <= std_logic_vector(to_unsigned( - to_integer(unsigned(sc_octet_id))+1, LA_MEM_WORDLEN_OCTETS)); - next_sc_state <= SC_STATE_WAIT_OCTET_SENT; - when SC_STATE_WAIT_OCTET_SENT => - if(xmit_doneH = '1') then - if(to_integer(unsigned(sc_octet_id)) < LA_MEM_WORDLEN_OCTETS) then - next_sc_state <= SC_STATE_SEND_OCTET; - else - next_sc_state <= SC_STATE_WORD_SENT; - end if; - else - next_sc_state <= SC_STATE_WAIT_OCTET_SENT; - end if; - when SC_STATE_WORD_SENT => - if(to_integer(unsigned(sc_current_address)) > LA_MEM_FIRST_ADDR) then - next_sc_current_address <= std_logic_vector(to_unsigned( - to_integer(unsigned(sc_current_address))-1, LA_MEM_ADDRESS_BITS)); - next_sc_state <= SC_STATE_SET_MEMADDR_TO_READ_FROM; - else - -- done sending all captured data - sc_done <= '1'; - next_sc_state <= SC_STATE_IDLE; - end if; - when others => - -- this is forced by the vhdl compiler - end case; - end process; - -end send_capture_of_verifla_arch;

openverifla_2.3/vhdl/verifla/send_capture_of_verifla.vhd Property changes : Deleted: svn:executable ## -1 +0,0 ## -* \ No newline at end of property Index: openverifla_2.3/vhdl/verifla/computer_input_of_verifla.vhd =================================================================== --- openverifla_2.3/vhdl/verifla/computer_input_of_verifla.vhd (revision 41) +++ openverifla_2.3/vhdl/verifla/computer_input_of_verifla.vhd (nonexistent) @@ -1,79 +0,0 @@ --- 20180820-1740 --- Author: Laurentiu Duca --- License: GNU GPL ------------------------------------------------------ - -library IEEE; -use IEEE.STD_LOGIC_1164.ALL; -use IEEE.NUMERIC_STD.ALL; ---use ieee.std_logic_arith.all; -use ieee.std_logic_unsigned.all; -use work.common_internal_verifla.all; - ------------------------------------------------------ - -entity computer_input_of_verifla is - port (clk, rst_l: in std_logic; - rec_dataH: in std_logic_vector(7 downto 0); - rec_readyH: in std_logic; - user_run: out std_logic); -end computer_input_of_verifla; - ------------------------------------------------------ - -architecture computer_input_of_verifla_arch of computer_input_of_verifla is - ---constant USERCMD_RESET: std_logic_vector(7 downto 0) :=x"00"; -constant USERCMD_RUN: std_logic_vector(7 downto 0) :=x"01"; -type state_type is (CI_STATE_IDLE, CI_STATE_START_OF_NEW_CMD); -signal ci_state, next_ci_state: state_type; -signal ci_indata, next_ci_indata: std_logic_vector(7 downto 0); -signal ci_new_octet_received:std_logic; -signal next_user_run: std_logic; - -begin - - -- T(clk)<clk, rst_l=>rst_l, ub=>rec_readyH, ubsing=>ci_new_octet_received); - - -- set up next value - state_reg: process(clk, rst_l) - begin - if (rst_l='0') then - ci_state<=CI_STATE_IDLE; - ci_indata<=x"00"; - user_run <= '0'; - elsif (rising_edge(clk)) then - ci_state<=next_ci_state; - ci_indata<=next_ci_indata; - user_run <= next_user_run; - end if; - end process; - - -- state machine - comb_logic: process(ci_new_octet_received, rec_dataH, ci_state, ci_indata) - begin - -- implicit - next_ci_state <= ci_state; - next_ci_indata <= x"00"; - next_user_run <= '0'; - case ci_state is - when CI_STATE_IDLE => - if(ci_new_octet_received = '1') then - next_ci_indata <= rec_dataH; - next_ci_state <= CI_STATE_START_OF_NEW_CMD; - else - next_ci_state<=CI_STATE_IDLE; - end if; - when CI_STATE_START_OF_NEW_CMD => - next_ci_state<=CI_STATE_IDLE; - if (ci_indata = USERCMD_RUN) then - next_user_run<='1'; - end if; - when others => - -- this is forced by the vhdl compiler - end case; - end process; - -end computer_input_of_verifla_arch;

openverifla_2.3/vhdl/verifla/computer_input_of_verifla.vhd Property changes : Deleted: svn:executable ## -1 +0,0 ## -* \ No newline at end of property Index: openverifla_2.3/vhdl/verifla/u_rec_of_verifla.vhd =================================================================== --- openverifla_2.3/vhdl/verifla/u_rec_of_verifla.vhd (revision 41) +++ openverifla_2.3/vhdl/verifla/u_rec_of_verifla.vhd (nonexistent) @@ -1,98 +0,0 @@ --- date: 20180816_1740 --- author: Laurentiu Duca --- license: GNU GPL ------------------------------------------------------ - -library IEEE; -use IEEE.STD_LOGIC_1164.ALL; -use IEEE.NUMERIC_STD.ALL; ---use ieee.std_logic_arith.all; ---use ieee.std_logic_unsigned.all; - ------------------------------------------------------ - - -entity u_rec_of_verifla is -port( clk_i, rst_i, baud_clk_posedge: in std_logic; - rxd_i: in std_logic; -- serial data in - rdy_o: out std_logic; - data_o:out std_logic_vector(7 downto 0) -); -end u_rec_of_verifla; - ------------------------------------------------------ - -architecture u_rec_of_verifla_arch of u_rec_of_verifla is - - type state_type is (STA_IDLE, STA_CHECK_START_BIT, STA_RECEIVE); - signal rdy_o_reg: std_logic; - signal data_o_reg: std_logic_vector(7 downto 0); - signal rsr: std_logic_vector(7 downto 0); -- receiving shift reg - signal num_of_rec: std_logic_vector(3 downto 0); - signal reg_sta: state_type; - signal count: std_logic_vector(4 downto 0); -- the counter to count the clk in - --signal count_c: std_logic; -- the carry of count - -begin - - rdy_o <= rdy_o_reg; - data_o <= data_o_reg; - - state_reg: process(clk_i, rst_i) - begin - if (rst_i='1') then - data_o_reg <= x"00"; - rdy_o_reg <= '0'; - rsr <= x"00"; - num_of_rec <= "0000"; - count <= "00000"; - --count_c <= '0'; - reg_sta <= STA_IDLE; - elsif (rising_edge(clk_i)) then - if(baud_clk_posedge = '1') then - case reg_sta is - when STA_IDLE => - num_of_rec <= x"0"; - count <= "00000"; - if(rxd_i = '0') then - reg_sta <= STA_CHECK_START_BIT; - else - reg_sta <= STA_IDLE; - end if; - when STA_CHECK_START_BIT => - if(count >= "00111") then - count <= "00000"; - if(rxd_i = '0') then - -- has passed 8 clk and rxd_i is still zero,then start bit has been confirmed - rdy_o_reg <= '0'; - reg_sta <= STA_RECEIVE; - else - reg_sta <= STA_IDLE; - end if; - else - reg_sta <= STA_CHECK_START_BIT; - count <= std_logic_vector(unsigned(count)+"00001"); - end if; - when STA_RECEIVE => - count <= std_logic_vector(unsigned('0' & count(3 downto 0))+"00001"); - if(count(4) = '1') then - -- has passed 16 clk after the last bit has been checked,sampling a bit - if(num_of_rec <= x"7") then - -- sampling the received bit - rsr <= rxd_i & rsr(7 downto 1); - num_of_rec <= std_logic_vector(unsigned(num_of_rec)+"0001"); - reg_sta <= STA_RECEIVE; - else - -- sample the stop bit - data_o_reg <= rsr; - rdy_o_reg <= '1'; - reg_sta <= STA_IDLE; - end if; - end if; - when others => - -- this is forced by the vhdl compiler - end case; - end if; - end if; - end process; -end u_rec_of_verifla_arch;

openverifla_2.3/vhdl/verifla/u_rec_of_verifla.vhd Property changes : Deleted: svn:executable ## -1 +0,0 ## -* \ No newline at end of property Index: openverifla_2.3/vhdl/keyboard/keyboard_driver_test.vhd =================================================================== --- openverifla_2.3/vhdl/keyboard/keyboard_driver_test.vhd (revision 41) +++ openverifla_2.3/vhdl/keyboard/keyboard_driver_test.vhd (nonexistent) @@ -1,103 +0,0 @@ ------------------------------------------------------------------ --- Booth algorithm for multiplication --- author: Laurentiu Duca ------------------------------------------------------------------ - -library ieee; ---use ieee.std_logic_arith.all; ---use ieee.std_logic_unsigned.all; -use ieee.std_logic_1164.all; - -entity keyboard_driver_test is -- entity declaration -end keyboard_driver_test; - ------------------------------------------------------------------ - -architecture keyboard_driver_test_arch of keyboard_driver_test is - --- This test module is wrote --- in the following scenario: the driver is on the FPGA and the keyboard --- is attached to the FPGA development board - - signal kbd_key:std_logic_vector(7 downto 0); --- This signals must explicitly added to the simulation. --- For debugging purposes, also add the register named "i" from the keyboard driver - signal reset, clk: std_logic; - signal kbd_clk, kbd_data_line: std_logic; - signal uart_XMIT_dataH: std_logic; - signal uart_REC_dataH: std_logic :='1'; - --signal i: std_logic_vector(64 downto 0); - - signal stop_simulation: std_logic := '0'; - -begin - - keyboard1: entity work.keyboard(keyboard_arch) - port map(kbd_data_line=>kbd_data_line, kbd_clk=>kbd_clk, kbd_key=>kbd_key, - clk=>clk, reset=>reset, - --top_of_verifla transceiver - uart_XMIT_dataH=>uart_XMIT_dataH, uart_REC_dataH=>uart_REC_dataH); - - process - begin - if stop_simulation = '0' then - clk <= '1'; -- clock cycle 10 ns - wait for 5 ns; - clk <= '0'; - wait for 5 ns; - else - wait; - end if; - end process; - - -- Reset the driver by using the reset button of the FPGA board. - process - begin - reset <= '1'; - wait for 10 ns; - reset <= '0'; - wait for 10 ns; - wait; - end process; - - -- Now, simulate the keyboard. - -- Consider the keyboard clock period to be about 10 units. - process - begin - -- At the begining, the line is idle for some periods. - kbd_clk<='1'; kbd_data_line<='1'; wait for 2050 ns; wait for 2050 ns; - - -- When a key is pressed, the keyboard sends its scan code - -- on the data line. For the 'a' key, the scan code is 1Ch=00011100b. - -- The order is LSb first, so the bits are sent in the following order: 00111000. - -- Simulate pressing the 'a' key. - -- Send start bit. - kbd_clk<='1'; wait for 250 ns; kbd_data_line<='0'; wait for 250 ns; kbd_clk<='0'; wait for 500 ns; - -- Send the scan code - kbd_clk<='1'; wait for 250 ns; kbd_data_line<='0'; wait for 250 ns; kbd_clk<='0'; wait for 500 ns; - kbd_clk<='1'; wait for 250 ns; kbd_data_line<='0'; wait for 250 ns; kbd_clk<='0'; wait for 500 ns; - kbd_clk<='1'; wait for 250 ns; kbd_data_line<='1'; wait for 250 ns; kbd_clk<='0'; wait for 500 ns; - kbd_clk<='1'; wait for 250 ns; kbd_data_line<='1'; wait for 250 ns; kbd_clk<='0'; wait for 500 ns; - kbd_clk<='1'; wait for 250 ns; kbd_data_line<='1'; wait for 250 ns; kbd_clk<='0'; wait for 500 ns; - kbd_clk<='1'; wait for 250 ns; kbd_data_line<='0'; wait for 250 ns; kbd_clk<='0'; wait for 500 ns; - kbd_clk<='1'; wait for 250 ns; kbd_data_line<='0'; wait for 250 ns; kbd_clk<='0'; wait for 500 ns; - kbd_clk<='1'; wait for 250 ns; kbd_data_line<='0'; wait for 250 ns; kbd_clk<='0'; wait for 500 ns; - -- Send the parity bit which is '1' for the 'a' key. - kbd_clk<='1'; wait for 250 ns; kbd_data_line<='1'; wait for 250 ns; kbd_clk<='0'; wait for 500 ns; - -- Send the stop bit. - kbd_clk<='1'; wait for 250 ns; kbd_data_line<='1'; wait for 250 ns; kbd_clk<='0'; wait for 500 ns; - -- Put the line idle for some periods. - kbd_clk<='1'; kbd_data_line<='1'; wait for 2050 ns; wait for 2050 ns; - wait for 1000 ns; - -- When the 'a' key - that is now pressed, - -- will be released, then the keyboard will send F0h, 1Ch. - -- We do not simulate this because the process is similar. - - -- stop simulation. - -- assert false report "end of simulation" severity failure; - stop_simulation <= '1'; - wait; - - end process; - -end keyboard_driver_test_arch;

openverifla_2.3/vhdl/keyboard/keyboard_driver_test.vhd Property changes : Deleted: svn:executable ## -1 +0,0 ## -* \ No newline at end of property Index: openverifla_2.3/vhdl/keyboard/keyboard.ucf =================================================================== --- openverifla_2.3/vhdl/keyboard/keyboard.ucf (revision 41) +++ openverifla_2.3/vhdl/keyboard/keyboard.ucf (nonexistent) @@ -1,28 +0,0 @@ -#NET "switch[0]" LOC="L13"; -#NET "switch[1]" LOC="L14"; -#NET "switch[2]" LOC="H18"; -#NET "switch[3]" LOC="N17"; - -NET "clk" LOC = "C9"; -NET "reset" LOC = "L13"; - -NET "kbd_data_line" LOC = "G13"; -NET "kbd_clk" LOC = "G14"; - -#NET "J1_0" LOC = "N15"; -#NET "J1_1" LOC = "N14"; -#NET "J1_2" LOC = "E15"; -#NET "J1_3" LOC = "V7"; - -#leds -NET "kbd_key[0]" LOC="D4"; -NET "kbd_key[1]" LOC="C3"; -NET "kbd_key[2]" LOC="D6"; -NET "kbd_key[3]" LOC="E6"; -NET "kbd_key[4]" LOC="D13"; -NET "kbd_key[5]" LOC="A7"; -NET "kbd_key[6]" LOC="G9"; -NET "kbd_key[7]" LOC="A8"; - -NET "uart_REC_dataH" LOC = "R13"; -NET "uart_XMIT_dataH" LOC = "P13";

openverifla_2.3/vhdl/keyboard/keyboard.ucf Property changes : Deleted: svn:executable ## -1 +0,0 ## -* \ No newline at end of property Index: openverifla_2.3/vhdl/keyboard/keyboard.vhd =================================================================== --- openverifla_2.3/vhdl/keyboard/keyboard.vhd (revision 41) +++ openverifla_2.3/vhdl/keyboard/keyboard.vhd (nonexistent) @@ -1,84 +0,0 @@ --- keyboad driver ------------------------------------------------------ - -library IEEE; -use IEEE.STD_LOGIC_1164.ALL; -use IEEE.NUMERIC_STD.ALL; ---use ieee.std_logic_arith.all; ---use ieee.std_logic_unsigned.all; - ------------------------------------------------------ - -entity keyboard is -port( kbd_data_line, kbd_clk: in std_logic; - kbd_key: out std_logic_vector(7 downto 0); - clk, reset: in std_logic; - uart_XMIT_dataH: out std_logic; - uart_REC_dataH: in std_logic -); -end keyboard; - ------------------------------------------------------ - -architecture keyboard_arch of keyboard is - - -- define the states of keyboard_arch model - signal i: std_logic_vector(3 downto 0); - signal kbd_clk_buf: std_logic_vector(2 downto 0) :="000"; - signal negedge_kbd_clk: std_logic :='0'; - signal kbd_key_reg: std_logic_vector(7 downto 0); - signal cnt: std_logic_vector(5 downto 0); - signal verifla_data_in : std_logic_vector(15 downto 0); -begin - - p1: process(clk) begin - if(rising_edge(clk)) then - kbd_clk_buf <= kbd_clk_buf(1 downto 0) & kbd_clk; - end if; - end process; - negedge_kbd_clk <= '1' when (kbd_clk_buf(2 downto 1) = "10") else '0'; - - -- process: state registers - state_reg: process(clk, reset) - begin - if (reset='1') then - i <= "1010"; - kbd_key_reg <= x"00"; - elsif (rising_edge(clk)) then - if (negedge_kbd_clk = '1') then - if ((i >= x"0") and (i <= x"7")) then - kbd_key_reg <= kbd_data_line & kbd_key_reg(7 downto 1); - i <= std_logic_vector((unsigned(i)+"0001")); - elsif ((i = x"8") or (i = x"9")) then - i <= std_logic_vector((unsigned(i)+"0001")); - else - i <= x"0"; - end if; - end if; - end if; - end process; - kbd_key <= kbd_key_reg; - - -- Simple counter - state_reg_cnt: process(clk, reset) - begin - if (reset='1') then - cnt <= "000000"; - elsif (rising_edge(clk)) then - if(negedge_kbd_clk = '1') then - cnt <= std_logic_vector(unsigned(cnt)+"000001"); - end if; - end if; - end process; - - -- openVeriFLA - verifla_data_in <= cnt & kbd_data_line & kbd_clk & kbd_key_reg; - --(15 downto 10 => '0') & kbd_data_line & kbd_clk & kbd_key_reg; - verifla: entity work.top_of_verifla(top_of_verifla_arch) - port map (clk=>clk, rst_l=>not(reset), sys_run=>'1', - data_in=>verifla_data_in, - -- Transceiver - uart_XMIT_dataH => uart_XMIT_dataH, - uart_REC_dataH => uart_REC_dataH); - -end keyboard_arch; Index: openverifla_2.3.b/java/VeriFLA.java =================================================================== --- openverifla_2.3.b/java/VeriFLA.java (nonexistent) +++ openverifla_2.3.b/java/VeriFLA.java (revision 42) @@ -0,0 +1,695 @@ +/* +VeriFLA.java +License: GNU GPL + +Revision history: +revistion date: 2018/07/20; author: Laurentiu Duca +- port of SerialPort jssc instead of rxtx +- redesign of memory contents implied modification in the java source +revision date: 2007/Sep/03; author: Laurentiu Duca +- sendRunCommand feature +- consider that the bt_queue_head_address is wrote at the end of the data capture. +- use HOUR_OF_DAY (0..23) + +revision date: 2007/Jul/4; author: Laurentiu DUCA +- v01 +*/ + + +import java.io.IOException; +import java.io.InputStream; +import java.io.OutputStream; +import java.io.File; +import java.io.FileInputStream; +import java.io.FileOutputStream; +import java.io.FileNotFoundException; +import java.io.FileReader; +import java.io.BufferedReader; +import java.util.Properties; +import java.util.Enumeration; +import java.util.Calendar; +import java.util.GregorianCalendar; +import java.util.StringTokenizer; + +import jssc.SerialPort; +import jssc.SerialPortException; + +public class VeriFLA extends Object { + + // Data members are declared at the end. + + /** + * Creates a new object. + * + */ + public VeriFLA() { + this.serialPort = null; + this.properties = new Properties(); + } + + /** + * Attaches the given serial serialPort to the device object. + * The method will try to open the serialPort. + */ + public boolean attach(String portName) { + serialPort = new SerialPort(portName); + try { + int baudrate=Integer.parseInt(strBaudRate); + //strBaudRate.equals("115200")?SerialPort.BAUDRATE_115200: + //strBaudRate.equals("38400")?SerialPort.BAUDRATE_38400:SerialPort.BAUDRATE_9600; + serialPort.openPort();//Open serial port + serialPort.setParams(baudrate, + SerialPort.DATABITS_8, + SerialPort.STOPBITS_1, + SerialPort.PARITY_NONE); + //Set params. Also you can set params by this string: serialPort.setParams(9600, 8, 1, 0); + //serialPort.writeBytes("This is a test string".getBytes());//Write data to port + } catch (SerialPortException ex) { + ex.printStackTrace(System.out); + return false; + } + + return true; + } + + /** + * Detaches the currently attached serialPort, if one exists. + * This will close the serial port. + * + */ + public void detach() { + if (serialPort != null) { + try { + serialPort.closePort(); + } catch (SerialPortException ex) { + ex.printStackTrace(System.out); + } + } + } + + public void run() throws IOException, SerialPortException { + byte rawByte[]=new byte[1]; + + if(sendRunCommand == 1) { + // Send USERCMD_RESET command + //rawByte[0]=USERCMD_RESET; + //System.out.println("Sending USERCMD_RESET command"); + //serialPort.writeBytes(rawByte); + //System.out.println("Done sending USERCMD_RESET command."); + + // Send USERCMD_RUN command + rawByte[0]=USERCMD_RUN; + System.out.println("Sending user_run command.."); + serialPort.writeBytes(rawByte); + System.out.println("Done sending user_run command."); + } + + // Read Captured data + System.out.println("Waiting for data capture:"); + int i,j,ret; + rawByte = new byte[memWords * octetsPerWord]; + rawByte = serialPort.readBytes(memWords * octetsPerWord); + for(i=0; i=0; j--) + System.out.printf("%02x ", memoryLineBytes[i][j]); + System.out.println(); + } + + //System.exit(1); + } + + public void getCapturedData(String portName) + { + boolean found; + found = attach(portName); + if(!found) { + System.out.println("Port " + portName + " not found.\n"+ + "\tPlease update the properties file.\n"); + System.exit(0); + } + try { + run(); + } catch (Exception ex) { + ex.printStackTrace(System.out); + } + detach(); + } + + public void saveCapturedData() throws IOException + { + // Create a new file with the name "capture_timestamp.v". + String strTime=getTime(); + String outputFileName, moduleName; + moduleName="capture_"+strTime; + outputFileName = moduleName+".v"; + File outputFile = new File(outputFileName); + if (!outputFile.createNewFile()) { + System.out.println("Error: Can not create file: " + outputFileName); + System.exit(-1); + } + OutputStream stream = new FileOutputStream(outputFile); + + + // Write the timescale directive. + String strLine; + int i,j,k; + strLine = "`timescale " + strTimescaleUnit + " / " + strTimescalePrecision + "\n\n"; + stream.write(strLine.getBytes()); + + + // Write the module name and output params. + strLine = "module " + moduleName + "(clk_of_verifla, la_trigger_matched, "; + for (i = 0; i < signalGroups; i++) { + strLine += groupName[i]; + if(i != (signalGroups - 1)) + strLine += ", "; + } + strLine += ", memory_line_id"; + strLine += ");\n\n"; + stream.write(strLine.getBytes()); + + + // Write the declaration of signals + strLine = "output clk_of_verifla;\n" + "output la_trigger_matched;\n" + "output ["+(memWords/4)+":0] memory_line_id;\n"; + stream.write(strLine.getBytes()); + for (k = 0; k < 2; k++) { + for (i = 0; i < signalGroups; i++) { + if(k == 0) + strLine = "output "; + else + strLine = "reg "; + if(groupSize[i] > 1) { + if(groupEndian[i] != 0) + strLine += "[0:"+(groupSize[i]-1)+"] "; + else + strLine += "["+(groupSize[i]-1)+":0] "; + } + strLine += groupName[i] + ";\n"; + stream.write(strLine.getBytes()); + } + } + strLine = + "reg ["+(memWords/4)+":0] memory_line_id;\n" + + "reg la_trigger_matched;\n" + + "reg clk_of_verifla;" + "\n\n" + + "parameter PERIOD = " + clockPeriod + ";" + "\n"; + stream.write(strLine.getBytes()); + + + // Write the clock task. + strLine = + "initial // Clock process for clk_of_verifla" + "\n" + + "begin" + "\n" + + " forever" + "\n" + + " begin" + "\n" + + " clk_of_verifla = 1'b0;" + "\n" + + " #("+ (int)(clockPeriod / 2) + "); clk_of_verifla = 1'b1;" + "\n" + + " #("+ (int)(clockPeriod / 2) + ");" + "\n" + + " end" + "\n" + + "end" + "\n\n" ; + stream.write(strLine.getBytes()); + + + // Write captured data + strLine = "initial begin\n"; + strLine += "#("+ (int)(clockPeriod / 2) + ");\n"; + strLine += "la_trigger_matched = 0;\n"; + stream.write(strLine.getBytes()); + + // Compute the name of the signals + String signalsToken; + signalsToken = "{"; + for (i = signalGroups-1; i >= 0 ; i--) { + signalsToken += groupName[i]; + if (i > 0) + signalsToken += ","; + } + signalsToken += "} = "; + + // Write name of the signals, values and delays in the verilog file. + String strWord; + int currentTime=(clockPeriod / 2), delay; + + // compute the oldest wrote-info before trigger event + int bt_queue_head_address=0, bt_queue_tail_address=0; + // the word at address (memWords-1) represents bt_queue_tail_address. + for(j = 0; j < (octetsPerWord-1); j++) { + bt_queue_tail_address += ((0x000000FF) & (int) memoryLineBytes[memWords-1][j]) << (8*j); + } + System.out.println("bt_queue_tail_address=" + bt_queue_tail_address); + // Find the first + // before the trigger event (not an memory word). + if(bt_queue_tail_address == (triggerMatchMemAddr - 1)) + bt_queue_head_address = 0; + else + bt_queue_head_address = bt_queue_tail_address + 1; + boolean before_trigger=true; + boolean foundAnEffectiveCaptureWord=false, wentBack=false; + i = bt_queue_head_address; + do + { + for(j = 0; j < (octetsPerWord-1); j++) { + if(memoryLineBytes[i][j] != 0) + foundAnEffectiveCaptureWord = true; + } + if(foundAnEffectiveCaptureWord) + break; + i++; + if(i >= triggerMatchMemAddr) + if(!foundAnEffectiveCaptureWord && !wentBack) { + i = 0; + wentBack = true; + } + } while (i <= triggerMatchMemAddr); + if(!foundAnEffectiveCaptureWord) + fatalError("Could not find the first efffective capture before trigger match"); + if(i >= triggerMatchMemAddr) + before_trigger=false; + + // Walk through the captured data and write it to capture.v + do { + // Check if this is an empty line + boolean allMemoryLineIsZero=true; + for(j=octetsPerWord-1; j>=0; j--) { + if(memoryLineBytes[i][j] != 0) { + allMemoryLineIsZero = false; + break; + } + } + if(allMemoryLineIsZero) { + if(debugVeriFLA) { + strLine = "// info: line "+i+" is empty.\n"; + System.out.println(strLine); + stream.write(strLine.getBytes()); + } + } else { + // Write memory line index. + strLine = "memory_line_id=" + i + ";\n"; + stream.write(strLine.getBytes()); + // Data capture + strWord = totalSignals + "'b"; + for(j=octetsPerWord-1; j>=0; j--) { + if((j * 8) < dataWordLenBits) + for(k=7; k>=0; k--) { + if((j*8+k) < totalSignals) { + strWord += (memoryLineBytes[i][j] >> k) & 1; + } + } + } + strWord += ';'; + strLine = signalsToken + strWord + "\n"; + if(i == triggerMatchMemAddr) + strLine += "la_trigger_matched = 1;\n"; + //strLine += "#" + clockPeriod + ";\n"; + // Write to file + //System.out.println(strLine); + stream.write(strLine.getBytes()); + + + // Time interval in which data is constant. + delay=0; + for(j = 0; j < octetsPerWord; j++) { + if((j * 8) >= dataWordLenBits) + delay += ((0x000000FF) & (int) memoryLineBytes[i][j]) << (8*j - dataWordLenBits); + } + currentTime += delay * clockPeriod; + strLine = "#" + (delay * clockPeriod) + ";\n"; + // Write to file + //System.out.println(strLine); + stream.write(strLine.getBytes()); + // Also write the time stamp + strLine = "// ------------- Current Time: " + currentTime + "*(" + strTimescaleUnit + ") "+"\n"; + stream.write(strLine.getBytes()); + } + + // Compute the new value of i + if(before_trigger) { + i = (i+1) % triggerMatchMemAddr; + if(i == bt_queue_head_address) { + before_trigger = false; + i = triggerMatchMemAddr; + } + } + else + i = i + 1; + } while (i < (memWords-1)); + + strLine = "$stop;\nend\nendmodule\n"; + stream.write(strLine.getBytes()); + + // Write raw memory information. + strLine = "/*\n"+STR_ORIGINAL_CAPTURE_DUMP+"\n"; + for(i=0; i=0; j--) { + //strLine += "["+j+"]"+" " + Integer.toHexString(memoryLineBytes[i][j]) + " "; + if((0x000000FF & (int) memoryLineBytes[i][j]) <= 0x0F) + strLine += "0"; + strLine += Integer.toHexString( + 0x000000FF & (int) memoryLineBytes[i][j]).toUpperCase() + " "; + } + strLine += "\n"; + } +/* + for(i=0; i=0; j--) { + if((0x000000FF & (int) memoryLineBytes[i][j]) <= 0x0F) + strLine += "0"; + strLine += Integer.toHexString( + 0x000000FF & (int) memoryLineBytes[i][j]).toUpperCase() + " "; + } + strLine += "\n"; + stream.write(strLine.getBytes()); + } +*/ + strLine += "*/\n"; + stream.write(strLine.getBytes()); + + stream.close(); + System.out.println("Job done. Please simulate " + outputFileName); + } + + private void allocateMemory() + { + // Allocate memory + int i,j; + memoryLineBytes = new byte[memWords][]; + for(i=0; i=0; j--) { + memoryLineBytes[i][j] = (byte) Integer.parseInt(st.nextToken(), 16); + } + i++; + if(i >= memWords) + allMemoryRead = true; + //} + //else + //if (line.startsWith(STR_ORIGINAL_CAPTURE_DUMP)) { + // startOfMemory=true; + // i = 0; + //} + } while (!allMemoryRead); + } catch (Exception e) { + e.printStackTrace(); + fatalError("rebuildCapturedDataFromFile exception"); + } + } + + public void job(String propertiesFileName, String strRebuildFileName) + { + getProperties(propertiesFileName); + allocateMemory(); + if(strRebuildFileName == null) + getCapturedData(portName); + else + rebuildCapturedDataFromFile(strRebuildFileName); + try { + saveCapturedData(); + } catch (IOException e) { + e.printStackTrace(); + fatalError("Error saving Captured Data"); + } + } + + public static void fatalError(String errorName) + { + System.out.println("Fatal error: " + errorName); + System.exit(-1); + } + + public void getProperties(String fileName) + { + File f; + f = new File(fileName); + if (!f.isFile()) { + System.out.println("Error: File does not exist: " + fileName); + System.exit(-1); + } + + InputStream stream; + try { + stream = new FileInputStream(f); + try { + properties.load(stream); + } catch (IOException e) { + fatalError("IOException " + fileName); + } + } catch (FileNotFoundException e) { + fatalError("FileNotFoundException "+ fileName); + } + + String strVal; + portName = properties.getProperty(NAME + ".portName"); + if(portName == null) + fatalError("Properties: missing portName"); + strBaudRate = properties.getProperty(NAME + ".baudRate"); + if(strBaudRate == null) + fatalError("Properties: missing baudRate"); + //if(!strBaudRate.equals("115200") && !strBaudRate.equals("38400") && !strBaudRate.equals("9600")) + //fatalError("Invalid baudRate (must be 115200 or 38400 or 9600)"); + + // time units + strTimescaleUnit=properties.getProperty(NAME + ".timescaleUnit"); + strTimescalePrecision=properties.getProperty(NAME + ".timescalePrecision"); + if(strTimescaleUnit == null || strTimescalePrecision == null) + fatalError("Properties: Not found timescale - unit or precision"); + // clockPeriod + strVal=properties.getProperty(NAME + ".clockPeriod"); + if(strVal != null) + clockPeriod=Integer.parseInt(strVal); + else + fatalError("Properties: clockPeriod not found"); + + // User signals + strVal=properties.getProperty(NAME + ".totalSignals"); + if(strVal != null) + totalSignals=Integer.parseInt(strVal); + else + fatalError("Properties: endian not found"); + // Groups of signals + strVal=properties.getProperty(NAME + ".signalGroups"); + if(strVal != null) + signalGroups=Integer.parseInt(strVal); + else + fatalError("Properties: signalGroups not found"); + groupName=new String[signalGroups]; + groupSize=new int[signalGroups]; + groupEndian=new int[signalGroups]; + int i; + int sumOfSignals=0; + for (i=0; i < signalGroups; i++) + { + String strGroupName, strGroupSize, strGroupEndian; + strGroupName=properties.getProperty(NAME + ".groupName."+i); + strGroupSize=properties.getProperty(NAME + ".groupSize."+i); + strGroupEndian=properties.getProperty(NAME + ".groupEndian."+i); + if(strGroupName == null || strGroupSize == null || strGroupEndian == null) + fatalError("Properties: group " + i + " not found groupName or groupSize or groupEndian"); + else { + groupName[i]=strGroupName; + groupSize[i]=Integer.parseInt(strGroupSize); + sumOfSignals += groupSize[i]; + groupEndian[i]=Integer.parseInt(strGroupEndian); + } + } + if(sumOfSignals != totalSignals) + fatalError("Properties: totalSignals != sum of all group sizes: " + totalSignals + " != "+sumOfSignals); + + + // Memory + strVal=properties.getProperty(NAME + ".memWords"); + if(strVal != null) + memWords=Integer.parseInt(strVal); + else + fatalError("Properties: memWords not found"); + strVal=properties.getProperty(NAME + ".dataWordLenBits"); + if(strVal != null) + dataWordLenBits=Integer.parseInt(strVal); + else + fatalError("Properties: dataWordLenBits not found"); + if((dataWordLenBits % 8) != 0) + fatalError("Properties: dataWordLenBits is not multiple of 8"); + if(dataWordLenBits != totalSignals) + fatalError("Properties: totalSignals != dataWordLenBits: " + totalSignals + " != "+dataWordLenBits); + strVal=properties.getProperty(NAME + ".clonesWordLenBits"); + if(strVal != null) + clonesWordLenBits=Integer.parseInt(strVal); + else + fatalError("Properties: clonesWordLenBits not found"); + if((clonesWordLenBits % 8) != 0) + fatalError("Properties: clonesWordLenBits is not multiple of 8"); + memWordLenBits = dataWordLenBits + clonesWordLenBits; + // Compute sizes + // octetsPerWord + octetsPerWord = memWordLenBits / 8; + if (memWordLenBits % 8 > 0) + octetsPerWord++; + totalmemoryDataBytes = memWords*octetsPerWord; + // Trigger + strVal=properties.getProperty(NAME + ".triggerMatchMemAddr"); + if(strVal != null) + triggerMatchMemAddr=Integer.parseInt(strVal); + else + fatalError("Properties: triggerMatchMemAddr not found"); +/* + strVal=properties.getProperty(NAME + ".maxSamplesAfterTrigger"); + if(strVal != null) + maxSamplesAfterTrigger=Integer.parseInt(strVal); + else + fatalError("Properties: maxSamplesAfterTrigger not found"); + + // triggerLastValue + strVal=properties.getProperty(NAME + ".triggerLastValue"); + if(strVal != null) { + StringTokenizer st; + int j, tNo; + st = new StringTokenizer(strVal," "); + tNo= st.countTokens(); + if(tNo != octetsPerWord) + fatalError("triggerLastValue " + " tNo != octetsPerWord: " + tNo + " != " + octetsPerWord); + triggerLastValue = new int[octetsPerWord]; + for(j=octetsPerWord-1; j>=0; j--) { + triggerLastValue[j] = (byte) Integer.parseInt(st.nextToken(), 16); + } + } + else + fatalError("Properties: triggerLastValue not found"); +*/ + } + + public String getTime() + { + Calendar calendar=new GregorianCalendar(); + String strTime; + int field; + strTime = "" + calendar.get(Calendar.YEAR); + field = 1 + calendar.get(Calendar.MONTH); + if(field < 10) + strTime += "0"; + strTime += field; + if(calendar.get(Calendar.DAY_OF_MONTH) < 10) + strTime += "0"; + strTime += calendar.get(Calendar.DAY_OF_MONTH) + "_" ; + if(calendar.get(Calendar.HOUR_OF_DAY) < 10) + strTime += "0"; + strTime += calendar.get(Calendar.HOUR_OF_DAY); + if(calendar.get(Calendar.MINUTE) < 10) + strTime += "0"; + strTime += calendar.get(Calendar.MINUTE) + "_"; + if(calendar.get(Calendar.SECOND) < 10) + strTime += "0"; + strTime += calendar.get(Calendar.SECOND) ; + System.out.println("date and time: "+strTime); + return strTime; + } + + public static void main(String[] args) throws Exception + { + if(args.length < 1) + VeriFLA.fatalError("Too few arguments: "+args.length+ + "\nSintax is:\n\tjava VeriFLA [=0/1 (default 0)] [sourceToRebuild_capture]\n"+ + "Examples:\n1. Wait for FPGA to send capture:\n\tjava VeriFLA verifla_properties_keyboard.txt\n"+ + "2. Send to the monitor the run command and wait for FPGA to send capture:\n\tjava VeriFLA verifla_properties_keyboard.txt 1\n" + ); + // 1st arg. + System.out.println("propertiesFileName = " + args[0]); + // 2nd arg. + sendRunCommand = 0; + if(args.length >= 2) { + System.out.println(" sendRunCommand = " + args[1]); + sendRunCommand = Integer.parseInt(args[1]); + } + // 3rd arg. + String sourceToRebuildCaptureFile=null; + if(args.length >= 3) { + System.out.println(" sourceToRebuild_capture = " + args[2]); + sourceToRebuildCaptureFile = args[2]; + } + VeriFLA verifla; + verifla = new VeriFLA(); + verifla.job(args[0], sourceToRebuildCaptureFile); + } + + // This java app. data members + boolean debugVeriFLA=true; + + String propertiesFileName; + Properties properties; + SerialPort serialPort; + String strBaudRate; + final static String NAME = "LA"; + final static String STR_ORIGINAL_CAPTURE_DUMP = "ORIGINAL CAPTURE DUMP"; + final static int USERCMD_RESET=0x00, USERCMD_RUN = 0x01; + byte [][] memoryLineBytes; + int octetsPerWord, totalmemoryDataBytes; + int totalSignals; + public static int sendRunCommand=0; + int clockPeriod; + + // Properties file members + String portName; + int memWords, memWordLenBits, dataWordLenBits, clonesWordLenBits, + triggerMatchMemAddr, maxSamplesAfterTrigger; + //int [] triggerLastValue; + String strTimescaleUnit, strTimescalePrecision; + int signalGroups; + String [] groupName; + int [] groupSize, groupEndian; +}

openverifla_2.3.b/java/VeriFLA.java Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/java/UARTSendReceive.class =================================================================== Cannot display: file marked as a binary type. svn:mime-type = application/octet-stream Index: openverifla_2.3.b/java/UARTSendReceive.class =================================================================== --- openverifla_2.3.b/java/UARTSendReceive.class (nonexistent) +++ openverifla_2.3.b/java/UARTSendReceive.class (revision 42)

openverifla_2.3.b/java/UARTSendReceive.class Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Added: svn:mime-type ## -0,0 +1 ## +application/octet-stream \ No newline at end of property Index: openverifla_2.3.b/java/UARTSendReceive.java =================================================================== --- openverifla_2.3.b/java/UARTSendReceive.java (nonexistent) +++ openverifla_2.3.b/java/UARTSendReceive.java (revision 42) @@ -0,0 +1,156 @@ +/* +UARTSendReceive.java +License: GNU GPL + +Revision history: +revistion date: 2018/07/20; author: Laurentiu Duca +- port of SerialPort jssc instead of rxtx +revision date: 2007/Sep/03; author: Laurentiu Duca +- captureOnly feature +- consider that the bt_queue_head_address is wrote at the end of the data capture. +- use HOUR_OF_DAY (0..23) + +revision date: 2007/Jul/4; author: Laurentiu DUCA +- v01 +*/ + + +import java.io.IOException; +import java.io.InputStream; +import java.io.OutputStream; +import java.io.File; +import java.io.FileInputStream; +import java.io.FileOutputStream; +import java.io.FileNotFoundException; +import java.io.FileReader; +import java.io.BufferedReader; +import java.util.Properties; +import java.util.Enumeration; +import java.util.Calendar; +import java.util.GregorianCalendar; +import java.util.StringTokenizer; + +import jssc.SerialPort; +import jssc.SerialPortException; + +public class UARTSendReceive extends Object { + + // Data members are declared at the end. + + /** + * Creates a new object. + * + */ + public UARTSendReceive() { + this.serialPort = null; + //this.properties = new Properties(); + } + + /** + * Attaches the given serial serialPort to the device object. + * The method will try to open the serialPort. + */ + public boolean attach(String portName, String strBaudRate, String parity) { + serialPort = new SerialPort(portName); + + byte pb[]=parity.getBytes(); + int b=pb[0]=='1'?SerialPort.PARITY_ODD:SerialPort.PARITY_NONE; + System.out.println("parity="+b); + try { + serialPort.openPort();//Open serial port + int baudrate=Integer.parseInt(strBaudRate); + //strBaudRate.equals("115200")?SerialPort.BAUDRATE_115200: + //strBaudRate.equals("38400")?SerialPort.BAUDRATE_38400:SerialPort.BAUDRATE_9600; + serialPort.setParams(baudrate, + SerialPort.DATABITS_8, + SerialPort.STOPBITS_1, + b); //SerialPort.PARITY_NONE); + //Set params. Also you can set params by this string: serialPort.setParams(9600, 8, 1, 0); + //serialPort.writeBytes("This is a test string".getBytes());//Write data to port + } catch (SerialPortException ex) { + ex.printStackTrace(System.out); + return false; + } + + return true; + } + + /** + * Detaches the currently attached serialPort, if one exists. + * This will close the serial port. + * + */ + public void detach() { + if (serialPort != null) { + try { + serialPort.closePort(); + } catch (SerialPortException ex) { + ex.printStackTrace(System.out); + } + } + } + + public void sendReceive(String msg) throws IOException, SerialPortException { + byte rawByte[]=new byte[1]; + rawByte = msg.getBytes(); + + System.out.println("Sending..."); + serialPort.writeBytes(rawByte); + System.out.println("Done sending."); + + // Read Captured data + System.out.println("Reading"); + byte readByte[] = serialPort.readBytes(1); + System.out.printf("Read: '%c'=0x%x\n", (char) readByte[0], (int) readByte[0]); + } + + public void getCapturedData(String portName, String strBaudRate, String parity, String msg) + { + boolean found; + found = attach(portName, strBaudRate, parity); + if(!found) { + System.out.println("Port " + portName + " not found.\n"); + System.exit(0); + } + try { + sendReceive(msg); + } catch (Exception ex) { + ex.printStackTrace(System.out); + } + detach(); + } + + + public static void fatalError(String errorName) + { + System.out.println("Fatal error: " + errorName); + System.exit(-1); + } + + + public static void main(String[] args) throws Exception + { + if(args.length != 4) + UARTSendReceive.fatalError("Number of arguments is not 4; is "+args.length+"\n"+ + "Sintax is:\njava UARTSendReceive \n"+ + "Examples:\n"+ + "java UARTSendReceive COM5 9600 0 a\n"+ + "java UARTSendReceive /dev/ttyUSB0 115200 0 a\n"); + // 1st arg. + System.out.println("port = " + args[0]); + System.out.println("baudrate = " + args[1]); + //if(!args[1].equals("115200") && !args[1].equals("38400") && !args[1].equals("9600")) + // fatalError("Invalid baudrate"); + System.out.println("parity = " + args[2]); + System.out.println("char = " + args[3]); + UARTSendReceive usr; + usr = new UARTSendReceive(); + usr.getCapturedData(args[0], args[1], args[2], args[3]); + } + + SerialPort serialPort; + byte [][] memoryDataWords; + int octetsPerWord, idOfTypeBitInLastOctet, totalmemoryDataBytes; + // Properties file members + String portName; +}

openverifla_2.3.b/java/UARTSendReceive.java Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/java/VeriFLA.class =================================================================== Cannot display: file marked as a binary type. svn:mime-type = application/octet-stream Index: openverifla_2.3.b/java/VeriFLA.class =================================================================== --- openverifla_2.3.b/java/VeriFLA.class (nonexistent) +++ openverifla_2.3.b/java/VeriFLA.class (revision 42)

openverifla_2.3.b/java/VeriFLA.class Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Added: svn:mime-type ## -0,0 +1 ## +application/octet-stream \ No newline at end of property Index: openverifla_2.3.b/java/capture_20181016_1230_58.v =================================================================== --- openverifla_2.3.b/java/capture_20181016_1230_58.v (nonexistent) +++ openverifla_2.3.b/java/capture_20181016_1230_58.v (revision 42) @@ -0,0 +1,356 @@ +`timescale 1ns / 10ps + +module capture_20181016_1230_58(clk_of_verifla, la_trigger_matched, KBD_KEY, kbd_clk_line, kbd_data_line, not_used, memory_line_id); + +output clk_of_verifla; +output la_trigger_matched; +output [16:0] memory_line_id; +output [7:0] KBD_KEY; +output kbd_clk_line; +output kbd_data_line; +output [5:0] not_used; +reg [7:0] KBD_KEY; +reg kbd_clk_line; +reg kbd_data_line; +reg [5:0] not_used; +reg [16:0] memory_line_id; +reg la_trigger_matched; +reg clk_of_verifla; + +parameter PERIOD = 20; +initial // Clock process for clk_of_verifla +begin + forever + begin + clk_of_verifla = 1'b0; + #(10); clk_of_verifla = 1'b1; + #(10); + end +end + +initial begin +#(10); +la_trigger_matched = 0; +memory_line_id=6; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000001100000000; +#1310660; +// ------------- Current Time: 1310670*(1ns) +memory_line_id=7; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000001100000000; +#1310660; +// ------------- Current Time: 2621330*(1ns) +memory_line_id=0; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000001100000000; +#1310660; +// ------------- Current Time: 3931990*(1ns) +memory_line_id=1; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000001100000000; +#1310660; +// ------------- Current Time: 5242650*(1ns) +memory_line_id=2; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000001100000000; +#1310660; +// ------------- Current Time: 6553310*(1ns) +memory_line_id=3; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000001100000000; +#1310660; +// ------------- Current Time: 7863970*(1ns) +memory_line_id=4; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000001100000000; +#1198240; +// ------------- Current Time: 9062210*(1ns) +memory_line_id=5; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000000100000000; +#11540; +// ------------- Current Time: 9073750*(1ns) +memory_line_id=8; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000000000000000; +la_trigger_matched = 1; +#60; +// ------------- Current Time: 9073810*(1ns) +memory_line_id=9; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000010000000000; +#44180; +// ------------- Current Time: 9117990*(1ns) +memory_line_id=10; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000010100000000; +#34280; +// ------------- Current Time: 9152270*(1ns) +memory_line_id=11; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000010000000000; +#60; +// ------------- Current Time: 9152330*(1ns) +memory_line_id=12; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000100000000000; +#43140; +// ------------- Current Time: 9195470*(1ns) +memory_line_id=13; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000100100000000; +#34280; +// ------------- Current Time: 9229750*(1ns) +memory_line_id=14; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000100000000000; +#60; +// ------------- Current Time: 9229810*(1ns) +memory_line_id=15; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000110000000000; +#43140; +// ------------- Current Time: 9272950*(1ns) +memory_line_id=16; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000110100000000; +#11460; +// ------------- Current Time: 9284410*(1ns) +memory_line_id=17; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000111100000000; +#24900; +// ------------- Current Time: 9309310*(1ns) +memory_line_id=18; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000111000000000; +#60; +// ------------- Current Time: 9309370*(1ns) +memory_line_id=19; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001001010000000; +#43100; +// ------------- Current Time: 9352470*(1ns) +memory_line_id=20; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001001110000000; +#36400; +// ------------- Current Time: 9388870*(1ns) +memory_line_id=21; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001001010000000; +#60; +// ------------- Current Time: 9388930*(1ns) +memory_line_id=22; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001011011000000; +#43100; +// ------------- Current Time: 9432030*(1ns) +memory_line_id=23; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001011111000000; +#36400; +// ------------- Current Time: 9468430*(1ns) +memory_line_id=24; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001011011000000; +#60; +// ------------- Current Time: 9468490*(1ns) +memory_line_id=25; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001101011100000; +#43100; +// ------------- Current Time: 9511590*(1ns) +memory_line_id=26; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001101111100000; +#12340; +// ------------- Current Time: 9523930*(1ns) +memory_line_id=27; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001100111100000; +#22000; +// ------------- Current Time: 9545930*(1ns) +memory_line_id=28; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001100011100000; +#60; +// ------------- Current Time: 9545990*(1ns) +memory_line_id=29; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001110001110000; +#43140; +// ------------- Current Time: 9589130*(1ns) +memory_line_id=30; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001110101110000; +#34260; +// ------------- Current Time: 9623390*(1ns) +memory_line_id=31; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001110001110000; +#60; +// ------------- Current Time: 9623450*(1ns) +memory_line_id=32; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010000000111000; +#43140; +// ------------- Current Time: 9666590*(1ns) +memory_line_id=33; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010000100111000; +#34280; +// ------------- Current Time: 9700870*(1ns) +memory_line_id=34; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010000000111000; +#60; +// ------------- Current Time: 9700930*(1ns) +memory_line_id=35; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010010000011100; +#44180; +// ------------- Current Time: 9745110*(1ns) +memory_line_id=36; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010010100011100; +#41600; +// ------------- Current Time: 9786710*(1ns) +memory_line_id=37; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010010000011100; +#60; +// ------------- Current Time: 9786770*(1ns) +memory_line_id=38; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010100000011100; +#43140; +// ------------- Current Time: 9829910*(1ns) +memory_line_id=39; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010100100011100; +#11460; +// ------------- Current Time: 9841370*(1ns) +memory_line_id=40; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010101100011100; +#30120; +// ------------- Current Time: 9871490*(1ns) +memory_line_id=41; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010101000011100; +#60; +// ------------- Current Time: 9871550*(1ns) +memory_line_id=42; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111000011100; +#49380; +// ------------- Current Time: 9920930*(1ns) +memory_line_id=43; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 11231590*(1ns) +memory_line_id=44; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 12542250*(1ns) +memory_line_id=45; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 13852910*(1ns) +memory_line_id=46; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 15163570*(1ns) +memory_line_id=47; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 16474230*(1ns) +memory_line_id=48; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 17784890*(1ns) +memory_line_id=49; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 19095550*(1ns) +memory_line_id=50; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 20406210*(1ns) +memory_line_id=51; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 21716870*(1ns) +memory_line_id=52; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 23027530*(1ns) +memory_line_id=53; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 24338190*(1ns) +memory_line_id=54; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 25648850*(1ns) +memory_line_id=55; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 26959510*(1ns) +memory_line_id=56; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 28270170*(1ns) +memory_line_id=57; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 29580830*(1ns) +memory_line_id=58; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 30891490*(1ns) +memory_line_id=59; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 32202150*(1ns) +memory_line_id=60; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 33512810*(1ns) +memory_line_id=61; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 34823470*(1ns) +memory_line_id=62; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 36134130*(1ns) +$stop; +end +endmodule +/* +ORIGINAL CAPTURE DUMP +memory_line_id=0: FF FD 03 00 +memory_line_id=1: FF FD 03 00 +memory_line_id=2: FF FD 03 00 +memory_line_id=3: FF FD 03 00 +memory_line_id=4: EA 08 03 00 +memory_line_id=5: 02 41 01 00 +memory_line_id=6: FF FD 03 00 +memory_line_id=7: FF FD 03 00 +memory_line_id=8: 00 03 00 00 +memory_line_id=9: 08 A1 04 00 +memory_line_id=10: 06 B2 05 00 +memory_line_id=11: 00 03 04 00 +memory_line_id=12: 08 6D 08 00 +memory_line_id=13: 06 B2 09 00 +memory_line_id=14: 00 03 08 00 +memory_line_id=15: 08 6D 0C 00 +memory_line_id=16: 02 3D 0D 00 +memory_line_id=17: 04 DD 0F 00 +memory_line_id=18: 00 03 0E 00 +memory_line_id=19: 08 6B 12 80 +memory_line_id=20: 07 1C 13 80 +memory_line_id=21: 00 03 12 80 +memory_line_id=22: 08 6B 16 C0 +memory_line_id=23: 07 1C 17 C0 +memory_line_id=24: 00 03 16 C0 +memory_line_id=25: 08 6B 1A E0 +memory_line_id=26: 02 69 1B E0 +memory_line_id=27: 04 4C 19 E0 +memory_line_id=28: 00 03 18 E0 +memory_line_id=29: 08 6D 1C 70 +memory_line_id=30: 06 B1 1D 70 +memory_line_id=31: 00 03 1C 70 +memory_line_id=32: 08 6D 20 38 +memory_line_id=33: 06 B2 21 38 +memory_line_id=34: 00 03 20 38 +memory_line_id=35: 08 A1 24 1C +memory_line_id=36: 08 20 25 1C +memory_line_id=37: 00 03 24 1C +memory_line_id=38: 08 6D 28 1C +memory_line_id=39: 02 3D 29 1C +memory_line_id=40: 05 E2 2B 1C +memory_line_id=41: 00 03 2A 1C +memory_line_id=42: 09 A5 2E 1C +memory_line_id=43: FF FD 2F 1C +memory_line_id=44: FF FD 2F 1C +memory_line_id=45: FF FD 2F 1C +memory_line_id=46: FF FD 2F 1C +memory_line_id=47: FF FD 2F 1C +memory_line_id=48: FF FD 2F 1C +memory_line_id=49: FF FD 2F 1C +memory_line_id=50: FF FD 2F 1C +memory_line_id=51: FF FD 2F 1C +memory_line_id=52: FF FD 2F 1C +memory_line_id=53: FF FD 2F 1C +memory_line_id=54: FF FD 2F 1C +memory_line_id=55: FF FD 2F 1C +memory_line_id=56: FF FD 2F 1C +memory_line_id=57: FF FD 2F 1C +memory_line_id=58: FF FD 2F 1C +memory_line_id=59: FF FD 2F 1C +memory_line_id=60: FF FD 2F 1C +memory_line_id=61: FF FD 2F 1C +memory_line_id=62: FF FD 2F 1C +memory_line_id=63: 00 00 00 05 +*/ Index: openverifla_2.3.b/java/capture_20181016_1235_36.v =================================================================== --- openverifla_2.3.b/java/capture_20181016_1235_36.v (nonexistent) +++ openverifla_2.3.b/java/capture_20181016_1235_36.v (revision 42) @@ -0,0 +1,356 @@ +`timescale 1ns / 10ps + +module capture_20181016_1235_36(clk_of_verifla, la_trigger_matched, KBD_KEY, kbd_clk_line, kbd_data_line, not_used, memory_line_id); + +output clk_of_verifla; +output la_trigger_matched; +output [16:0] memory_line_id; +output [7:0] KBD_KEY; +output kbd_clk_line; +output kbd_data_line; +output [5:0] not_used; +reg [7:0] KBD_KEY; +reg kbd_clk_line; +reg kbd_data_line; +reg [5:0] not_used; +reg [16:0] memory_line_id; +reg la_trigger_matched; +reg clk_of_verifla; + +parameter PERIOD = 20; +initial // Clock process for clk_of_verifla +begin + forever + begin + clk_of_verifla = 1'b0; + #(10); clk_of_verifla = 1'b1; + #(10); + end +end + +initial begin +#(10); +la_trigger_matched = 0; +memory_line_id=4; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000001100000000; +#1310660; +// ------------- Current Time: 1310670*(1ns) +memory_line_id=5; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000001100000000; +#1310660; +// ------------- Current Time: 2621330*(1ns) +memory_line_id=6; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000001100000000; +#1310660; +// ------------- Current Time: 3931990*(1ns) +memory_line_id=7; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000001100000000; +#1310660; +// ------------- Current Time: 5242650*(1ns) +memory_line_id=0; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000001100000000; +#1310660; +// ------------- Current Time: 6553310*(1ns) +memory_line_id=1; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000001100000000; +#1310660; +// ------------- Current Time: 7863970*(1ns) +memory_line_id=2; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000001100000000; +#1029400; +// ------------- Current Time: 8893370*(1ns) +memory_line_id=3; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000000100000000; +#11540; +// ------------- Current Time: 8904910*(1ns) +memory_line_id=8; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000000000000000; +la_trigger_matched = 1; +#60; +// ------------- Current Time: 8904970*(1ns) +memory_line_id=9; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000010000000000; +#44180; +// ------------- Current Time: 8949150*(1ns) +memory_line_id=10; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000010100000000; +#34300; +// ------------- Current Time: 8983450*(1ns) +memory_line_id=11; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000010000000000; +#60; +// ------------- Current Time: 8983510*(1ns) +memory_line_id=12; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000100000000000; +#43140; +// ------------- Current Time: 9026650*(1ns) +memory_line_id=13; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000100100000000; +#34280; +// ------------- Current Time: 9060930*(1ns) +memory_line_id=14; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000100000000000; +#60; +// ------------- Current Time: 9060990*(1ns) +memory_line_id=15; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000110000000000; +#43160; +// ------------- Current Time: 9104150*(1ns) +memory_line_id=16; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000110100000000; +#11460; +// ------------- Current Time: 9115610*(1ns) +memory_line_id=17; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000111100000000; +#24900; +// ------------- Current Time: 9140510*(1ns) +memory_line_id=18; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000111000000000; +#60; +// ------------- Current Time: 9140570*(1ns) +memory_line_id=19; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001001010000000; +#43100; +// ------------- Current Time: 9183670*(1ns) +memory_line_id=20; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001001110000000; +#36400; +// ------------- Current Time: 9220070*(1ns) +memory_line_id=21; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001001010000000; +#60; +// ------------- Current Time: 9220130*(1ns) +memory_line_id=22; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001011011000000; +#43120; +// ------------- Current Time: 9263250*(1ns) +memory_line_id=23; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001011111000000; +#36400; +// ------------- Current Time: 9299650*(1ns) +memory_line_id=24; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001011011000000; +#60; +// ------------- Current Time: 9299710*(1ns) +memory_line_id=25; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001101011100000; +#43120; +// ------------- Current Time: 9342830*(1ns) +memory_line_id=26; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001101111100000; +#12320; +// ------------- Current Time: 9355150*(1ns) +memory_line_id=27; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001100111100000; +#22020; +// ------------- Current Time: 9377170*(1ns) +memory_line_id=28; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001100011100000; +#60; +// ------------- Current Time: 9377230*(1ns) +memory_line_id=29; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001110001110000; +#43140; +// ------------- Current Time: 9420370*(1ns) +memory_line_id=30; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001110101110000; +#34280; +// ------------- Current Time: 9454650*(1ns) +memory_line_id=31; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001110001110000; +#60; +// ------------- Current Time: 9454710*(1ns) +memory_line_id=32; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010000000111000; +#43160; +// ------------- Current Time: 9497870*(1ns) +memory_line_id=33; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010000100111000; +#34280; +// ------------- Current Time: 9532150*(1ns) +memory_line_id=34; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010000000111000; +#60; +// ------------- Current Time: 9532210*(1ns) +memory_line_id=35; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010010000011100; +#44180; +// ------------- Current Time: 9576390*(1ns) +memory_line_id=36; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010010100011100; +#41620; +// ------------- Current Time: 9618010*(1ns) +memory_line_id=37; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010010000011100; +#60; +// ------------- Current Time: 9618070*(1ns) +memory_line_id=38; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010100000011100; +#43140; +// ------------- Current Time: 9661210*(1ns) +memory_line_id=39; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010100100011100; +#11460; +// ------------- Current Time: 9672670*(1ns) +memory_line_id=40; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010101100011100; +#30140; +// ------------- Current Time: 9702810*(1ns) +memory_line_id=41; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010101000011100; +#60; +// ------------- Current Time: 9702870*(1ns) +memory_line_id=42; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111000011100; +#49380; +// ------------- Current Time: 9752250*(1ns) +memory_line_id=43; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 11062910*(1ns) +memory_line_id=44; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 12373570*(1ns) +memory_line_id=45; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 13684230*(1ns) +memory_line_id=46; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 14994890*(1ns) +memory_line_id=47; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 16305550*(1ns) +memory_line_id=48; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 17616210*(1ns) +memory_line_id=49; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 18926870*(1ns) +memory_line_id=50; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 20237530*(1ns) +memory_line_id=51; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 21548190*(1ns) +memory_line_id=52; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 22858850*(1ns) +memory_line_id=53; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 24169510*(1ns) +memory_line_id=54; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 25480170*(1ns) +memory_line_id=55; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 26790830*(1ns) +memory_line_id=56; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 28101490*(1ns) +memory_line_id=57; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 29412150*(1ns) +memory_line_id=58; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 30722810*(1ns) +memory_line_id=59; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 32033470*(1ns) +memory_line_id=60; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 33344130*(1ns) +memory_line_id=61; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 34654790*(1ns) +memory_line_id=62; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 35965450*(1ns) +$stop; +end +endmodule +/* +ORIGINAL CAPTURE DUMP +memory_line_id=0: FF FD 03 00 +memory_line_id=1: FF FD 03 00 +memory_line_id=2: C9 0E 03 00 +memory_line_id=3: 02 41 01 00 +memory_line_id=4: FF FD 03 00 +memory_line_id=5: FF FD 03 00 +memory_line_id=6: FF FD 03 00 +memory_line_id=7: FF FD 03 00 +memory_line_id=8: 00 03 00 00 +memory_line_id=9: 08 A1 04 00 +memory_line_id=10: 06 B3 05 00 +memory_line_id=11: 00 03 04 00 +memory_line_id=12: 08 6D 08 00 +memory_line_id=13: 06 B2 09 00 +memory_line_id=14: 00 03 08 00 +memory_line_id=15: 08 6E 0C 00 +memory_line_id=16: 02 3D 0D 00 +memory_line_id=17: 04 DD 0F 00 +memory_line_id=18: 00 03 0E 00 +memory_line_id=19: 08 6B 12 80 +memory_line_id=20: 07 1C 13 80 +memory_line_id=21: 00 03 12 80 +memory_line_id=22: 08 6C 16 C0 +memory_line_id=23: 07 1C 17 C0 +memory_line_id=24: 00 03 16 C0 +memory_line_id=25: 08 6C 1A E0 +memory_line_id=26: 02 68 1B E0 +memory_line_id=27: 04 4D 19 E0 +memory_line_id=28: 00 03 18 E0 +memory_line_id=29: 08 6D 1C 70 +memory_line_id=30: 06 B2 1D 70 +memory_line_id=31: 00 03 1C 70 +memory_line_id=32: 08 6E 20 38 +memory_line_id=33: 06 B2 21 38 +memory_line_id=34: 00 03 20 38 +memory_line_id=35: 08 A1 24 1C +memory_line_id=36: 08 21 25 1C +memory_line_id=37: 00 03 24 1C +memory_line_id=38: 08 6D 28 1C +memory_line_id=39: 02 3D 29 1C +memory_line_id=40: 05 E3 2B 1C +memory_line_id=41: 00 03 2A 1C +memory_line_id=42: 09 A5 2E 1C +memory_line_id=43: FF FD 2F 1C +memory_line_id=44: FF FD 2F 1C +memory_line_id=45: FF FD 2F 1C +memory_line_id=46: FF FD 2F 1C +memory_line_id=47: FF FD 2F 1C +memory_line_id=48: FF FD 2F 1C +memory_line_id=49: FF FD 2F 1C +memory_line_id=50: FF FD 2F 1C +memory_line_id=51: FF FD 2F 1C +memory_line_id=52: FF FD 2F 1C +memory_line_id=53: FF FD 2F 1C +memory_line_id=54: FF FD 2F 1C +memory_line_id=55: FF FD 2F 1C +memory_line_id=56: FF FD 2F 1C +memory_line_id=57: FF FD 2F 1C +memory_line_id=58: FF FD 2F 1C +memory_line_id=59: FF FD 2F 1C +memory_line_id=60: FF FD 2F 1C +memory_line_id=61: FF FD 2F 1C +memory_line_id=62: FF FD 2F 1C +memory_line_id=63: 00 00 00 03 +*/ Index: openverifla_2.3.b/java/capture_keyboard_20180823_1508.v =================================================================== --- openverifla_2.3.b/java/capture_keyboard_20180823_1508.v (nonexistent) +++ openverifla_2.3.b/java/capture_keyboard_20180823_1508.v (revision 42) @@ -0,0 +1,356 @@ +`timescale 1ns / 10ps + +module capture_20180823_1508_56(clk_of_verifla, la_trigger_matched, KBD_KEY, kbd_clk_line, kbd_data_line, not_used, memory_line_id); + +output clk_of_verifla; +output la_trigger_matched; +output [16:0] memory_line_id; +output [7:0] KBD_KEY; +output kbd_clk_line; +output kbd_data_line; +output [5:0] not_used; +reg [7:0] KBD_KEY; +reg kbd_clk_line; +reg kbd_data_line; +reg [5:0] not_used; +reg [16:0] memory_line_id; +reg la_trigger_matched; +reg clk_of_verifla; + +parameter PERIOD = 20; +initial // Clock process for clk_of_verifla +begin + forever + begin + clk_of_verifla = 1'b0; + #(10); clk_of_verifla = 1'b1; + #(10); + end +end + +initial begin +#(10); +la_trigger_matched = 0; +memory_line_id=3; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000001100000000; +#1310660; +// ------------- Current Time: 1310670*(1ns) +memory_line_id=4; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000001100000000; +#1310660; +// ------------- Current Time: 2621330*(1ns) +memory_line_id=5; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000001100000000; +#1310660; +// ------------- Current Time: 3931990*(1ns) +memory_line_id=6; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000001100000000; +#1310660; +// ------------- Current Time: 5242650*(1ns) +memory_line_id=7; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000001100000000; +#1310660; +// ------------- Current Time: 6553310*(1ns) +memory_line_id=0; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000001100000000; +#1310660; +// ------------- Current Time: 7863970*(1ns) +memory_line_id=1; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000001100000000; +#767700; +// ------------- Current Time: 8631670*(1ns) +memory_line_id=2; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000000100000000; +#11460; +// ------------- Current Time: 8643130*(1ns) +memory_line_id=8; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000000000000000; +la_trigger_matched = 1; +#60; +// ------------- Current Time: 8643190*(1ns) +memory_line_id=9; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000010000000000; +#43880; +// ------------- Current Time: 8687070*(1ns) +memory_line_id=10; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000010100000000; +#34020; +// ------------- Current Time: 8721090*(1ns) +memory_line_id=11; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000010000000000; +#60; +// ------------- Current Time: 8721150*(1ns) +memory_line_id=12; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000100000000000; +#42860; +// ------------- Current Time: 8764010*(1ns) +memory_line_id=13; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000100100000000; +#34020; +// ------------- Current Time: 8798030*(1ns) +memory_line_id=14; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000100000000000; +#40; +// ------------- Current Time: 8798070*(1ns) +memory_line_id=15; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000110000000000; +#42860; +// ------------- Current Time: 8840930*(1ns) +memory_line_id=16; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000110100000000; +#11380; +// ------------- Current Time: 8852310*(1ns) +memory_line_id=17; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000111100000000; +#24700; +// ------------- Current Time: 8877010*(1ns) +memory_line_id=18; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0000111000000000; +#60; +// ------------- Current Time: 8877070*(1ns) +memory_line_id=19; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001001010000000; +#42800; +// ------------- Current Time: 8919870*(1ns) +memory_line_id=20; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001001110000000; +#36140; +// ------------- Current Time: 8956010*(1ns) +memory_line_id=21; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001001010000000; +#60; +// ------------- Current Time: 8956070*(1ns) +memory_line_id=22; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001011011000000; +#42800; +// ------------- Current Time: 8998870*(1ns) +memory_line_id=23; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001011111000000; +#36140; +// ------------- Current Time: 9035010*(1ns) +memory_line_id=24; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001011011000000; +#60; +// ------------- Current Time: 9035070*(1ns) +memory_line_id=25; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001101011100000; +#42800; +// ------------- Current Time: 9077870*(1ns) +memory_line_id=26; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001101111100000; +#12220; +// ------------- Current Time: 9090090*(1ns) +memory_line_id=27; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001100111100000; +#21860; +// ------------- Current Time: 9111950*(1ns) +memory_line_id=28; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001100011100000; +#60; +// ------------- Current Time: 9112010*(1ns) +memory_line_id=29; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001110001110000; +#42840; +// ------------- Current Time: 9154850*(1ns) +memory_line_id=30; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001110101110000; +#34020; +// ------------- Current Time: 9188870*(1ns) +memory_line_id=31; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0001110001110000; +#60; +// ------------- Current Time: 9188930*(1ns) +memory_line_id=32; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010000000111000; +#42840; +// ------------- Current Time: 9231770*(1ns) +memory_line_id=33; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010000100111000; +#34020; +// ------------- Current Time: 9265790*(1ns) +memory_line_id=34; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010000000111000; +#60; +// ------------- Current Time: 9265850*(1ns) +memory_line_id=35; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010010000011100; +#43880; +// ------------- Current Time: 9309730*(1ns) +memory_line_id=36; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010010100011100; +#41300; +// ------------- Current Time: 9351030*(1ns) +memory_line_id=37; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010010000011100; +#60; +// ------------- Current Time: 9351090*(1ns) +memory_line_id=38; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010100000011100; +#42840; +// ------------- Current Time: 9393930*(1ns) +memory_line_id=39; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010100100011100; +#11380; +// ------------- Current Time: 9405310*(1ns) +memory_line_id=40; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010101100011100; +#29900; +// ------------- Current Time: 9435210*(1ns) +memory_line_id=41; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010101000011100; +#60; +// ------------- Current Time: 9435270*(1ns) +memory_line_id=42; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111000011100; +#49060; +// ------------- Current Time: 9484330*(1ns) +memory_line_id=43; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 10794990*(1ns) +memory_line_id=44; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 12105650*(1ns) +memory_line_id=45; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 13416310*(1ns) +memory_line_id=46; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 14726970*(1ns) +memory_line_id=47; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 16037630*(1ns) +memory_line_id=48; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 17348290*(1ns) +memory_line_id=49; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 18658950*(1ns) +memory_line_id=50; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 19969610*(1ns) +memory_line_id=51; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 21280270*(1ns) +memory_line_id=52; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 22590930*(1ns) +memory_line_id=53; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 23901590*(1ns) +memory_line_id=54; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 25212250*(1ns) +memory_line_id=55; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 26522910*(1ns) +memory_line_id=56; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 27833570*(1ns) +memory_line_id=57; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 29144230*(1ns) +memory_line_id=58; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 30454890*(1ns) +memory_line_id=59; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 31765550*(1ns) +memory_line_id=60; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 33076210*(1ns) +memory_line_id=61; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 34386870*(1ns) +memory_line_id=62; +{not_used,kbd_data_line,kbd_clk_line,KBD_KEY} = 16'b0010111100011100; +#1310660; +// ------------- Current Time: 35697530*(1ns) +$stop; +end +endmodule +/* +ORIGINAL CAPTURE DUMP +memory_line_id=0: FF FD 03 00 +memory_line_id=1: 95 F1 03 00 +memory_line_id=2: 02 3D 01 00 +memory_line_id=3: FF FD 03 00 +memory_line_id=4: FF FD 03 00 +memory_line_id=5: FF FD 03 00 +memory_line_id=6: FF FD 03 00 +memory_line_id=7: FF FD 03 00 +memory_line_id=8: 00 03 00 00 +memory_line_id=9: 08 92 04 00 +memory_line_id=10: 06 A5 05 00 +memory_line_id=11: 00 03 04 00 +memory_line_id=12: 08 5F 08 00 +memory_line_id=13: 06 A5 09 00 +memory_line_id=14: 00 02 08 00 +memory_line_id=15: 08 5F 0C 00 +memory_line_id=16: 02 39 0D 00 +memory_line_id=17: 04 D3 0F 00 +memory_line_id=18: 00 03 0E 00 +memory_line_id=19: 08 5C 12 80 +memory_line_id=20: 07 0F 13 80 +memory_line_id=21: 00 03 12 80 +memory_line_id=22: 08 5C 16 C0 +memory_line_id=23: 07 0F 17 C0 +memory_line_id=24: 00 03 16 C0 +memory_line_id=25: 08 5C 1A E0 +memory_line_id=26: 02 63 1B E0 +memory_line_id=27: 04 45 19 E0 +memory_line_id=28: 00 03 18 E0 +memory_line_id=29: 08 5E 1C 70 +memory_line_id=30: 06 A5 1D 70 +memory_line_id=31: 00 03 1C 70 +memory_line_id=32: 08 5E 20 38 +memory_line_id=33: 06 A5 21 38 +memory_line_id=34: 00 03 20 38 +memory_line_id=35: 08 92 24 1C +memory_line_id=36: 08 11 25 1C +memory_line_id=37: 00 03 24 1C +memory_line_id=38: 08 5E 28 1C +memory_line_id=39: 02 39 29 1C +memory_line_id=40: 05 D7 2B 1C +memory_line_id=41: 00 03 2A 1C +memory_line_id=42: 09 95 2E 1C +memory_line_id=43: FF FD 2F 1C +memory_line_id=44: FF FD 2F 1C +memory_line_id=45: FF FD 2F 1C +memory_line_id=46: FF FD 2F 1C +memory_line_id=47: FF FD 2F 1C +memory_line_id=48: FF FD 2F 1C +memory_line_id=49: FF FD 2F 1C +memory_line_id=50: FF FD 2F 1C +memory_line_id=51: FF FD 2F 1C +memory_line_id=52: FF FD 2F 1C +memory_line_id=53: FF FD 2F 1C +memory_line_id=54: FF FD 2F 1C +memory_line_id=55: FF FD 2F 1C +memory_line_id=56: FF FD 2F 1C +memory_line_id=57: FF FD 2F 1C +memory_line_id=58: FF FD 2F 1C +memory_line_id=59: FF FD 2F 1C +memory_line_id=60: FF FD 2F 1C +memory_line_id=61: FF FD 2F 1C +memory_line_id=62: FF FD 2F 1C +memory_line_id=63: 00 00 00 02 +*/ Index: openverifla_2.3.b/java/capture_spi_slave_20180824_1626.v =================================================================== --- openverifla_2.3.b/java/capture_spi_slave_20180824_1626.v (nonexistent) +++ openverifla_2.3.b/java/capture_spi_slave_20180824_1626.v (revision 42) @@ -0,0 +1,1322 @@ +`timescale 1ns / 10ps + +module capture_20180824_1626_23(clk_of_verifla, la_trigger_matched, SCK, SSEL, MOSI, MISO, bitcnt_0, byte_received, byte_data_sent_10, memory_line_id); + +output clk_of_verifla; +output la_trigger_matched; +output [64:0] memory_line_id; +output SCK; +output SSEL; +output MOSI; +output MISO; +output bitcnt_0; +output byte_received; +output [1:0] byte_data_sent_10; +reg SCK; +reg SSEL; +reg MOSI; +reg MISO; +reg bitcnt_0; +reg byte_received; +reg [1:0] byte_data_sent_10; +reg [64:0] memory_line_id; +reg la_trigger_matched; +reg clk_of_verifla; + +parameter PERIOD = 20; +initial // Clock process for clk_of_verifla +begin + forever + begin + clk_of_verifla = 1'b0; + #(10); clk_of_verifla = 1'b1; + #(10); + end +end + +initial begin +#(10); +la_trigger_matched = 0; +memory_line_id=2; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000010; +#5060; +// ------------- Current Time: 5070*(1ns) +memory_line_id=3; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000010; +#5060; +// ------------- Current Time: 10130*(1ns) +memory_line_id=4; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000010; +#5060; +// ------------- Current Time: 15190*(1ns) +memory_line_id=5; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000010; +#5060; +// ------------- Current Time: 20250*(1ns) +memory_line_id=6; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000010; +#5060; +// ------------- Current Time: 25310*(1ns) +memory_line_id=7; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000010; +#5060; +// ------------- Current Time: 30370*(1ns) +memory_line_id=0; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000010; +#5060; +// ------------- Current Time: 35430*(1ns) +memory_line_id=1; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000010; +#2760; +// ------------- Current Time: 38190*(1ns) +memory_line_id=8; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000000; +la_trigger_matched = 1; +#5060; +// ------------- Current Time: 43250*(1ns) +memory_line_id=9; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000000; +#5060; +// ------------- Current Time: 48310*(1ns) +memory_line_id=10; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000000; +#3460; +// ------------- Current Time: 51770*(1ns) +memory_line_id=11; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000100; +#500; +// ------------- Current Time: 52270*(1ns) +memory_line_id=12; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000101; +#60; +// ------------- Current Time: 52330*(1ns) +memory_line_id=13; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010101; +#440; +// ------------- Current Time: 52770*(1ns) +memory_line_id=14; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010000; +#500; +// ------------- Current Time: 53270*(1ns) +memory_line_id=15; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010001; +#60; +// ------------- Current Time: 53330*(1ns) +memory_line_id=16; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000001; +#440; +// ------------- Current Time: 53770*(1ns) +memory_line_id=17; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000000; +#500; +// ------------- Current Time: 54270*(1ns) +memory_line_id=18; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000001; +#60; +// ------------- Current Time: 54330*(1ns) +memory_line_id=19; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010001; +#440; +// ------------- Current Time: 54770*(1ns) +memory_line_id=20; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010100; +#500; +// ------------- Current Time: 55270*(1ns) +memory_line_id=21; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010101; +#60; +// ------------- Current Time: 55330*(1ns) +memory_line_id=22; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000101; +#440; +// ------------- Current Time: 55770*(1ns) +memory_line_id=23; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000100; +#500; +// ------------- Current Time: 56270*(1ns) +memory_line_id=24; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000101; +#60; +// ------------- Current Time: 56330*(1ns) +memory_line_id=25; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010101; +#440; +// ------------- Current Time: 56770*(1ns) +memory_line_id=26; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010100; +#500; +// ------------- Current Time: 57270*(1ns) +memory_line_id=27; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010101; +#60; +// ------------- Current Time: 57330*(1ns) +memory_line_id=28; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000101; +#440; +// ------------- Current Time: 57770*(1ns) +memory_line_id=29; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000100; +#500; +// ------------- Current Time: 58270*(1ns) +memory_line_id=30; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000101; +#60; +// ------------- Current Time: 58330*(1ns) +memory_line_id=31; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010101; +#440; +// ------------- Current Time: 58770*(1ns) +memory_line_id=32; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010100; +#500; +// ------------- Current Time: 59270*(1ns) +memory_line_id=33; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010101; +#60; +// ------------- Current Time: 59330*(1ns) +memory_line_id=34; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00100101; +#440; +// ------------- Current Time: 59770*(1ns) +memory_line_id=35; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00100000; +#60; +// ------------- Current Time: 59830*(1ns) +memory_line_id=36; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 64890*(1ns) +memory_line_id=37; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 69950*(1ns) +memory_line_id=38; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 75010*(1ns) +memory_line_id=39; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 80070*(1ns) +memory_line_id=40; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 85130*(1ns) +memory_line_id=41; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 90190*(1ns) +memory_line_id=42; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 95250*(1ns) +memory_line_id=43; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 100310*(1ns) +memory_line_id=44; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 105370*(1ns) +memory_line_id=45; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 110430*(1ns) +memory_line_id=46; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 115490*(1ns) +memory_line_id=47; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 120550*(1ns) +memory_line_id=48; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 125610*(1ns) +memory_line_id=49; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 130670*(1ns) +memory_line_id=50; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 135730*(1ns) +memory_line_id=51; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 140790*(1ns) +memory_line_id=52; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 145850*(1ns) +memory_line_id=53; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 150910*(1ns) +memory_line_id=54; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 155970*(1ns) +memory_line_id=55; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 161030*(1ns) +memory_line_id=56; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 166090*(1ns) +memory_line_id=57; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 171150*(1ns) +memory_line_id=58; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 176210*(1ns) +memory_line_id=59; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#1340; +// ------------- Current Time: 177550*(1ns) +memory_line_id=60; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 182610*(1ns) +memory_line_id=61; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 187670*(1ns) +memory_line_id=62; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#680; +// ------------- Current Time: 188350*(1ns) +memory_line_id=63; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#60; +// ------------- Current Time: 188410*(1ns) +memory_line_id=64; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b01100000; +#5060; +// ------------- Current Time: 193470*(1ns) +memory_line_id=65; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b01100000; +#5060; +// ------------- Current Time: 198530*(1ns) +memory_line_id=66; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b01100000; +#5060; +// ------------- Current Time: 203590*(1ns) +memory_line_id=67; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b01100000; +#5060; +// ------------- Current Time: 208650*(1ns) +memory_line_id=68; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b01100000; +#5060; +// ------------- Current Time: 213710*(1ns) +memory_line_id=69; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b01100000; +#5060; +// ------------- Current Time: 218770*(1ns) +memory_line_id=70; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b01100000; +#5060; +// ------------- Current Time: 223830*(1ns) +memory_line_id=71; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b01100000; +#5060; +// ------------- Current Time: 228890*(1ns) +memory_line_id=72; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b01100000; +#5060; +// ------------- Current Time: 233950*(1ns) +memory_line_id=73; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b01100000; +#5060; +// ------------- Current Time: 239010*(1ns) +memory_line_id=74; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b01100000; +#5060; +// ------------- Current Time: 244070*(1ns) +memory_line_id=75; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b01100000; +#5060; +// ------------- Current Time: 249130*(1ns) +memory_line_id=76; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b01100000; +#2000; +// ------------- Current Time: 251130*(1ns) +memory_line_id=77; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b01100001; +#60; +// ------------- Current Time: 251190*(1ns) +memory_line_id=78; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b01010001; +#440; +// ------------- Current Time: 251630*(1ns) +memory_line_id=79; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b01010000; +#60; +// ------------- Current Time: 251690*(1ns) +memory_line_id=80; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b10010000; +#440; +// ------------- Current Time: 252130*(1ns) +memory_line_id=81; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b10010001; +#60; +// ------------- Current Time: 252190*(1ns) +memory_line_id=82; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b10000001; +#440; +// ------------- Current Time: 252630*(1ns) +memory_line_id=83; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b10000000; +#60; +// ------------- Current Time: 252690*(1ns) +memory_line_id=84; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000000; +#440; +// ------------- Current Time: 253130*(1ns) +memory_line_id=85; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000001; +#60; +// ------------- Current Time: 253190*(1ns) +memory_line_id=86; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010001; +#440; +// ------------- Current Time: 253630*(1ns) +memory_line_id=87; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010000; +#500; +// ------------- Current Time: 254130*(1ns) +memory_line_id=88; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010001; +#60; +// ------------- Current Time: 254190*(1ns) +memory_line_id=89; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000001; +#440; +// ------------- Current Time: 254630*(1ns) +memory_line_id=90; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000100; +#500; +// ------------- Current Time: 255130*(1ns) +memory_line_id=91; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000101; +#60; +// ------------- Current Time: 255190*(1ns) +memory_line_id=92; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010101; +#440; +// ------------- Current Time: 255630*(1ns) +memory_line_id=93; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010000; +#500; +// ------------- Current Time: 256130*(1ns) +memory_line_id=94; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010001; +#60; +// ------------- Current Time: 256190*(1ns) +memory_line_id=95; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000001; +#440; +// ------------- Current Time: 256630*(1ns) +memory_line_id=96; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000100; +#500; +// ------------- Current Time: 257130*(1ns) +memory_line_id=97; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000101; +#60; +// ------------- Current Time: 257190*(1ns) +memory_line_id=98; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010101; +#440; +// ------------- Current Time: 257630*(1ns) +memory_line_id=99; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010100; +#60; +// ------------- Current Time: 257690*(1ns) +memory_line_id=100; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00011100; +#440; +// ------------- Current Time: 258130*(1ns) +memory_line_id=101; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00011101; +#60; +// ------------- Current Time: 258190*(1ns) +memory_line_id=102; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00101101; +#440; +// ------------- Current Time: 258630*(1ns) +memory_line_id=103; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00101000; +#60; +// ------------- Current Time: 258690*(1ns) +memory_line_id=104; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#1440; +// ------------- Current Time: 260130*(1ns) +memory_line_id=105; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100001; +#60; +// ------------- Current Time: 260190*(1ns) +memory_line_id=106; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11010001; +#440; +// ------------- Current Time: 260630*(1ns) +memory_line_id=107; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11010000; +#60; +// ------------- Current Time: 260690*(1ns) +memory_line_id=108; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b10010000; +#440; +// ------------- Current Time: 261130*(1ns) +memory_line_id=109; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b10010001; +#60; +// ------------- Current Time: 261190*(1ns) +memory_line_id=110; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b10000001; +#440; +// ------------- Current Time: 261630*(1ns) +memory_line_id=111; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b10000000; +#60; +// ------------- Current Time: 261690*(1ns) +memory_line_id=112; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000000; +#440; +// ------------- Current Time: 262130*(1ns) +memory_line_id=113; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000001; +#60; +// ------------- Current Time: 262190*(1ns) +memory_line_id=114; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010001; +#440; +// ------------- Current Time: 262630*(1ns) +memory_line_id=115; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010000; +#500; +// ------------- Current Time: 263130*(1ns) +memory_line_id=116; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010001; +#60; +// ------------- Current Time: 263190*(1ns) +memory_line_id=117; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000001; +#440; +// ------------- Current Time: 263630*(1ns) +memory_line_id=118; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000000; +#500; +// ------------- Current Time: 264130*(1ns) +memory_line_id=119; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000001; +#60; +// ------------- Current Time: 264190*(1ns) +memory_line_id=120; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010001; +#440; +// ------------- Current Time: 264630*(1ns) +memory_line_id=121; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010000; +#500; +// ------------- Current Time: 265130*(1ns) +memory_line_id=122; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010001; +#60; +// ------------- Current Time: 265190*(1ns) +memory_line_id=123; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000001; +#440; +// ------------- Current Time: 265630*(1ns) +memory_line_id=124; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000100; +#60; +// ------------- Current Time: 265690*(1ns) +memory_line_id=125; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00001100; +#440; +// ------------- Current Time: 266130*(1ns) +memory_line_id=126; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00001101; +#60; +// ------------- Current Time: 266190*(1ns) +memory_line_id=127; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00011101; +#440; +// ------------- Current Time: 266630*(1ns) +memory_line_id=128; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00011000; +#500; +// ------------- Current Time: 267130*(1ns) +memory_line_id=129; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00011001; +#60; +// ------------- Current Time: 267190*(1ns) +memory_line_id=130; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00101001; +#440; +// ------------- Current Time: 267630*(1ns) +memory_line_id=131; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00101000; +#60; +// ------------- Current Time: 267690*(1ns) +memory_line_id=132; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#940; +// ------------- Current Time: 268630*(1ns) +memory_line_id=133; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100100; +#500; +// ------------- Current Time: 269130*(1ns) +memory_line_id=134; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100101; +#60; +// ------------- Current Time: 269190*(1ns) +memory_line_id=135; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11010101; +#440; +// ------------- Current Time: 269630*(1ns) +memory_line_id=136; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11010000; +#60; +// ------------- Current Time: 269690*(1ns) +memory_line_id=137; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b10010000; +#440; +// ------------- Current Time: 270130*(1ns) +memory_line_id=138; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b10010001; +#60; +// ------------- Current Time: 270190*(1ns) +memory_line_id=139; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b10000001; +#440; +// ------------- Current Time: 270630*(1ns) +memory_line_id=140; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b10000100; +#60; +// ------------- Current Time: 270690*(1ns) +memory_line_id=141; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000100; +#440; +// ------------- Current Time: 271130*(1ns) +memory_line_id=142; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000101; +#60; +// ------------- Current Time: 271190*(1ns) +memory_line_id=143; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010101; +#440; +// ------------- Current Time: 271630*(1ns) +memory_line_id=144; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010100; +#500; +// ------------- Current Time: 272130*(1ns) +memory_line_id=145; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010101; +#60; +// ------------- Current Time: 272190*(1ns) +memory_line_id=146; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000101; +#440; +// ------------- Current Time: 272630*(1ns) +memory_line_id=147; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000000; +#500; +// ------------- Current Time: 273130*(1ns) +memory_line_id=148; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000001; +#60; +// ------------- Current Time: 273190*(1ns) +memory_line_id=149; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010001; +#440; +// ------------- Current Time: 273630*(1ns) +memory_line_id=150; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010100; +#500; +// ------------- Current Time: 274130*(1ns) +memory_line_id=151; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010101; +#60; +// ------------- Current Time: 274190*(1ns) +memory_line_id=152; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000101; +#440; +// ------------- Current Time: 274630*(1ns) +memory_line_id=153; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000000; +#60; +// ------------- Current Time: 274690*(1ns) +memory_line_id=154; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00001000; +#440; +// ------------- Current Time: 275130*(1ns) +memory_line_id=155; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00001001; +#60; +// ------------- Current Time: 275190*(1ns) +memory_line_id=156; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00011001; +#440; +// ------------- Current Time: 275630*(1ns) +memory_line_id=157; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00011100; +#500; +// ------------- Current Time: 276130*(1ns) +memory_line_id=158; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00011101; +#60; +// ------------- Current Time: 276190*(1ns) +memory_line_id=159; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00101101; +#440; +// ------------- Current Time: 276630*(1ns) +memory_line_id=160; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00101000; +#60; +// ------------- Current Time: 276690*(1ns) +memory_line_id=161; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#2740; +// ------------- Current Time: 279430*(1ns) +memory_line_id=162; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 284490*(1ns) +memory_line_id=163; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 289550*(1ns) +memory_line_id=164; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 294610*(1ns) +memory_line_id=165; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 299670*(1ns) +memory_line_id=166; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 304730*(1ns) +memory_line_id=167; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 309790*(1ns) +memory_line_id=168; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 314850*(1ns) +memory_line_id=169; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 319910*(1ns) +memory_line_id=170; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 324970*(1ns) +memory_line_id=171; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 330030*(1ns) +memory_line_id=172; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 335090*(1ns) +memory_line_id=173; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 340150*(1ns) +memory_line_id=174; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 345210*(1ns) +memory_line_id=175; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 350270*(1ns) +memory_line_id=176; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 355330*(1ns) +memory_line_id=177; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 360390*(1ns) +memory_line_id=178; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 365450*(1ns) +memory_line_id=179; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 370510*(1ns) +memory_line_id=180; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 375570*(1ns) +memory_line_id=181; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 380630*(1ns) +memory_line_id=182; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 385690*(1ns) +memory_line_id=183; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 390750*(1ns) +memory_line_id=184; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 395810*(1ns) +memory_line_id=185; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 400870*(1ns) +memory_line_id=186; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 405930*(1ns) +memory_line_id=187; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 410990*(1ns) +memory_line_id=188; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 416050*(1ns) +memory_line_id=189; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 421110*(1ns) +memory_line_id=190; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 426170*(1ns) +memory_line_id=191; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 431230*(1ns) +memory_line_id=192; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 436290*(1ns) +memory_line_id=193; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 441350*(1ns) +memory_line_id=194; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 446410*(1ns) +memory_line_id=195; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 451470*(1ns) +memory_line_id=196; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 456530*(1ns) +memory_line_id=197; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 461590*(1ns) +memory_line_id=198; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 466650*(1ns) +memory_line_id=199; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 471710*(1ns) +memory_line_id=200; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 476770*(1ns) +memory_line_id=201; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 481830*(1ns) +memory_line_id=202; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 486890*(1ns) +memory_line_id=203; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 491950*(1ns) +memory_line_id=204; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 497010*(1ns) +memory_line_id=205; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 502070*(1ns) +memory_line_id=206; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 507130*(1ns) +memory_line_id=207; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 512190*(1ns) +memory_line_id=208; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 517250*(1ns) +memory_line_id=209; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 522310*(1ns) +memory_line_id=210; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 527370*(1ns) +memory_line_id=211; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 532430*(1ns) +memory_line_id=212; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 537490*(1ns) +memory_line_id=213; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 542550*(1ns) +memory_line_id=214; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 547610*(1ns) +memory_line_id=215; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 552670*(1ns) +memory_line_id=216; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 557730*(1ns) +memory_line_id=217; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 562790*(1ns) +memory_line_id=218; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 567850*(1ns) +memory_line_id=219; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 572910*(1ns) +memory_line_id=220; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 577970*(1ns) +memory_line_id=221; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 583030*(1ns) +memory_line_id=222; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 588090*(1ns) +memory_line_id=223; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 593150*(1ns) +memory_line_id=224; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 598210*(1ns) +memory_line_id=225; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 603270*(1ns) +memory_line_id=226; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 608330*(1ns) +memory_line_id=227; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 613390*(1ns) +memory_line_id=228; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 618450*(1ns) +memory_line_id=229; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 623510*(1ns) +memory_line_id=230; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 628570*(1ns) +memory_line_id=231; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 633630*(1ns) +memory_line_id=232; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 638690*(1ns) +memory_line_id=233; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 643750*(1ns) +memory_line_id=234; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 648810*(1ns) +memory_line_id=235; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 653870*(1ns) +memory_line_id=236; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 658930*(1ns) +memory_line_id=237; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 663990*(1ns) +memory_line_id=238; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 669050*(1ns) +memory_line_id=239; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 674110*(1ns) +memory_line_id=240; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 679170*(1ns) +memory_line_id=241; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 684230*(1ns) +memory_line_id=242; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 689290*(1ns) +memory_line_id=243; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 694350*(1ns) +memory_line_id=244; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 699410*(1ns) +memory_line_id=245; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 704470*(1ns) +memory_line_id=246; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 709530*(1ns) +memory_line_id=247; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 714590*(1ns) +memory_line_id=248; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 719650*(1ns) +memory_line_id=249; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 724710*(1ns) +memory_line_id=250; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 729770*(1ns) +memory_line_id=251; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 734830*(1ns) +memory_line_id=252; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 739890*(1ns) +memory_line_id=253; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 744950*(1ns) +memory_line_id=254; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 750010*(1ns) +$stop; +end +endmodule +/* +ORIGINAL CAPTURE DUMP +memory_line_id=0: FD 02 +memory_line_id=1: 8A 02 +memory_line_id=2: FD 02 +memory_line_id=3: FD 02 +memory_line_id=4: FD 02 +memory_line_id=5: FD 02 +memory_line_id=6: FD 02 +memory_line_id=7: FD 02 +memory_line_id=8: FD 00 +memory_line_id=9: FD 00 +memory_line_id=10: AD 00 +memory_line_id=11: 19 04 +memory_line_id=12: 03 05 +memory_line_id=13: 16 15 +memory_line_id=14: 19 10 +memory_line_id=15: 03 11 +memory_line_id=16: 16 01 +memory_line_id=17: 19 00 +memory_line_id=18: 03 01 +memory_line_id=19: 16 11 +memory_line_id=20: 19 14 +memory_line_id=21: 03 15 +memory_line_id=22: 16 05 +memory_line_id=23: 19 04 +memory_line_id=24: 03 05 +memory_line_id=25: 16 15 +memory_line_id=26: 19 14 +memory_line_id=27: 03 15 +memory_line_id=28: 16 05 +memory_line_id=29: 19 04 +memory_line_id=30: 03 05 +memory_line_id=31: 16 15 +memory_line_id=32: 19 14 +memory_line_id=33: 03 15 +memory_line_id=34: 16 25 +memory_line_id=35: 03 20 +memory_line_id=36: FD E0 +memory_line_id=37: FD E0 +memory_line_id=38: FD E0 +memory_line_id=39: FD E0 +memory_line_id=40: FD E0 +memory_line_id=41: FD E0 +memory_line_id=42: FD E0 +memory_line_id=43: FD E0 +memory_line_id=44: FD E0 +memory_line_id=45: FD E0 +memory_line_id=46: FD E0 +memory_line_id=47: FD E0 +memory_line_id=48: FD E0 +memory_line_id=49: FD E0 +memory_line_id=50: FD E0 +memory_line_id=51: FD E0 +memory_line_id=52: FD E0 +memory_line_id=53: FD E0 +memory_line_id=54: FD E0 +memory_line_id=55: FD E0 +memory_line_id=56: FD E0 +memory_line_id=57: FD E0 +memory_line_id=58: FD E0 +memory_line_id=59: 43 E0 +memory_line_id=60: FD E2 +memory_line_id=61: FD E2 +memory_line_id=62: 22 E2 +memory_line_id=63: 03 E0 +memory_line_id=64: FD 60 +memory_line_id=65: FD 60 +memory_line_id=66: FD 60 +memory_line_id=67: FD 60 +memory_line_id=68: FD 60 +memory_line_id=69: FD 60 +memory_line_id=70: FD 60 +memory_line_id=71: FD 60 +memory_line_id=72: FD 60 +memory_line_id=73: FD 60 +memory_line_id=74: FD 60 +memory_line_id=75: FD 60 +memory_line_id=76: 64 60 +memory_line_id=77: 03 61 +memory_line_id=78: 16 51 +memory_line_id=79: 03 50 +memory_line_id=80: 16 90 +memory_line_id=81: 03 91 +memory_line_id=82: 16 81 +memory_line_id=83: 03 80 +memory_line_id=84: 16 00 +memory_line_id=85: 03 01 +memory_line_id=86: 16 11 +memory_line_id=87: 19 10 +memory_line_id=88: 03 11 +memory_line_id=89: 16 01 +memory_line_id=90: 19 04 +memory_line_id=91: 03 05 +memory_line_id=92: 16 15 +memory_line_id=93: 19 10 +memory_line_id=94: 03 11 +memory_line_id=95: 16 01 +memory_line_id=96: 19 04 +memory_line_id=97: 03 05 +memory_line_id=98: 16 15 +memory_line_id=99: 03 14 +memory_line_id=100: 16 1C +memory_line_id=101: 03 1D +memory_line_id=102: 16 2D +memory_line_id=103: 03 28 +memory_line_id=104: 48 E0 +memory_line_id=105: 03 E1 +memory_line_id=106: 16 D1 +memory_line_id=107: 03 D0 +memory_line_id=108: 16 90 +memory_line_id=109: 03 91 +memory_line_id=110: 16 81 +memory_line_id=111: 03 80 +memory_line_id=112: 16 00 +memory_line_id=113: 03 01 +memory_line_id=114: 16 11 +memory_line_id=115: 19 10 +memory_line_id=116: 03 11 +memory_line_id=117: 16 01 +memory_line_id=118: 19 00 +memory_line_id=119: 03 01 +memory_line_id=120: 16 11 +memory_line_id=121: 19 10 +memory_line_id=122: 03 11 +memory_line_id=123: 16 01 +memory_line_id=124: 03 04 +memory_line_id=125: 16 0C +memory_line_id=126: 03 0D +memory_line_id=127: 16 1D +memory_line_id=128: 19 18 +memory_line_id=129: 03 19 +memory_line_id=130: 16 29 +memory_line_id=131: 03 28 +memory_line_id=132: 2F E0 +memory_line_id=133: 19 E4 +memory_line_id=134: 03 E5 +memory_line_id=135: 16 D5 +memory_line_id=136: 03 D0 +memory_line_id=137: 16 90 +memory_line_id=138: 03 91 +memory_line_id=139: 16 81 +memory_line_id=140: 03 84 +memory_line_id=141: 16 04 +memory_line_id=142: 03 05 +memory_line_id=143: 16 15 +memory_line_id=144: 19 14 +memory_line_id=145: 03 15 +memory_line_id=146: 16 05 +memory_line_id=147: 19 00 +memory_line_id=148: 03 01 +memory_line_id=149: 16 11 +memory_line_id=150: 19 14 +memory_line_id=151: 03 15 +memory_line_id=152: 16 05 +memory_line_id=153: 03 00 +memory_line_id=154: 16 08 +memory_line_id=155: 03 09 +memory_line_id=156: 16 19 +memory_line_id=157: 19 1C +memory_line_id=158: 03 1D +memory_line_id=159: 16 2D +memory_line_id=160: 03 28 +memory_line_id=161: 89 E0 +memory_line_id=162: FD E2 +memory_line_id=163: FD E2 +memory_line_id=164: FD E2 +memory_line_id=165: FD E2 +memory_line_id=166: FD E2 +memory_line_id=167: FD E2 +memory_line_id=168: FD E2 +memory_line_id=169: FD E2 +memory_line_id=170: FD E2 +memory_line_id=171: FD E2 +memory_line_id=172: FD E2 +memory_line_id=173: FD E2 +memory_line_id=174: FD E2 +memory_line_id=175: FD E2 +memory_line_id=176: FD E2 +memory_line_id=177: FD E2 +memory_line_id=178: FD E2 +memory_line_id=179: FD E2 +memory_line_id=180: FD E2 +memory_line_id=181: FD E2 +memory_line_id=182: FD E2 +memory_line_id=183: FD E2 +memory_line_id=184: FD E2 +memory_line_id=185: FD E2 +memory_line_id=186: FD E2 +memory_line_id=187: FD E2 +memory_line_id=188: FD E2 +memory_line_id=189: FD E2 +memory_line_id=190: FD E2 +memory_line_id=191: FD E2 +memory_line_id=192: FD E2 +memory_line_id=193: FD E2 +memory_line_id=194: FD E2 +memory_line_id=195: FD E2 +memory_line_id=196: FD E2 +memory_line_id=197: FD E2 +memory_line_id=198: FD E2 +memory_line_id=199: FD E2 +memory_line_id=200: FD E2 +memory_line_id=201: FD E2 +memory_line_id=202: FD E2 +memory_line_id=203: FD E2 +memory_line_id=204: FD E2 +memory_line_id=205: FD E2 +memory_line_id=206: FD E2 +memory_line_id=207: FD E2 +memory_line_id=208: FD E2 +memory_line_id=209: FD E2 +memory_line_id=210: FD E2 +memory_line_id=211: FD E2 +memory_line_id=212: FD E2 +memory_line_id=213: FD E2 +memory_line_id=214: FD E2 +memory_line_id=215: FD E2 +memory_line_id=216: FD E2 +memory_line_id=217: FD E2 +memory_line_id=218: FD E2 +memory_line_id=219: FD E2 +memory_line_id=220: FD E2 +memory_line_id=221: FD E2 +memory_line_id=222: FD E2 +memory_line_id=223: FD E2 +memory_line_id=224: FD E2 +memory_line_id=225: FD E2 +memory_line_id=226: FD E2 +memory_line_id=227: FD E2 +memory_line_id=228: FD E2 +memory_line_id=229: FD E2 +memory_line_id=230: FD E2 +memory_line_id=231: FD E2 +memory_line_id=232: FD E2 +memory_line_id=233: FD E2 +memory_line_id=234: FD E2 +memory_line_id=235: FD E2 +memory_line_id=236: FD E2 +memory_line_id=237: FD E2 +memory_line_id=238: FD E2 +memory_line_id=239: FD E2 +memory_line_id=240: FD E2 +memory_line_id=241: FD E2 +memory_line_id=242: FD E2 +memory_line_id=243: FD E2 +memory_line_id=244: FD E2 +memory_line_id=245: FD E2 +memory_line_id=246: FD E2 +memory_line_id=247: FD E2 +memory_line_id=248: FD E2 +memory_line_id=249: FD E2 +memory_line_id=250: FD E2 +memory_line_id=251: FD E2 +memory_line_id=252: FD E2 +memory_line_id=253: FD E2 +memory_line_id=254: FD E2 +memory_line_id=255: 00 01 +*/ Index: openverifla_2.3.b/java/capture_spi_slave_vhdl_20180824_1736.v =================================================================== --- openverifla_2.3.b/java/capture_spi_slave_vhdl_20180824_1736.v (nonexistent) +++ openverifla_2.3.b/java/capture_spi_slave_vhdl_20180824_1736.v (revision 42) @@ -0,0 +1,1322 @@ +`timescale 1ns / 10ps + +module capture_20180824_1736_35(clk_of_verifla, la_trigger_matched, SCK, SSEL, MOSI, MISO, bitcnt_0, byte_received, byte_data_sent_10, memory_line_id); + +output clk_of_verifla; +output la_trigger_matched; +output [64:0] memory_line_id; +output SCK; +output SSEL; +output MOSI; +output MISO; +output bitcnt_0; +output byte_received; +output [1:0] byte_data_sent_10; +reg SCK; +reg SSEL; +reg MOSI; +reg MISO; +reg bitcnt_0; +reg byte_received; +reg [1:0] byte_data_sent_10; +reg [64:0] memory_line_id; +reg la_trigger_matched; +reg clk_of_verifla; + +parameter PERIOD = 20; +initial // Clock process for clk_of_verifla +begin + forever + begin + clk_of_verifla = 1'b0; + #(10); clk_of_verifla = 1'b1; + #(10); + end +end + +initial begin +#(10); +la_trigger_matched = 0; +memory_line_id=7; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000010; +#5060; +// ------------- Current Time: 5070*(1ns) +memory_line_id=0; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000010; +#5060; +// ------------- Current Time: 10130*(1ns) +memory_line_id=1; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000010; +#5060; +// ------------- Current Time: 15190*(1ns) +memory_line_id=2; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000010; +#5060; +// ------------- Current Time: 20250*(1ns) +memory_line_id=3; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000010; +#5060; +// ------------- Current Time: 25310*(1ns) +memory_line_id=4; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000010; +#5060; +// ------------- Current Time: 30370*(1ns) +memory_line_id=5; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000010; +#5060; +// ------------- Current Time: 35430*(1ns) +memory_line_id=6; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000010; +#4800; +// ------------- Current Time: 40230*(1ns) +memory_line_id=8; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000000; +la_trigger_matched = 1; +#5060; +// ------------- Current Time: 45290*(1ns) +memory_line_id=9; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000000; +#5060; +// ------------- Current Time: 50350*(1ns) +memory_line_id=10; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000000; +#3640; +// ------------- Current Time: 53990*(1ns) +memory_line_id=11; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000100; +#500; +// ------------- Current Time: 54490*(1ns) +memory_line_id=12; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000101; +#60; +// ------------- Current Time: 54550*(1ns) +memory_line_id=13; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010101; +#440; +// ------------- Current Time: 54990*(1ns) +memory_line_id=14; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010000; +#500; +// ------------- Current Time: 55490*(1ns) +memory_line_id=15; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010001; +#60; +// ------------- Current Time: 55550*(1ns) +memory_line_id=16; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000001; +#440; +// ------------- Current Time: 55990*(1ns) +memory_line_id=17; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000000; +#500; +// ------------- Current Time: 56490*(1ns) +memory_line_id=18; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000001; +#60; +// ------------- Current Time: 56550*(1ns) +memory_line_id=19; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010001; +#440; +// ------------- Current Time: 56990*(1ns) +memory_line_id=20; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010100; +#500; +// ------------- Current Time: 57490*(1ns) +memory_line_id=21; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010101; +#60; +// ------------- Current Time: 57550*(1ns) +memory_line_id=22; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000101; +#440; +// ------------- Current Time: 57990*(1ns) +memory_line_id=23; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000100; +#500; +// ------------- Current Time: 58490*(1ns) +memory_line_id=24; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000101; +#60; +// ------------- Current Time: 58550*(1ns) +memory_line_id=25; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010101; +#440; +// ------------- Current Time: 58990*(1ns) +memory_line_id=26; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010100; +#500; +// ------------- Current Time: 59490*(1ns) +memory_line_id=27; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010101; +#60; +// ------------- Current Time: 59550*(1ns) +memory_line_id=28; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000101; +#440; +// ------------- Current Time: 59990*(1ns) +memory_line_id=29; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000100; +#500; +// ------------- Current Time: 60490*(1ns) +memory_line_id=30; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000101; +#60; +// ------------- Current Time: 60550*(1ns) +memory_line_id=31; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010101; +#440; +// ------------- Current Time: 60990*(1ns) +memory_line_id=32; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010100; +#500; +// ------------- Current Time: 61490*(1ns) +memory_line_id=33; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010101; +#60; +// ------------- Current Time: 61550*(1ns) +memory_line_id=34; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00100101; +#440; +// ------------- Current Time: 61990*(1ns) +memory_line_id=35; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00100000; +#60; +// ------------- Current Time: 62050*(1ns) +memory_line_id=36; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 67110*(1ns) +memory_line_id=37; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 72170*(1ns) +memory_line_id=38; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 77230*(1ns) +memory_line_id=39; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 82290*(1ns) +memory_line_id=40; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 87350*(1ns) +memory_line_id=41; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 92410*(1ns) +memory_line_id=42; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 97470*(1ns) +memory_line_id=43; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 102530*(1ns) +memory_line_id=44; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 107590*(1ns) +memory_line_id=45; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 112650*(1ns) +memory_line_id=46; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 117710*(1ns) +memory_line_id=47; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 122770*(1ns) +memory_line_id=48; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 127830*(1ns) +memory_line_id=49; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 132890*(1ns) +memory_line_id=50; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 137950*(1ns) +memory_line_id=51; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 143010*(1ns) +memory_line_id=52; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 148070*(1ns) +memory_line_id=53; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 153130*(1ns) +memory_line_id=54; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 158190*(1ns) +memory_line_id=55; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 163250*(1ns) +memory_line_id=56; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 168310*(1ns) +memory_line_id=57; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 173370*(1ns) +memory_line_id=58; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 178430*(1ns) +memory_line_id=59; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#860; +// ------------- Current Time: 179290*(1ns) +memory_line_id=60; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 184350*(1ns) +memory_line_id=61; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 189410*(1ns) +memory_line_id=62; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#580; +// ------------- Current Time: 189990*(1ns) +memory_line_id=63; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#60; +// ------------- Current Time: 190050*(1ns) +memory_line_id=64; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b01100000; +#5060; +// ------------- Current Time: 195110*(1ns) +memory_line_id=65; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b01100000; +#2500; +// ------------- Current Time: 197610*(1ns) +memory_line_id=66; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b01100001; +#60; +// ------------- Current Time: 197670*(1ns) +memory_line_id=67; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b01010001; +#440; +// ------------- Current Time: 198110*(1ns) +memory_line_id=68; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b01010000; +#60; +// ------------- Current Time: 198170*(1ns) +memory_line_id=69; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b10010000; +#440; +// ------------- Current Time: 198610*(1ns) +memory_line_id=70; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b10010001; +#60; +// ------------- Current Time: 198670*(1ns) +memory_line_id=71; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b10000001; +#440; +// ------------- Current Time: 199110*(1ns) +memory_line_id=72; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b10000000; +#60; +// ------------- Current Time: 199170*(1ns) +memory_line_id=73; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000000; +#440; +// ------------- Current Time: 199610*(1ns) +memory_line_id=74; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000001; +#60; +// ------------- Current Time: 199670*(1ns) +memory_line_id=75; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010001; +#440; +// ------------- Current Time: 200110*(1ns) +memory_line_id=76; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010000; +#500; +// ------------- Current Time: 200610*(1ns) +memory_line_id=77; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010001; +#60; +// ------------- Current Time: 200670*(1ns) +memory_line_id=78; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000001; +#440; +// ------------- Current Time: 201110*(1ns) +memory_line_id=79; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000100; +#500; +// ------------- Current Time: 201610*(1ns) +memory_line_id=80; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000101; +#60; +// ------------- Current Time: 201670*(1ns) +memory_line_id=81; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010101; +#440; +// ------------- Current Time: 202110*(1ns) +memory_line_id=82; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010000; +#500; +// ------------- Current Time: 202610*(1ns) +memory_line_id=83; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010001; +#60; +// ------------- Current Time: 202670*(1ns) +memory_line_id=84; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000001; +#440; +// ------------- Current Time: 203110*(1ns) +memory_line_id=85; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000100; +#500; +// ------------- Current Time: 203610*(1ns) +memory_line_id=86; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000101; +#60; +// ------------- Current Time: 203670*(1ns) +memory_line_id=87; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010101; +#440; +// ------------- Current Time: 204110*(1ns) +memory_line_id=88; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010100; +#60; +// ------------- Current Time: 204170*(1ns) +memory_line_id=89; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00011100; +#440; +// ------------- Current Time: 204610*(1ns) +memory_line_id=90; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00011101; +#60; +// ------------- Current Time: 204670*(1ns) +memory_line_id=91; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00101101; +#440; +// ------------- Current Time: 205110*(1ns) +memory_line_id=92; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00101000; +#60; +// ------------- Current Time: 205170*(1ns) +memory_line_id=93; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#1440; +// ------------- Current Time: 206610*(1ns) +memory_line_id=94; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100001; +#60; +// ------------- Current Time: 206670*(1ns) +memory_line_id=95; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11010001; +#440; +// ------------- Current Time: 207110*(1ns) +memory_line_id=96; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11010000; +#60; +// ------------- Current Time: 207170*(1ns) +memory_line_id=97; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b10010000; +#440; +// ------------- Current Time: 207610*(1ns) +memory_line_id=98; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b10010001; +#60; +// ------------- Current Time: 207670*(1ns) +memory_line_id=99; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b10000001; +#440; +// ------------- Current Time: 208110*(1ns) +memory_line_id=100; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b10000000; +#60; +// ------------- Current Time: 208170*(1ns) +memory_line_id=101; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000000; +#440; +// ------------- Current Time: 208610*(1ns) +memory_line_id=102; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000001; +#60; +// ------------- Current Time: 208670*(1ns) +memory_line_id=103; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010001; +#440; +// ------------- Current Time: 209110*(1ns) +memory_line_id=104; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010000; +#500; +// ------------- Current Time: 209610*(1ns) +memory_line_id=105; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010001; +#60; +// ------------- Current Time: 209670*(1ns) +memory_line_id=106; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000001; +#440; +// ------------- Current Time: 210110*(1ns) +memory_line_id=107; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000000; +#500; +// ------------- Current Time: 210610*(1ns) +memory_line_id=108; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000001; +#60; +// ------------- Current Time: 210670*(1ns) +memory_line_id=109; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010001; +#440; +// ------------- Current Time: 211110*(1ns) +memory_line_id=110; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010000; +#500; +// ------------- Current Time: 211610*(1ns) +memory_line_id=111; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010001; +#60; +// ------------- Current Time: 211670*(1ns) +memory_line_id=112; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000001; +#440; +// ------------- Current Time: 212110*(1ns) +memory_line_id=113; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000100; +#60; +// ------------- Current Time: 212170*(1ns) +memory_line_id=114; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00001100; +#440; +// ------------- Current Time: 212610*(1ns) +memory_line_id=115; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00001101; +#60; +// ------------- Current Time: 212670*(1ns) +memory_line_id=116; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00011101; +#440; +// ------------- Current Time: 213110*(1ns) +memory_line_id=117; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00011000; +#500; +// ------------- Current Time: 213610*(1ns) +memory_line_id=118; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00011001; +#60; +// ------------- Current Time: 213670*(1ns) +memory_line_id=119; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00101001; +#440; +// ------------- Current Time: 214110*(1ns) +memory_line_id=120; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00101000; +#60; +// ------------- Current Time: 214170*(1ns) +memory_line_id=121; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#940; +// ------------- Current Time: 215110*(1ns) +memory_line_id=122; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100100; +#500; +// ------------- Current Time: 215610*(1ns) +memory_line_id=123; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100101; +#60; +// ------------- Current Time: 215670*(1ns) +memory_line_id=124; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11010101; +#440; +// ------------- Current Time: 216110*(1ns) +memory_line_id=125; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11010000; +#60; +// ------------- Current Time: 216170*(1ns) +memory_line_id=126; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b10010000; +#440; +// ------------- Current Time: 216610*(1ns) +memory_line_id=127; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b10010001; +#60; +// ------------- Current Time: 216670*(1ns) +memory_line_id=128; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b10000001; +#440; +// ------------- Current Time: 217110*(1ns) +memory_line_id=129; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b10000100; +#60; +// ------------- Current Time: 217170*(1ns) +memory_line_id=130; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000100; +#440; +// ------------- Current Time: 217610*(1ns) +memory_line_id=131; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000101; +#60; +// ------------- Current Time: 217670*(1ns) +memory_line_id=132; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010101; +#440; +// ------------- Current Time: 218110*(1ns) +memory_line_id=133; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010100; +#500; +// ------------- Current Time: 218610*(1ns) +memory_line_id=134; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010101; +#60; +// ------------- Current Time: 218670*(1ns) +memory_line_id=135; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000101; +#440; +// ------------- Current Time: 219110*(1ns) +memory_line_id=136; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000000; +#500; +// ------------- Current Time: 219610*(1ns) +memory_line_id=137; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000001; +#60; +// ------------- Current Time: 219670*(1ns) +memory_line_id=138; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010001; +#440; +// ------------- Current Time: 220110*(1ns) +memory_line_id=139; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010100; +#500; +// ------------- Current Time: 220610*(1ns) +memory_line_id=140; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00010101; +#60; +// ------------- Current Time: 220670*(1ns) +memory_line_id=141; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000101; +#440; +// ------------- Current Time: 221110*(1ns) +memory_line_id=142; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00000000; +#60; +// ------------- Current Time: 221170*(1ns) +memory_line_id=143; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00001000; +#440; +// ------------- Current Time: 221610*(1ns) +memory_line_id=144; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00001001; +#60; +// ------------- Current Time: 221670*(1ns) +memory_line_id=145; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00011001; +#440; +// ------------- Current Time: 222110*(1ns) +memory_line_id=146; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00011100; +#500; +// ------------- Current Time: 222610*(1ns) +memory_line_id=147; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00011101; +#60; +// ------------- Current Time: 222670*(1ns) +memory_line_id=148; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00101101; +#440; +// ------------- Current Time: 223110*(1ns) +memory_line_id=149; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b00101000; +#60; +// ------------- Current Time: 223170*(1ns) +memory_line_id=150; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 228230*(1ns) +memory_line_id=151; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 233290*(1ns) +memory_line_id=152; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 238350*(1ns) +memory_line_id=153; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 243410*(1ns) +memory_line_id=154; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 248470*(1ns) +memory_line_id=155; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 253530*(1ns) +memory_line_id=156; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 258590*(1ns) +memory_line_id=157; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#5060; +// ------------- Current Time: 263650*(1ns) +memory_line_id=158; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100000; +#4220; +// ------------- Current Time: 267870*(1ns) +memory_line_id=159; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 272930*(1ns) +memory_line_id=160; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 277990*(1ns) +memory_line_id=161; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 283050*(1ns) +memory_line_id=162; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 288110*(1ns) +memory_line_id=163; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 293170*(1ns) +memory_line_id=164; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 298230*(1ns) +memory_line_id=165; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 303290*(1ns) +memory_line_id=166; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 308350*(1ns) +memory_line_id=167; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 313410*(1ns) +memory_line_id=168; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 318470*(1ns) +memory_line_id=169; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 323530*(1ns) +memory_line_id=170; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 328590*(1ns) +memory_line_id=171; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 333650*(1ns) +memory_line_id=172; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 338710*(1ns) +memory_line_id=173; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 343770*(1ns) +memory_line_id=174; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 348830*(1ns) +memory_line_id=175; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 353890*(1ns) +memory_line_id=176; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 358950*(1ns) +memory_line_id=177; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 364010*(1ns) +memory_line_id=178; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 369070*(1ns) +memory_line_id=179; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 374130*(1ns) +memory_line_id=180; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 379190*(1ns) +memory_line_id=181; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 384250*(1ns) +memory_line_id=182; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 389310*(1ns) +memory_line_id=183; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 394370*(1ns) +memory_line_id=184; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 399430*(1ns) +memory_line_id=185; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 404490*(1ns) +memory_line_id=186; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 409550*(1ns) +memory_line_id=187; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 414610*(1ns) +memory_line_id=188; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 419670*(1ns) +memory_line_id=189; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 424730*(1ns) +memory_line_id=190; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 429790*(1ns) +memory_line_id=191; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 434850*(1ns) +memory_line_id=192; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 439910*(1ns) +memory_line_id=193; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 444970*(1ns) +memory_line_id=194; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 450030*(1ns) +memory_line_id=195; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 455090*(1ns) +memory_line_id=196; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 460150*(1ns) +memory_line_id=197; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 465210*(1ns) +memory_line_id=198; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 470270*(1ns) +memory_line_id=199; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 475330*(1ns) +memory_line_id=200; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 480390*(1ns) +memory_line_id=201; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 485450*(1ns) +memory_line_id=202; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 490510*(1ns) +memory_line_id=203; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 495570*(1ns) +memory_line_id=204; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 500630*(1ns) +memory_line_id=205; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 505690*(1ns) +memory_line_id=206; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 510750*(1ns) +memory_line_id=207; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 515810*(1ns) +memory_line_id=208; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 520870*(1ns) +memory_line_id=209; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 525930*(1ns) +memory_line_id=210; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 530990*(1ns) +memory_line_id=211; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 536050*(1ns) +memory_line_id=212; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 541110*(1ns) +memory_line_id=213; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 546170*(1ns) +memory_line_id=214; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 551230*(1ns) +memory_line_id=215; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 556290*(1ns) +memory_line_id=216; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 561350*(1ns) +memory_line_id=217; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 566410*(1ns) +memory_line_id=218; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 571470*(1ns) +memory_line_id=219; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 576530*(1ns) +memory_line_id=220; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 581590*(1ns) +memory_line_id=221; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 586650*(1ns) +memory_line_id=222; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 591710*(1ns) +memory_line_id=223; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 596770*(1ns) +memory_line_id=224; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 601830*(1ns) +memory_line_id=225; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 606890*(1ns) +memory_line_id=226; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 611950*(1ns) +memory_line_id=227; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 617010*(1ns) +memory_line_id=228; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 622070*(1ns) +memory_line_id=229; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 627130*(1ns) +memory_line_id=230; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 632190*(1ns) +memory_line_id=231; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 637250*(1ns) +memory_line_id=232; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 642310*(1ns) +memory_line_id=233; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 647370*(1ns) +memory_line_id=234; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 652430*(1ns) +memory_line_id=235; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 657490*(1ns) +memory_line_id=236; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 662550*(1ns) +memory_line_id=237; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 667610*(1ns) +memory_line_id=238; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 672670*(1ns) +memory_line_id=239; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 677730*(1ns) +memory_line_id=240; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 682790*(1ns) +memory_line_id=241; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 687850*(1ns) +memory_line_id=242; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 692910*(1ns) +memory_line_id=243; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 697970*(1ns) +memory_line_id=244; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 703030*(1ns) +memory_line_id=245; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 708090*(1ns) +memory_line_id=246; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 713150*(1ns) +memory_line_id=247; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 718210*(1ns) +memory_line_id=248; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 723270*(1ns) +memory_line_id=249; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 728330*(1ns) +memory_line_id=250; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 733390*(1ns) +memory_line_id=251; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 738450*(1ns) +memory_line_id=252; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 743510*(1ns) +memory_line_id=253; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 748570*(1ns) +memory_line_id=254; +{byte_data_sent_10,byte_received,bitcnt_0,MISO,MOSI,SSEL,SCK} = 8'b11100010; +#5060; +// ------------- Current Time: 753630*(1ns) +$stop; +end +endmodule +/* +ORIGINAL CAPTURE DUMP +memory_line_id=0: FD 02 +memory_line_id=1: FD 02 +memory_line_id=2: FD 02 +memory_line_id=3: FD 02 +memory_line_id=4: FD 02 +memory_line_id=5: FD 02 +memory_line_id=6: F0 02 +memory_line_id=7: FD 02 +memory_line_id=8: FD 00 +memory_line_id=9: FD 00 +memory_line_id=10: B6 00 +memory_line_id=11: 19 04 +memory_line_id=12: 03 05 +memory_line_id=13: 16 15 +memory_line_id=14: 19 10 +memory_line_id=15: 03 11 +memory_line_id=16: 16 01 +memory_line_id=17: 19 00 +memory_line_id=18: 03 01 +memory_line_id=19: 16 11 +memory_line_id=20: 19 14 +memory_line_id=21: 03 15 +memory_line_id=22: 16 05 +memory_line_id=23: 19 04 +memory_line_id=24: 03 05 +memory_line_id=25: 16 15 +memory_line_id=26: 19 14 +memory_line_id=27: 03 15 +memory_line_id=28: 16 05 +memory_line_id=29: 19 04 +memory_line_id=30: 03 05 +memory_line_id=31: 16 15 +memory_line_id=32: 19 14 +memory_line_id=33: 03 15 +memory_line_id=34: 16 25 +memory_line_id=35: 03 20 +memory_line_id=36: FD E0 +memory_line_id=37: FD E0 +memory_line_id=38: FD E0 +memory_line_id=39: FD E0 +memory_line_id=40: FD E0 +memory_line_id=41: FD E0 +memory_line_id=42: FD E0 +memory_line_id=43: FD E0 +memory_line_id=44: FD E0 +memory_line_id=45: FD E0 +memory_line_id=46: FD E0 +memory_line_id=47: FD E0 +memory_line_id=48: FD E0 +memory_line_id=49: FD E0 +memory_line_id=50: FD E0 +memory_line_id=51: FD E0 +memory_line_id=52: FD E0 +memory_line_id=53: FD E0 +memory_line_id=54: FD E0 +memory_line_id=55: FD E0 +memory_line_id=56: FD E0 +memory_line_id=57: FD E0 +memory_line_id=58: FD E0 +memory_line_id=59: 2B E0 +memory_line_id=60: FD E2 +memory_line_id=61: FD E2 +memory_line_id=62: 1D E2 +memory_line_id=63: 03 E0 +memory_line_id=64: FD 60 +memory_line_id=65: 7D 60 +memory_line_id=66: 03 61 +memory_line_id=67: 16 51 +memory_line_id=68: 03 50 +memory_line_id=69: 16 90 +memory_line_id=70: 03 91 +memory_line_id=71: 16 81 +memory_line_id=72: 03 80 +memory_line_id=73: 16 00 +memory_line_id=74: 03 01 +memory_line_id=75: 16 11 +memory_line_id=76: 19 10 +memory_line_id=77: 03 11 +memory_line_id=78: 16 01 +memory_line_id=79: 19 04 +memory_line_id=80: 03 05 +memory_line_id=81: 16 15 +memory_line_id=82: 19 10 +memory_line_id=83: 03 11 +memory_line_id=84: 16 01 +memory_line_id=85: 19 04 +memory_line_id=86: 03 05 +memory_line_id=87: 16 15 +memory_line_id=88: 03 14 +memory_line_id=89: 16 1C +memory_line_id=90: 03 1D +memory_line_id=91: 16 2D +memory_line_id=92: 03 28 +memory_line_id=93: 48 E0 +memory_line_id=94: 03 E1 +memory_line_id=95: 16 D1 +memory_line_id=96: 03 D0 +memory_line_id=97: 16 90 +memory_line_id=98: 03 91 +memory_line_id=99: 16 81 +memory_line_id=100: 03 80 +memory_line_id=101: 16 00 +memory_line_id=102: 03 01 +memory_line_id=103: 16 11 +memory_line_id=104: 19 10 +memory_line_id=105: 03 11 +memory_line_id=106: 16 01 +memory_line_id=107: 19 00 +memory_line_id=108: 03 01 +memory_line_id=109: 16 11 +memory_line_id=110: 19 10 +memory_line_id=111: 03 11 +memory_line_id=112: 16 01 +memory_line_id=113: 03 04 +memory_line_id=114: 16 0C +memory_line_id=115: 03 0D +memory_line_id=116: 16 1D +memory_line_id=117: 19 18 +memory_line_id=118: 03 19 +memory_line_id=119: 16 29 +memory_line_id=120: 03 28 +memory_line_id=121: 2F E0 +memory_line_id=122: 19 E4 +memory_line_id=123: 03 E5 +memory_line_id=124: 16 D5 +memory_line_id=125: 03 D0 +memory_line_id=126: 16 90 +memory_line_id=127: 03 91 +memory_line_id=128: 16 81 +memory_line_id=129: 03 84 +memory_line_id=130: 16 04 +memory_line_id=131: 03 05 +memory_line_id=132: 16 15 +memory_line_id=133: 19 14 +memory_line_id=134: 03 15 +memory_line_id=135: 16 05 +memory_line_id=136: 19 00 +memory_line_id=137: 03 01 +memory_line_id=138: 16 11 +memory_line_id=139: 19 14 +memory_line_id=140: 03 15 +memory_line_id=141: 16 05 +memory_line_id=142: 03 00 +memory_line_id=143: 16 08 +memory_line_id=144: 03 09 +memory_line_id=145: 16 19 +memory_line_id=146: 19 1C +memory_line_id=147: 03 1D +memory_line_id=148: 16 2D +memory_line_id=149: 03 28 +memory_line_id=150: FD E0 +memory_line_id=151: FD E0 +memory_line_id=152: FD E0 +memory_line_id=153: FD E0 +memory_line_id=154: FD E0 +memory_line_id=155: FD E0 +memory_line_id=156: FD E0 +memory_line_id=157: FD E0 +memory_line_id=158: D3 E0 +memory_line_id=159: FD E2 +memory_line_id=160: FD E2 +memory_line_id=161: FD E2 +memory_line_id=162: FD E2 +memory_line_id=163: FD E2 +memory_line_id=164: FD E2 +memory_line_id=165: FD E2 +memory_line_id=166: FD E2 +memory_line_id=167: FD E2 +memory_line_id=168: FD E2 +memory_line_id=169: FD E2 +memory_line_id=170: FD E2 +memory_line_id=171: FD E2 +memory_line_id=172: FD E2 +memory_line_id=173: FD E2 +memory_line_id=174: FD E2 +memory_line_id=175: FD E2 +memory_line_id=176: FD E2 +memory_line_id=177: FD E2 +memory_line_id=178: FD E2 +memory_line_id=179: FD E2 +memory_line_id=180: FD E2 +memory_line_id=181: FD E2 +memory_line_id=182: FD E2 +memory_line_id=183: FD E2 +memory_line_id=184: FD E2 +memory_line_id=185: FD E2 +memory_line_id=186: FD E2 +memory_line_id=187: FD E2 +memory_line_id=188: FD E2 +memory_line_id=189: FD E2 +memory_line_id=190: FD E2 +memory_line_id=191: FD E2 +memory_line_id=192: FD E2 +memory_line_id=193: FD E2 +memory_line_id=194: FD E2 +memory_line_id=195: FD E2 +memory_line_id=196: FD E2 +memory_line_id=197: FD E2 +memory_line_id=198: FD E2 +memory_line_id=199: FD E2 +memory_line_id=200: FD E2 +memory_line_id=201: FD E2 +memory_line_id=202: FD E2 +memory_line_id=203: FD E2 +memory_line_id=204: FD E2 +memory_line_id=205: FD E2 +memory_line_id=206: FD E2 +memory_line_id=207: FD E2 +memory_line_id=208: FD E2 +memory_line_id=209: FD E2 +memory_line_id=210: FD E2 +memory_line_id=211: FD E2 +memory_line_id=212: FD E2 +memory_line_id=213: FD E2 +memory_line_id=214: FD E2 +memory_line_id=215: FD E2 +memory_line_id=216: FD E2 +memory_line_id=217: FD E2 +memory_line_id=218: FD E2 +memory_line_id=219: FD E2 +memory_line_id=220: FD E2 +memory_line_id=221: FD E2 +memory_line_id=222: FD E2 +memory_line_id=223: FD E2 +memory_line_id=224: FD E2 +memory_line_id=225: FD E2 +memory_line_id=226: FD E2 +memory_line_id=227: FD E2 +memory_line_id=228: FD E2 +memory_line_id=229: FD E2 +memory_line_id=230: FD E2 +memory_line_id=231: FD E2 +memory_line_id=232: FD E2 +memory_line_id=233: FD E2 +memory_line_id=234: FD E2 +memory_line_id=235: FD E2 +memory_line_id=236: FD E2 +memory_line_id=237: FD E2 +memory_line_id=238: FD E2 +memory_line_id=239: FD E2 +memory_line_id=240: FD E2 +memory_line_id=241: FD E2 +memory_line_id=242: FD E2 +memory_line_id=243: FD E2 +memory_line_id=244: FD E2 +memory_line_id=245: FD E2 +memory_line_id=246: FD E2 +memory_line_id=247: FD E2 +memory_line_id=248: FD E2 +memory_line_id=249: FD E2 +memory_line_id=250: FD E2 +memory_line_id=251: FD E2 +memory_line_id=252: FD E2 +memory_line_id=253: FD E2 +memory_line_id=254: FD E2 +memory_line_id=255: 00 06 +*/ Index: openverifla_2.3.b/java/compile.bat =================================================================== --- openverifla_2.3.b/java/compile.bat (nonexistent) +++ openverifla_2.3.b/java/compile.bat (revision 42) @@ -0,0 +1,2 @@ +set CLASSPATH=jssc.jar;. +javac *java Index: openverifla_2.3.b/java/compile.sh =================================================================== --- openverifla_2.3.b/java/compile.sh (nonexistent) +++ openverifla_2.3.b/java/compile.sh (revision 42) @@ -0,0 +1,2 @@ +export CLASSPATH="jssc.jar:." +javac *java

openverifla_2.3.b/java/compile.sh Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/java/jssc.jar =================================================================== Cannot display: file marked as a binary type. svn:mime-type = application/octet-stream Index: openverifla_2.3.b/java/jssc.jar =================================================================== --- openverifla_2.3.b/java/jssc.jar (nonexistent) +++ openverifla_2.3.b/java/jssc.jar (revision 42)

openverifla_2.3.b/java/jssc.jar Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Added: svn:mime-type ## -0,0 +1 ## +application/octet-stream \ No newline at end of property Index: openverifla_2.3.b/java/run.bat =================================================================== --- openverifla_2.3.b/java/run.bat (nonexistent) +++ openverifla_2.3.b/java/run.bat (revision 42) @@ -0,0 +1,2 @@ +set CLASSPATH=jssc.jar;. +java %1 %2 %3 %4 %5 Index: openverifla_2.3.b/java/run.sh =================================================================== --- openverifla_2.3.b/java/run.sh (nonexistent) +++ openverifla_2.3.b/java/run.sh (revision 42) @@ -0,0 +1,3 @@ +export CLASSPATH="jssc.jar:." +echo "CLASSPATH=$CLASSPATH" +java $1 $2 $3 $4 $5

openverifla_2.3.b/java/run.sh Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/java/verifla_properties_keyboard.txt =================================================================== --- openverifla_2.3.b/java/verifla_properties_keyboard.txt (nonexistent) +++ openverifla_2.3.b/java/verifla_properties_keyboard.txt (revision 42) @@ -0,0 +1,46 @@ +# VeriFLA Logic Analyzer Project File + +# Serial port +# On Windows this would be COM5 or similar +#/dev/ttyUSB0 +LA.portName=/dev/ttyUSB0 +LA.baudRate=115200 + +# Memory +# ==== +LA.memWords=64 +# Data input width and indentical samples bits (clones) must be multiple of 8. +LA.dataWordLenBits=16 +LA.clonesWordLenBits=16 +LA.triggerMatchMemAddr=8 + + +# Generated verilog +# ==== +LA.timescaleUnit=1ns +LA.timescalePrecision=10ps +# clockPeriod expressed in [timescaleUnit] +LA.clockPeriod=20 + +# User data signals +LA.totalSignals=16 +# Big endian (1) or Little endian (0). +LA.signalGroups=4 +# Group 0 +LA.groupName.0=KBD_KEY +LA.groupSize.0=8 +LA.groupEndian.0=0 +# Group 1 +LA.groupName.1=kbd_clk_line +LA.groupSize.1=1 +LA.groupEndian.1=0 +# Group 2 +LA.groupName.2=kbd_data_line +LA.groupSize.2=1 +LA.groupEndian.2=0 +# Group 3 +LA.groupName.3=not_used +LA.groupSize.3=6 +LA.groupEndian.3=0 + +

openverifla_2.3.b/java/verifla_properties_keyboard.txt Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/java/verifla_properties_spi_slave.txt =================================================================== --- openverifla_2.3.b/java/verifla_properties_spi_slave.txt (nonexistent) +++ openverifla_2.3.b/java/verifla_properties_spi_slave.txt (revision 42) @@ -0,0 +1,61 @@ +# VeriFLA Logic Analyzer Project File + +# Serial port +# On Windows this would be COM5 or similar +#/dev/ttyUSB0 +LA.portName=/dev/ttyUSB0 +LA.baudRate=115200 + +# Memory +# ==== +LA.memWords=256 +# Data input width and indentical samples bits (clones) must be multiple of 8. +LA.dataWordLenBits=8 +LA.clonesWordLenBits=8 +LA.triggerMatchMemAddr=8 + + +# Generated verilog +# ==== +LA.timescaleUnit=1ns +LA.timescalePrecision=10ps +# clockPeriod expressed in [timescaleUnit] +LA.clockPeriod=20 + + +# User data signals +LA.totalSignals=8 +# Big endian (1) or Little endian (0). +LA.signalGroups=7 +{byte_data_sent[1:0], byte_received, bitcnt[0], MISO, MOSI, SSEL, SCK} +# Group 0 +LA.groupName.0=SCK +LA.groupSize.0=1 +LA.groupEndian.0=0 +# Group 1 +LA.groupName.1=SSEL +LA.groupSize.1=1 +LA.groupEndian.1=0 +# Group 2 +LA.groupName.2=MOSI +LA.groupSize.2=1 +LA.groupEndian.2=0 +# Group 3 +LA.groupName.3=MISO +LA.groupSize.3=1 +LA.groupEndian.3=0 +# Group 4 +LA.groupName.4=bitcnt_0 +LA.groupSize.4=1 +LA.groupEndian.4=0 +# Group 5 +LA.groupName.5=byte_received +LA.groupSize.5=1 +LA.groupEndian.5=0 +# Group 6 +LA.groupName.6=byte_data_sent_10 +LA.groupSize.6=2 +LA.groupEndian.6=0 + + +

openverifla_2.3.b/java/verifla_properties_spi_slave.txt Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/java/verifla_properties_xenomai_spi.txt =================================================================== --- openverifla_2.3.b/java/verifla_properties_xenomai_spi.txt (nonexistent) +++ openverifla_2.3.b/java/verifla_properties_xenomai_spi.txt (revision 42) @@ -0,0 +1,56 @@ +# VeriFLA Logic Analyzer Project File + +# Serial port +# On Windows this would be COM5 or similar +#/dev/ttyUSB0 +LA.portName=/dev/ttyUSB0 +LA.baudRate=115200 + +# Memory +# ==== +LA.memWords=128 +# Data input width and indentical samples bits (clones) must be multiple of 8. +LA.dataWordLenBits=8 +LA.clonesWordLenBits=8 +LA.triggerMatchMemAddr=8 + + +# Generated verilog +# ==== +LA.timescaleUnit=1ns +LA.timescalePrecision=10ps +# clockPeriod expressed in [timescaleUnit] +LA.clockPeriod=20 + +# User data signals +LA.totalSignals=8 +# Big endian (1) or Little endian (0). +LA.signalGroups=7 +# Group 0 +LA.groupName.0=MISO +LA.groupSize.0=1 +LA.groupEndian.0=0 +# Group 1 +LA.groupName.1=MOSI +LA.groupSize.1=1 +LA.groupEndian.1=0 +# Group 2 +LA.groupName.2=SSEL +LA.groupSize.2=1 +LA.groupEndian.2=0 +# Group 3 +LA.groupName.3=SCK +LA.groupSize.3=1 +LA.groupEndian.3=0 +# Group 4 +LA.groupName.4=interrupt_ack +LA.groupSize.4=1 +LA.groupEndian.4=0 +# Group 5 +LA.groupName.5=spi_output_valid_sing +LA.groupSize.5=1 +LA.groupEndian.5=0 +# Group 6 +LA.groupName.6=int_spi_latency_cnt_9_8 +LA.groupSize.6=2 +LA.groupEndian.6=0

openverifla_2.3.b/java/verifla_properties_xenomai_spi.txt Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/verilog/keyboard-driver/keyboard.ucf =================================================================== --- openverifla_2.3.b/verilog/keyboard-driver/keyboard.ucf (nonexistent) +++ openverifla_2.3.b/verilog/keyboard-driver/keyboard.ucf (revision 42) @@ -0,0 +1,28 @@ +#NET "switch[0]" LOC="L13"; +#NET "switch[1]" LOC="L14"; +#NET "switch[2]" LOC="H18"; +#NET "switch[3]" LOC="N17"; + +NET "clk" LOC = "C9"; +NET "reset" LOC = "L13"; + +NET "kbd_data_line" LOC = "G13"; +NET "kbd_clk" LOC = "G14"; + +#NET "J1_0" LOC = "N15"; +#NET "J1_1" LOC = "N14"; +#NET "J1_2" LOC = "E15"; +#NET "J1_3" LOC = "V7"; + +#leds +NET "kbd_key[0]" LOC="D4"; +NET "kbd_key[1]" LOC="C3"; +NET "kbd_key[2]" LOC="D6"; +NET "kbd_key[3]" LOC="E6"; +NET "kbd_key[4]" LOC="D13"; +NET "kbd_key[5]" LOC="A7"; +NET "kbd_key[6]" LOC="G9"; +NET "kbd_key[7]" LOC="A8"; + +NET "uart_REC_dataH" LOC = "R13"; +NET "uart_XMIT_dataH" LOC = "P13";

openverifla_2.3.b/verilog/keyboard-driver/keyboard.ucf Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/verilog/keyboard-driver/keyboard.v =================================================================== --- openverifla_2.3.b/verilog/keyboard-driver/keyboard.v (nonexistent) +++ openverifla_2.3.b/verilog/keyboard-driver/keyboard.v (revision 42) @@ -0,0 +1,81 @@ +module keyboard(kbd_data_line, kbd_clk, kbd_key, + clk, reset, + //top_of_verifla transceiver + uart_XMIT_dataH, uart_REC_dataH +); + + +input clk, reset; +//top_of_verifla transceiver +input uart_REC_dataH; +output uart_XMIT_dataH; + +// App. specific +input kbd_data_line, kbd_clk; +output [7:0] kbd_key; // register for storing keyboard data + +reg [7:0] kbd_key; +reg [3:0] i; // initial value needs to be not equal to 0 through 7. set initial to 10. + +wire negedge_kbd_clk; + + +// This is the keyboard driver logic (fsm). +always @ (posedge clk or posedge reset) +begin + if(reset) + begin + i=10; + kbd_key=8'h0; //{8'b00010010};//8'h0; + end + else begin + if(negedge_kbd_clk) + begin + if ((i >= 0) && (i <= 7)) + // If i is pointing to a bit of data let us keep it. + begin + kbd_key = {kbd_data_line, kbd_key[7:1]}; + i = i + 1; + end + else if ((i == 8) || (i == 9)) + // Otherwise if i is pointing to the parity bit or the stop bit let us ignore it. + begin + i = i + 1; + end + else // Else we have a start bit + begin + i = 0; + end + end + end +end + + +reg [2:0] kbd_clk_buf=3'b000; +always @ (posedge clk) kbd_clk_buf={kbd_clk_buf[1:0], kbd_clk}; +assign negedge_kbd_clk = kbd_clk_buf[2:1]==2'b10; + + +// Simple counter +reg [5:0] cnt=0; +always @(posedge clk or posedge reset) +begin + if(reset) + cnt = 0; + else + if(negedge_kbd_clk) + cnt = cnt+1; +end + +// VeriFLA +top_of_verifla verifla (.clk(clk), .rst_l(!reset), .sys_run(1'b1), + .data_in({cnt, kbd_data_line, kbd_clk, kbd_key}), + //{6'b0, kbd_data_line, kbd_clk, kbd_key}, + // Transceiver + .uart_XMIT_dataH(uart_XMIT_dataH), .uart_REC_dataH(uart_REC_dataH)); + +endmodule + +// Local Variables: +// verilog-library-directories:(".", "../verifla") +// End:

openverifla_2.3.b/verilog/keyboard-driver/keyboard.v Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/verilog/keyboard-driver/keyboard_driver_test.v =================================================================== --- openverifla_2.3.b/verilog/keyboard-driver/keyboard_driver_test.v (nonexistent) +++ openverifla_2.3.b/verilog/keyboard-driver/keyboard_driver_test.v (revision 42) @@ -0,0 +1,90 @@ +`timescale 1ns / 1ps +module keyboard_driver_test(kbd_key); + +`include "../verifla/common_internal_verifla.v" + +// This test module is wrote +// in the following scenario: the driver is on the FPGA and the keyboard +// is attached to the FPGA development board + +// Declaration +output [7:0] kbd_key; +wire [7:0] kbd_key; +// This signals must explicitly added to the simulation. +// For debugging purposes, also add the register named "i" from the keyboard driver +reg reset, clk; +reg kbd_clk, kbd_data_line; +wire uart_XMIT_dataH; +reg uart_REC_dataH=1; + +reg [64:0] i; + +keyboard kd (kbd_data_line, kbd_clk, kbd_key, + clk, reset, + //top_of_verifla transceiver + uart_XMIT_dataH, uart_REC_dataH +); + +always begin + clk = 0; + #5; + clk = 1; + #5; +end + +// Reset the driver by using the reset button of the FPGA board. +initial begin + $dumpfile("kbd.vcd"); + $dumpvars; + reset = 0; + #10; + reset = 1; + #10; + reset = 0; +end + +// Now, simulate the keyboard. +// Consider the keyboard clock period to be about 10 units. +initial begin + // At the begining, the line is idle for some periods. + kbd_clk=1; kbd_data_line=1; #2050; #2050; + + // When a key is pressed, the keyboard sends its scan code + // on the data line. For the 'a' key, the scan code is 1Ch=00011100b. + // The order is LSb first, so the bits are sent in the following order: 00111000. + // Simulate pressing the 'a' key. + // Send start bit. + kbd_clk=1; #250; kbd_data_line=0; #250; kbd_clk=0; #500; + // Send the scan code + kbd_clk=1; #250; kbd_data_line=0; #250; kbd_clk=0; #500; + kbd_clk=1; #250; kbd_data_line=0; #250; kbd_clk=0; #500; + kbd_clk=1; #250; kbd_data_line=1; #250; kbd_clk=0; #500; + kbd_clk=1; #250; kbd_data_line=1; #250; kbd_clk=0; #500; + kbd_clk=1; #250; kbd_data_line=1; #250; kbd_clk=0; #500; + kbd_clk=1; #250; kbd_data_line=0; #250; kbd_clk=0; #500; + kbd_clk=1; #250; kbd_data_line=0; #250; kbd_clk=0; #500; + kbd_clk=1; #250; kbd_data_line=0; #250; kbd_clk=0; #500; + // Send the parity bit which is '1' for the 'a' key. + kbd_clk=1; #250; kbd_data_line=1; #250; kbd_clk=0; #500; + // Send the stop bit. + kbd_clk=1; #250; kbd_data_line=1; #250; kbd_clk=0; #500; + // Put the line idle for two periods. + kbd_clk=1; kbd_data_line=1; #2050; #2050; + #1000; + // When the 'a' key - that is now pressed, + // will be released, then the keyboard will send F0h, 1Ch. + // We do not simulate this because the process is similar. + +`ifdef DEBUG_LA + //$display("value: %b", {{{(LA_IDENTICAL_SAMPLES_BITS-1){1'b0}}, 1'b1}, {LA_DATA_INPUT_WORDLEN_BITS{1'b0}}}); + for(i = 0; i <= LA_MEM_LAST_ADDR; i = i + 1) begin + //$display("i=%d m2[i]=%d m1[i]=%b", i, kd.verifla.mi.m2[i], kd.verifla.mi.m1[i]); + $display("%d %h %h %h %h", i, kd.verifla.mi.mem[i][31:24], kd.verifla.mi.mem[i][22:16], + kd.verifla.mi.mem[i][15:8], kd.verifla.mi.mem[i][7:0]); + end + //$display("m[%d]=%d", LA_MEM_LAST_ADDR, kd.verifla.mi.mem[LA_MEM_LAST_ADDR]); +`endif + $stop; +end + +endmodule

openverifla_2.3.b/verilog/keyboard-driver/keyboard_driver_test.v Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/verilog/verifla/baud_of_verifla.v =================================================================== --- openverifla_2.3.b/verilog/verifla/baud_of_verifla.v (nonexistent) +++ openverifla_2.3.b/verilog/verifla/baud_of_verifla.v (revision 42) @@ -0,0 +1,45 @@ + +module baud_of_verifla( + sys_clk, + sys_rst_l, + baud_clk_posedge + ); + + +`include "inc_of_verifla.v" + + +input sys_clk; +input sys_rst_l; +output baud_clk_posedge; +reg baud_clk; +reg baud_clk_posedge; + +reg [BAUD_COUNTER_SIZE-1:0] counter=0; //{BAUD_COUNTER_SIZE{1'b0}}; + +always @(posedge sys_clk or negedge sys_rst_l) +begin + if(~sys_rst_l) begin + baud_clk <= 0; + baud_clk_posedge <= 0; + counter <= 0; + end else if (counter < T2_div_T1_div_2) begin + counter <= counter + 1; + baud_clk <= baud_clk; + baud_clk_posedge <= 0; + end else begin + if(~baud_clk) // baud_clk will become 1 + baud_clk_posedge <= 1; + counter <= 0; + baud_clk <= ~baud_clk; + end +end + +/* +reg [2:0] baud_vec=3'b000; +always @(posedge clk) baud_vec = {baud_vec[1:0], baud_clk}; +wire baud_clk_posedge=(baud_vec[2:1]=2'b01; +wire baud_clk_negedge=(baud_vec[2:1]=2'b10; +*/ + +endmodule

openverifla_2.3.b/verilog/verifla/baud_of_verifla.v Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/verilog/verifla/common_internal_verifla.v =================================================================== --- openverifla_2.3.b/verilog/verifla/common_internal_verifla.v (nonexistent) +++ openverifla_2.3.b/verilog/verifla/common_internal_verifla.v (revision 42) @@ -0,0 +1,38 @@ + +// Data input width and indentical samples bits must be multiple of 8. +parameter LA_DATA_INPUT_WORDLEN_BITS=16; + +// Trigger +parameter LA_TRIGGER_VALUE={LA_DATA_INPUT_WORDLEN_BITS{1'b0}}, + LA_TRIGGER_MASK={{(LA_DATA_INPUT_WORDLEN_BITS - 10){1'b0}}, 2'b11, 8'h00}, + LA_TRACE_MASK={LA_DATA_INPUT_WORDLEN_BITS{1'b1}}; + +parameter LA_MEM_CLEAN_BEFORE_RUN=0; +parameter LA_IDENTICAL_SAMPLES_BITS=16; +parameter LA_MEM_WORDLEN_BITS=(LA_DATA_INPUT_WORDLEN_BITS+LA_IDENTICAL_SAMPLES_BITS); +parameter LA_MEM_WORDLEN_OCTETS=((LA_MEM_WORDLEN_BITS+7)/8); +parameter LA_MEM_ADDRESS_BITS=6; +parameter LA_MEM_FIRST_ADDR=0, + LA_MEM_LAST_ADDR=((1<> 3), + LA_MEM_LAST_ADDR_BEFORE_TRIGGER=(LA_TRIGGER_MATCH_MEM_ADDR-1); +parameter LA_MAX_SAMPLES_AFTER_TRIGGER_BITS=26, + LA_MAX_SAMPLES_AFTER_TRIGGER={1'b0, {(LA_MAX_SAMPLES_AFTER_TRIGGER_BITS-1){1'b1}}}; + +// Identical samples +parameter LA_MAX_IDENTICAL_SAMPLES=((1 << LA_IDENTICAL_SAMPLES_BITS) - 2); //{LA_IDENTICAL_SAMPLES_BITS{1'b1}}; + +/* +Reserved mem words: + LA_MEM_EMPTY_SLOT which represents an empty and not used memory slot. +It has sense if LA_MEM_CLEAN_BEFORE_RUN and + a) when the trigger event arrives before the filling of the full btqueue. + b) after the trigger event and after capturing LA_MAX_SAMPLES_AFTER_TRIGGER +*/ +//`define LA_INIT_MEM_AT_RESET +parameter LA_MEM_EMPTY_SLOT={LA_MEM_WORDLEN_BITS{1'b0}}; + +//`define DEBUG_LA

openverifla_2.3.b/verilog/verifla/common_internal_verifla.v Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/verilog/verifla/computer_input_of_verifla.v =================================================================== --- openverifla_2.3.b/verilog/verifla/computer_input_of_verifla.v (nonexistent) +++ openverifla_2.3.b/verilog/verifla/computer_input_of_verifla.v (revision 42) @@ -0,0 +1,90 @@ +/* +file: computer_input_of_verifla.v +license: GNU GPL + +Revision history +- 20180827-1700 +allow only USERCMD_RUN. +revision date: 2007/Sep/03; author: Laurentiu DUCA +- USERCMD_RESET + +revision date: 2007/Jul/4; author: Laurentiu DUCA +- v01 +*/ + + +module computer_input_of_verifla (clk, rst_l, + rec_dataH, rec_readyH, user_run); +// user commands +parameter USERCMD_RUN = 8'h01; +// CI_states +parameter CI_STATES_BITS=4, + CI_STATE_IDLE=0, + CI_STATE_START_OF_NEW_CMD=1; + +// input +input clk, rst_l; +input rec_readyH; +input [7:0] rec_dataH; +// output +output user_run; +reg user_run; +// locals +reg [CI_STATES_BITS-1:0] ci_state, next_ci_state; +reg [7:0] ci_indata, next_ci_indata; +wire ci_new_octet_received; + +// T(clk)<

openverifla_2.3.b/verilog/verifla/computer_input_of_verifla.v Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/verilog/verifla/inc_of_verifla.v =================================================================== --- openverifla_2.3.b/verilog/verifla/inc_of_verifla.v (nonexistent) +++ openverifla_2.3.b/verilog/verifla/inc_of_verifla.v (revision 42) @@ -0,0 +1,17 @@ +parameter CLOCK_FREQUENCY = 50000000; +// If CLOCK_FREQUENCY < 50 MHz then BAUDRATE must be < 115200 bps (for example 9600). +parameter BAUDRATE = 115200; + +parameter T2_div_T1_div_2 = CLOCK_FREQUENCY / (BAUDRATE * 16 * 2); +// Assert: BAUD_COUNTER_SIZE >= log2(T2_div_T1_div_2) bits +parameter BAUD_COUNTER_SIZE = 15; +//`define DEBUG +/* +1s ... 50000000 T1 +1bit ... 16 T2 +1s .. 115200 bits +=> +1s .. 115200 * 16 T2 + +T2 = 5000000 T1 / (115200 * 16) = T1 * 50000000 / (115200 * 16) +*/

openverifla_2.3.b/verilog/verifla/inc_of_verifla.v Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/verilog/verifla/memory_of_verifla.v =================================================================== --- openverifla_2.3.b/verilog/verifla/memory_of_verifla.v (nonexistent) +++ openverifla_2.3.b/verilog/verifla/memory_of_verifla.v (revision 42) @@ -0,0 +1,69 @@ +/* +20180814-1600 +- LA_MEM_CLEAN_BEFORE_RUN is not used here anymore; +LA_INIT_MEM_AT_RESET is used instead. +20180808-1700 +- ifdef LA_MEM_CLEAN_BEFORE_RUN +Author: Laurentiu Duca +License: GNU GPL +*/ + +module memory_of_verifla ( + clk, rst_l, //clkb, + addra, wea, dina, addrb, doutb +); + +`include "common_internal_verifla.v" + +input rst_l; +input clk; +//input clkb; +input wea; +input [LA_MEM_ADDRESS_BITS-1:0] addra; +input [LA_MEM_ADDRESS_BITS-1:0] addrb; +output [LA_MEM_WORDLEN_BITS-1:0] doutb; +input [LA_MEM_WORDLEN_BITS-1:0] dina; + +reg [LA_MEM_WORDLEN_BITS-1:0] mem[LA_MEM_LAST_ADDR:0]; + +//assign doutb = mem[addrb]; +// This works too as a consequence of send_capture_of_verifla architecture. +reg [LA_MEM_WORDLEN_BITS-1:0] doutb; +always @(posedge clk or negedge rst_l) +if(~rst_l) + doutb <= LA_MEM_EMPTY_SLOT; +else + doutb <= mem[addrb]; + +`ifndef LA_INIT_MEM_AT_RESET +always @(posedge clk) +begin + if(wea) begin + mem[addra] <= dina; + end +end +`else +//reg [LA_MEM_WORDLEN_BITS-1:0] i; +always @(posedge clk or negedge rst_l) +begin + if(~rst_l) begin:RESET_SECTON + integer i; + for(i=0; i<=LA_MEM_LAST_ADDR; i=i+1) + mem[i] <= LA_MEM_EMPTY_SLOT; + end else begin + if(wea) begin + mem[addra] <= dina; + end + end +end +`endif + +initial begin:INIT_SECTION + integer i; + for(i=0; i<=LA_MEM_LAST_ADDR; i=i+1) + mem[i] <= LA_MEM_EMPTY_SLOT; + //$readmemh("mem2018-2.mif", mem); +end + +endmodule +

openverifla_2.3.b/verilog/verifla/memory_of_verifla.v Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/verilog/verifla/monitor_of_verifla.v =================================================================== --- openverifla_2.3.b/verilog/verifla/monitor_of_verifla.v (nonexistent) +++ openverifla_2.3.b/verilog/verifla/monitor_of_verifla.v (revision 42) @@ -0,0 +1,299 @@ +/* +file: monitor_of_verifla.v +license: GNU GPL +Revision history +20181016-1225 +- LA_TRACE_MASK +20180827-1700 +- broke mon_run in sys_run and user_run +- clean memory at user_run +20180823-1435 +- mon_run_reg +20180814-1600 +- LA_MEM_CLEAN_BEFORE_RUN is parameter now +20180808-1700 +- ifdef LA_MEM_CLEAN_BEFORE_RUN +revision date: 20180730-1500; Laurentiu Duca +- redesign of mem struct +- the bt_queue_tail_address is wrote at the end of capture. +revision date: 2007/Sep/03; author: Laurentiu DUCA +- the bt_queue_head_address is wrote at the end of capture. +- zero all memory at a mon_run (if LA_MEM_CLEAN_BEFORE_RUN). +- note that _at_ means after trigger event and _bt_ means before trigger event + +revision date: 2007/Jul/4; author: Laurentiu DUCA +- v01 +*/ + + +module monitor_of_verifla (clk, rst_l, + sys_run, user_run, data_in, + mem_port_A_address, mem_port_A_data_in, mem_port_A_wen, + ack_sc_run, sc_done, sc_run); + +`include "common_internal_verifla.v" + +// MON_states +parameter + MON_STATES_BITS=4, + MON_STATE_IDLE=0, + MON_STATE_DO_MEM_CLEAN=1, + MON_STATE_PREPARE_RUN=2, + MON_STATE_WAIT_TRIGGER_MATCH=3, + MON_STATE_AFTER_TRIGGER=4, + MON_STATE_DATA_CAPTURED=5, + MON_STATE_SC_RUN=6, + MON_STATE_WAIT_SC_DONE=7; + +// input +input clk, rst_l; +input [LA_DATA_INPUT_WORDLEN_BITS-1:0] data_in; +input sys_run, user_run, ack_sc_run, sc_done; +// output +output [LA_MEM_ADDRESS_BITS-1:0] mem_port_A_address; +output [LA_MEM_WORDLEN_BITS-1:0] mem_port_A_data_in; +output mem_port_A_wen; +output sc_run; +reg [LA_MEM_ADDRESS_BITS-1:0] mem_port_A_address; +reg [LA_MEM_WORDLEN_BITS-1:0] mem_port_A_data_in; +reg mem_port_A_wen; +reg sys_run_reg, sc_run, next_sc_run; + +// local +reg [MON_STATES_BITS-1:0] mon_state, next_mon_state; +reg [LA_MAX_SAMPLES_AFTER_TRIGGER_BITS-1:0] + next_mon_samples_after_trigger, mon_samples_after_trigger; +reg [LA_MEM_ADDRESS_BITS-1:0] next_mon_write_address, mon_write_address; +reg [LA_MEM_ADDRESS_BITS-1:0] next_bt_queue_tail_address, bt_queue_tail_address; +reg [LA_DATA_INPUT_WORDLEN_BITS-1:0] mon_old_data_in, + mon_current_data_in; //={LA_DATA_INPUT_WORDLEN_BITS{1'b0}}; +reg [LA_IDENTICAL_SAMPLES_BITS-1:0] mon_clones_nr, next_mon_clones_nr; + + +// Register the input data +// such that mon_current_data_in is constant the full clock period. +always @(posedge clk or negedge rst_l) +begin + if(~rst_l) + begin + mon_old_data_in <= 0; + mon_current_data_in <= 0; + sys_run_reg <= 0; + end + else begin + mon_old_data_in <= mon_current_data_in; + mon_current_data_in <= data_in; + sys_run_reg <= sys_run; + end +end + +// set new values +always @(posedge clk or negedge rst_l) +begin + if(~rst_l) + begin + mon_state <= MON_STATE_IDLE; + sc_run <= 0; + mon_write_address <= LA_MEM_FIRST_ADDR; + bt_queue_tail_address <= 0; + mon_samples_after_trigger <= 0; + mon_clones_nr <= 1; + end + else begin + mon_state <= next_mon_state; + sc_run <= next_sc_run; + mon_write_address <= next_mon_write_address; + bt_queue_tail_address <= next_bt_queue_tail_address; + mon_samples_after_trigger <= next_mon_samples_after_trigger; + mon_clones_nr <= next_mon_clones_nr; + end +end + + +// continuous assignments +wire [LA_MEM_ADDRESS_BITS-1:0] one_plus_mon_write_address = (mon_write_address+1); +wire [LA_IDENTICAL_SAMPLES_BITS-1:0] oneplus_mon_clones_nr = (mon_clones_nr+1); +wire data_in_changed = ((mon_current_data_in & LA_TRACE_MASK) != (mon_old_data_in & LA_TRACE_MASK)); +wire last_mem_addr_before_trigger = (mon_write_address == LA_MEM_LAST_ADDR_BEFORE_TRIGGER); +wire not_maximum_mon_clones_nr = (mon_clones_nr < LA_MAX_IDENTICAL_SAMPLES); + + +// mon_prepare_run is called from states MON_STATE_IDLE and MON_STATE_PREPARE_RUN +task mon_prepare_run; +begin + // we share the same clock as memory. + mem_port_A_address=LA_MEM_FIRST_ADDR; + mem_port_A_data_in={{(LA_IDENTICAL_SAMPLES_BITS-1){1'b0}}, 1'b1, mon_current_data_in}; + mem_port_A_wen=1; + next_mon_write_address=LA_MEM_FIRST_ADDR; + next_mon_clones_nr=2; + next_mon_state = MON_STATE_WAIT_TRIGGER_MATCH; +end +endtask + + +// state machine +always @(*) +/* + mon_state or sys_run_reg + or ack_sc_run or sc_done or sc_run + // eliminate warnings + or mon_write_address or bt_queue_tail_address or mon_samples_after_trigger + or mon_current_data_in or mon_old_data_in or mon_clones_nr + or data_in_changed or oneplus_mon_clones_nr or one_plus_mon_write_address + or not_maximum_mon_clones_nr + or last_mem_addr_before_trigger) +*/ +begin + // implicit + next_mon_state=mon_state; + next_sc_run=sc_run; + next_mon_write_address=mon_write_address; + next_bt_queue_tail_address=bt_queue_tail_address; + next_mon_samples_after_trigger=mon_samples_after_trigger; + next_mon_clones_nr = mon_clones_nr; + mem_port_A_address=0; + mem_port_A_data_in=0; + mem_port_A_wen=0; + + // state dependent + case(mon_state) + MON_STATE_IDLE: + begin + if(sys_run_reg || user_run) + begin + if(LA_MEM_CLEAN_BEFORE_RUN || user_run) begin + next_mon_write_address=LA_MEM_FIRST_ADDR; + next_mon_state=MON_STATE_DO_MEM_CLEAN; + end else + mon_prepare_run; + end + else + next_mon_state=MON_STATE_IDLE; + end + + MON_STATE_DO_MEM_CLEAN: + begin + mem_port_A_address=mon_write_address; + mem_port_A_data_in=LA_MEM_EMPTY_SLOT; + mem_port_A_wen=1; + if(mon_write_address < LA_MEM_LAST_ADDR) + begin + next_mon_write_address=mon_write_address+1; + next_mon_state = MON_STATE_DO_MEM_CLEAN; + end + else + // at the new posedge clock, will clean memory at its last address + next_mon_state = MON_STATE_PREPARE_RUN; + end + + MON_STATE_PREPARE_RUN: + begin + mon_prepare_run; + end + + MON_STATE_WAIT_TRIGGER_MATCH: + begin + // circular queue + if((mon_current_data_in & LA_TRIGGER_MASK) != + (LA_TRIGGER_VALUE & LA_TRIGGER_MASK)) + begin + next_mon_state = MON_STATE_WAIT_TRIGGER_MATCH; + mem_port_A_wen = 1; + mem_port_A_address = data_in_changed ? + (last_mem_addr_before_trigger ? LA_MEM_FIRST_ADDR : one_plus_mon_write_address) : + (not_maximum_mon_clones_nr ? mon_write_address : + (last_mem_addr_before_trigger ? LA_MEM_FIRST_ADDR : one_plus_mon_write_address)); + mem_port_A_data_in = data_in_changed ? + {{(LA_IDENTICAL_SAMPLES_BITS-1){1'b0}}, 1'b1, mon_current_data_in} : + (not_maximum_mon_clones_nr ? {mon_clones_nr, mon_current_data_in} : + {{(LA_IDENTICAL_SAMPLES_BITS-1){1'b0}}, 1'b1, mon_current_data_in}); + next_mon_clones_nr = data_in_changed ? 2 : + (not_maximum_mon_clones_nr ? oneplus_mon_clones_nr : 2); + next_mon_write_address = data_in_changed ? + (last_mem_addr_before_trigger ? LA_MEM_FIRST_ADDR: one_plus_mon_write_address) : + (not_maximum_mon_clones_nr ? mon_write_address : + (last_mem_addr_before_trigger ? LA_MEM_FIRST_ADDR : one_plus_mon_write_address)); + end + else begin + // trigger matched + next_mon_state=MON_STATE_AFTER_TRIGGER; + mem_port_A_address=LA_TRIGGER_MATCH_MEM_ADDR; + mem_port_A_data_in = {{{(LA_IDENTICAL_SAMPLES_BITS-1){1'b0}}, 1'b1}, mon_current_data_in}; + mem_port_A_wen=1; + next_mon_write_address=LA_TRIGGER_MATCH_MEM_ADDR; + next_mon_clones_nr=2; + next_bt_queue_tail_address = mon_write_address; + next_mon_samples_after_trigger=1; + end + end + + MON_STATE_AFTER_TRIGGER: + begin + if((mon_samples_after_trigger < LA_MAX_SAMPLES_AFTER_TRIGGER) && + (mon_write_address < LA_MEM_LAST_ADDR)) + begin + mem_port_A_wen = 1; + mem_port_A_address = data_in_changed ? one_plus_mon_write_address : + (not_maximum_mon_clones_nr ? mon_write_address : one_plus_mon_write_address); + mem_port_A_data_in = data_in_changed ? {{(LA_IDENTICAL_SAMPLES_BITS-1){1'b0}}, 1'b1, mon_current_data_in} : + (not_maximum_mon_clones_nr ? {mon_clones_nr, mon_current_data_in} : + {{(LA_IDENTICAL_SAMPLES_BITS-1){1'b0}}, 1'b1, mon_current_data_in}); + next_mon_clones_nr = data_in_changed ? 2 : + (not_maximum_mon_clones_nr ? oneplus_mon_clones_nr : 2); + next_mon_write_address = data_in_changed ? one_plus_mon_write_address : + (not_maximum_mon_clones_nr ? mon_write_address : one_plus_mon_write_address); + next_mon_samples_after_trigger=mon_samples_after_trigger+1; + next_mon_state=MON_STATE_AFTER_TRIGGER; + end + else begin + mem_port_A_wen=0; + next_mon_state=MON_STATE_DATA_CAPTURED; + end + end + + MON_STATE_DATA_CAPTURED: + begin + // Save bt_queue_tail_address + mem_port_A_address = LA_BT_QUEUE_TAIL_ADDRESS; + mem_port_A_data_in = + {{(LA_MEM_WORDLEN_BITS-LA_MEM_ADDRESS_BITS){1'b0}}, + bt_queue_tail_address}; + mem_port_A_wen = 1; + next_mon_state=MON_STATE_SC_RUN; + end + + MON_STATE_SC_RUN: + begin + next_mon_state=MON_STATE_WAIT_SC_DONE; + next_sc_run=1; + end + MON_STATE_WAIT_SC_DONE: + begin + // sc_run must already be 1, when entering state MON_STATE_SEND_CAPTURE. + if(ack_sc_run) + next_sc_run=0; + if((sc_run == 0) && (sc_done)) + next_mon_state=MON_STATE_IDLE; + else + next_mon_state=MON_STATE_WAIT_SC_DONE; + end + + + default: // should never get here + begin + next_mon_state=4'bxxxx; + next_sc_run=1'bx; + next_mon_write_address={LA_MEM_ADDRESS_BITS{1'bx}}; + next_bt_queue_tail_address={(LA_MEM_ADDRESS_BITS){1'bx}}; + next_mon_samples_after_trigger={LA_MAX_SAMPLES_AFTER_TRIGGER_BITS{1'bx}}; + next_mon_clones_nr={LA_IDENTICAL_SAMPLES_BITS{1'bx}}; + mem_port_A_address={LA_MEM_ADDRESS_BITS{1'bx}}; + mem_port_A_data_in={LA_MEM_WORDLEN_BITS{1'bx}}; + mem_port_A_wen=1'bx; + end + endcase +end + + +endmodule

openverifla_2.3.b/verilog/verifla/monitor_of_verifla.v Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/verilog/verifla/send_capture_of_verifla.v =================================================================== --- openverifla_2.3.b/verilog/verifla/send_capture_of_verifla.v (nonexistent) +++ openverifla_2.3.b/verilog/verifla/send_capture_of_verifla.v (revision 42) @@ -0,0 +1,167 @@ +/* +file: send_capture_of_verifla.v +license: GNU GPL +Revision history +revision date: 20180808-1540 +- include baud_clk_posedge + +revision date: 2007/Jul/4; author: Laurentiu DUCA +- v01 +*/ + + +//`timescale 1ns/1ps +module send_capture_of_verifla(clk, rst_l, baud_clk_posedge, + sc_run, ack_sc_run, sc_done, + mem_port_B_address, mem_port_B_dout, + xmit_doneH, xmitH, xmit_dataH); + +`include "common_internal_verifla.v" + +// SC_states +parameter + SC_STATES_BITS=4, + SC_STATE_IDLE=0, + SC_STATE_ACK_SC_RUN=1, + SC_STATE_SET_MEMADDR_TO_READ_FROM=2, + SC_STATE_GET_MEM_OUTPUT_DATA=3, + SC_STATE_SEND_OCTET=4, + SC_STATE_WAIT_OCTET_SENT=5, + SC_STATE_WORD_SENT=6; + +// input +input clk, rst_l; +input baud_clk_posedge; +input sc_run; +input [LA_MEM_WORDLEN_BITS-1:0] mem_port_B_dout; +input xmit_doneH; +// output +output [LA_MEM_ADDRESS_BITS-1:0] mem_port_B_address; +output xmitH; +output [7:0] xmit_dataH; +output ack_sc_run, sc_done; +reg [LA_MEM_ADDRESS_BITS-1:0] mem_port_B_address; +reg xmitH; +reg [7:0] xmit_dataH; +reg ack_sc_run, sc_done; +// local +reg [SC_STATES_BITS-1:0] sc_state, next_sc_state; +reg [LA_MEM_ADDRESS_BITS-1:0] sc_current_address, next_sc_current_address; +reg [LA_MEM_WORDLEN_OCTETS-1:0] sc_octet_id, next_sc_octet_id; +reg [LA_MEM_WORDLEN_BITS-1:0] sc_word_bits, next_sc_word_bits; + +// set up next value +always @(posedge clk or negedge rst_l) +begin + if(~rst_l) + begin + sc_state=SC_STATE_IDLE; + sc_current_address=0; + sc_word_bits=0; + sc_octet_id=0; + end + else + if (baud_clk_posedge) + begin + sc_state=next_sc_state; + sc_current_address=next_sc_current_address; + sc_word_bits=next_sc_word_bits; + sc_octet_id=next_sc_octet_id; + end +end + +// state machine +always @(sc_state or sc_run or xmit_doneH + // not important but xilinx warnings. + or sc_current_address or mem_port_B_dout or sc_word_bits or sc_octet_id) +begin + // implicitly + next_sc_state=sc_state; + ack_sc_run=0; + sc_done=0; + xmit_dataH=0; + xmitH=0; + mem_port_B_address=sc_current_address; + next_sc_current_address=sc_current_address; + next_sc_word_bits=sc_word_bits; + next_sc_octet_id=sc_octet_id; + + // state dependent + case(sc_state) + SC_STATE_IDLE: + begin + if(sc_run) + begin + next_sc_state = SC_STATE_ACK_SC_RUN; + next_sc_current_address=LA_MEM_LAST_ADDR; + end + else + next_sc_state = SC_STATE_IDLE; + end + SC_STATE_ACK_SC_RUN: + begin + ack_sc_run=1; + next_sc_state = SC_STATE_SET_MEMADDR_TO_READ_FROM; + end + SC_STATE_SET_MEMADDR_TO_READ_FROM: + begin + mem_port_B_address=sc_current_address; + // next clock cycle we have memory dout of our read. + next_sc_state = SC_STATE_GET_MEM_OUTPUT_DATA; + end + SC_STATE_GET_MEM_OUTPUT_DATA: + begin + next_sc_word_bits=mem_port_B_dout; + // LSB first + next_sc_octet_id=0; + next_sc_state = SC_STATE_SEND_OCTET; + end + SC_STATE_SEND_OCTET: + begin + xmit_dataH=sc_word_bits[7:0]; + next_sc_word_bits={8'd0, sc_word_bits[LA_MEM_WORDLEN_BITS-1:8]}; //sc_word_bits>>8; + xmitH=1; + next_sc_octet_id=sc_octet_id+1; + next_sc_state = SC_STATE_WAIT_OCTET_SENT; + end + SC_STATE_WAIT_OCTET_SENT: + begin + if(xmit_doneH) + begin + if(sc_octet_id < LA_MEM_WORDLEN_OCTETS) + next_sc_state = SC_STATE_SEND_OCTET; + else + next_sc_state = SC_STATE_WORD_SENT; + end + else + next_sc_state = SC_STATE_WAIT_OCTET_SENT; + end + SC_STATE_WORD_SENT: + begin + if(sc_current_address > LA_MEM_FIRST_ADDR) + begin + next_sc_current_address=sc_current_address-1; + next_sc_state = SC_STATE_SET_MEMADDR_TO_READ_FROM; + end + else + begin + // done sending all captured data + sc_done = 1; + next_sc_state = SC_STATE_IDLE; + end + end + default: // should never get here + begin + next_sc_state=4'bxxxx; + sc_done=1'bx; + xmit_dataH=1'bx; + xmitH=1'bx; + mem_port_B_address={LA_MEM_ADDRESS_BITS{1'bx}}; + next_sc_current_address={LA_MEM_ADDRESS_BITS{1'bx}}; + next_sc_word_bits={LA_MEM_WORDLEN_BITS{1'bx}}; + next_sc_octet_id={LA_MEM_WORDLEN_OCTETS{1'bx}}; + end + endcase +end + +endmodule

openverifla_2.3.b/verilog/verifla/send_capture_of_verifla.v Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/verilog/verifla/single_pulse_of_verifla.v =================================================================== --- openverifla_2.3.b/verilog/verifla/single_pulse_of_verifla.v (nonexistent) +++ openverifla_2.3.b/verilog/verifla/single_pulse_of_verifla.v (revision 42) @@ -0,0 +1,83 @@ +// Update: 20180814_1555, author: Laurentiu Duca +// User readable form. +// Create Date: 16:17:26 02/23/2007 +// Additional Comments: single pulse from a multi-periods-contiguos pulse +// Author: Laurentiu Duca +// License: GNU GPL + +`timescale 1ns / 1ps + +module single_pulse_of_verifla(clk, rst_l, ub, ubsing); +input clk, rst_l; +input ub; +output ubsing; + + +reg next_state, state; +reg ubsing_reg, next_ubsing_reg; + +assign ubsing = ubsing_reg; + +always @(posedge clk or negedge rst_l) +begin + if (~rst_l) begin + state <= 0; + ubsing_reg <= 0; + end else begin + state <= next_state; + ubsing_reg <= next_ubsing_reg; + end +end + +always @(*) +begin + next_state <= state; + next_ubsing_reg <= 0; + case (state) + 0: if (ub == 1) begin + next_state <= 1; + next_ubsing_reg <= 1; + end + 1: if (ub == 0) + next_state <= 0; + endcase +end + + +/* +Truth table +==== +before (posedge clk) | after (posedge clk) +ub / state(q1q0) | state(q1q0) / ubsing +0 / 00 | 00 / 0 +1 / 00 | 01 / 1 +x / 01 | 10 / 0 +0 / 10 | 00 / 0 +1 / 10 | 10 / 0 + +Notes: +- works only if the (posedge ub) comes 2 clk periods after the prevoius (negedge ub). +- after rst_l, ub can be either 0 or 1. +*/ + +/* +reg [1:0] q; +assign ubsing = q[0]; + +always @ (posedge clk or negedge rst_l) +begin + +if(~rst_l) +begin + q[0] <= 0; + q[1] <= 0; +end +else +begin + q[0] <= ~q[0] && ub && ~q[1]; + q[1] <= q[0] || (~q[0] && ub && q[1]); +end +end +*/ + +endmodule

openverifla_2.3.b/verilog/verifla/single_pulse_of_verifla.v Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/verilog/verifla/top_of_verifla.v =================================================================== --- openverifla_2.3.b/verilog/verifla/top_of_verifla.v (nonexistent) +++ openverifla_2.3.b/verilog/verifla/top_of_verifla.v (revision 42) @@ -0,0 +1,69 @@ +/* +file: top_of_verifla.v +license: GNU GPL +Revision history +revision date: 2007/Sep/03; author: Laurentiu DUCA +- sys_run: an internal possible run command +- combined_reset_low which allows the user to reset the monitor + +revision date: 2007/Jul/4; author: Laurentiu DUCA +- v01 +*/ + + +module top_of_verifla(clk, rst_l, sys_run, data_in, + // Transceiver + uart_XMIT_dataH, uart_REC_dataH + ); + +`include "common_internal_verifla.v" + +input clk, rst_l, sys_run; +input [LA_DATA_INPUT_WORDLEN_BITS-1:0] data_in; +output uart_XMIT_dataH; +input uart_REC_dataH; + +// App. specific. +wire [LA_MEM_WORDLEN_BITS-1:0] mem_port_A_data_in, mem_port_B_dout; +wire [LA_MEM_ADDRESS_BITS-1:0] mem_port_A_address, mem_port_B_address; +wire mem_port_A_wen; +wire user_run; +wire sc_run, ack_sc_run, sc_done; + +// Transceiver +wire [7:0] xmit_dataH; +wire xmit_doneH; +wire xmitH; +// Receiver +wire [7:0] rec_dataH; +wire rec_readyH; +// Baud +wire baud_clk_posedge; + +uart_of_verifla iUART (clk, rst_l, baud_clk_posedge, + // Transmitter + uart_XMIT_dataH, xmitH, xmit_dataH, xmit_doneH, + // Receiver + uart_REC_dataH, rec_dataH, rec_readyH); + +memory_of_verifla mi ( + .addra(mem_port_A_address), .addrb(mem_port_B_address), + .clk(clk), .rst_l(rst_l), + .dina(mem_port_A_data_in), .doutb(mem_port_B_dout), + .wea(mem_port_A_wen)); + +computer_input_of_verifla ci (clk, rst_l, + rec_dataH, rec_readyH, user_run); + +monitor_of_verifla mon (clk, rst_l, + sys_run, user_run, data_in, + mem_port_A_address, mem_port_A_data_in, mem_port_A_wen, + ack_sc_run, sc_done, sc_run); +// send_capture_of_verifla must use the same reset as the uart. +send_capture_of_verifla sc (clk, rst_l, baud_clk_posedge, + sc_run, ack_sc_run, sc_done, + mem_port_B_address, mem_port_B_dout, + xmit_doneH, xmitH, xmit_dataH); + +endmodule +

openverifla_2.3.b/verilog/verifla/top_of_verifla.v Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/verilog/verifla/u_rec_of_verifla.v =================================================================== --- openverifla_2.3.b/verilog/verifla/u_rec_of_verifla.v (nonexistent) +++ openverifla_2.3.b/verilog/verifla/u_rec_of_verifla.v (revision 42) @@ -0,0 +1,169 @@ + +/* +Update: Laurentiu Duca, 20180808_1200: + - consider baud_clk_posedge +Update: Laurentiu Duca, 20180724_1550: + - removed "rdy_o <= 1'b0;" from idle state + and moved to STA_CHECK_START_BIT. + - sample in the middle of the data bit + - correct init values and sizes +*/ + +///////////////////////////////////////////////////////////////////// +//// Author: Zhangfeifei //// +//// //// +//// Advance Test Technology Laboratory, //// +//// Institute of Computing Technology, //// +//// Chinese Academy of Sciences //// +//// //// +//// If you encountered any problem, please contact : //// +//// Email: zhangfeifei@ict.ac.cn or whitewill@opencores.org //// +//// Tel: +86-10-6256 5533 ext. 5673 //// +//// //// +//// Downloaded from: //// +//// http://www.opencores.org/pdownloads.cgi/list/ucore //// +///////////////////////////////////////////////////////////////////// +//// //// +//// Copyright (C) 2005-2006 Zhangfeifei //// +//// zhangfeifei@ict.ac.cn //// +//// //// +//// //// +//// This source file may be used and distributed freely without //// +//// restriction provided that this copyright statement is not //// +//// removed from the file and any derivative work contains the //// +//// original copyright notice and the associated disclaimer. //// +//// //// +//// Please let the author know if it is used //// +//// for commercial purpose. //// +//// //// +//// THIS SOFTWARE IS PROVIDED ``AS IS'' AND WITHOUT ANY //// +//// EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED //// +//// TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS //// +//// FOR A PARTICULAR PURPOSE. IN NO EVENT SHALL THE AUTHOR //// +//// OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, //// +//// INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES //// +//// (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE //// +//// GOODS OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR //// +//// BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF //// +//// LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT //// +//// (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT //// +//// OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE //// +//// POSSIBILITY OF SUCH DAMAGE. //// +//// //// +///////////////////////////////////////////////////////////////////// +//// //// +//// //// +//// Date of Creation: 2005.12.3 //// +//// //// +//// Version: 0.0.1 //// +//// //// +//// Description: rx module of the uart module,data format is //// +//// 8bits data,1 bits stop bit,and no parity check //// +//// //// +///////////////////////////////////////////////////////////////////// +//// //// +//// Change log: //// +//// //// +///////////////////////////////////////////////////////////////////// + +module u_rec_of_verifla( + clk_i,rst_i,//system signal + baud_clk_posedge, + rxd_i,//serial data in + rdy_o,data_o //data ready and parallel data out signal + ); + + parameter // state difinition + STA_IDLE = 0, + STA_CHECK_START_BIT = 1, + STA_RECEIVE = 2; + + input clk_i; + input rst_i; + input baud_clk_posedge; + input rxd_i; + + output rdy_o; + output [7:0] data_o; + + reg rdy_o; + reg [7:0] data_o; + + reg [7:0] rsr;//reciving shift register + reg [3:0] num_of_rec; + + reg [1:0] reg_sta; + + //the counter to count the clk in + reg [3:0] count; + reg count_c;//the carry of count + + always @(posedge clk_i or posedge rst_i) + begin + if(rst_i) + begin + data_o <= 8'b0; + rdy_o <= 1'b0; + rsr <= 8'h0; + num_of_rec <= 4'b0; + count <= 4'b0; + count_c <= 1'b0; + reg_sta <= STA_IDLE; + end + else begin + if(baud_clk_posedge) + case (reg_sta) + STA_IDLE: + begin + num_of_rec <= 4'd0; + count <= 4'd0; + if(!rxd_i) + reg_sta <= STA_CHECK_START_BIT;//recive a start bit + else + reg_sta <= STA_IDLE; + end + STA_CHECK_START_BIT: + begin + if(count >= 7) + begin + count <= 0; + if(!rxd_i) begin + //has passed 8 clk and rxd_i is still zero,then start bit has been confirmed + rdy_o <= 1'b0; + reg_sta <= STA_RECEIVE; + end + else + reg_sta <= STA_IDLE; + end + else begin + reg_sta <= STA_CHECK_START_BIT; + count <= count +1; + end + end + STA_RECEIVE: + begin + {count_c,count} <= count +1; + //has passed 16 clk after the last bit has been checked,sampling a bit + if(count_c) + begin + if(num_of_rec <=4'd7) + begin //sampling the received bit + rsr <= {rxd_i,rsr[7:1]}; + num_of_rec <= num_of_rec +1; + reg_sta <= STA_RECEIVE; + end + else begin//sampling the stop bit + //if(rxd_i)//if stop bit exist + //begin + data_o <= rsr; + rdy_o <= 1'b1; + //end + reg_sta <= STA_IDLE; + end + end + end + endcase + end + end + +endmodule

openverifla_2.3.b/verilog/verifla/u_rec_of_verifla.v Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/verilog/verifla/u_xmit_of_verifla.v =================================================================== --- openverifla_2.3.b/verilog/verifla/u_xmit_of_verifla.v (nonexistent) +++ openverifla_2.3.b/verilog/verifla/u_xmit_of_verifla.v (revision 42) @@ -0,0 +1,157 @@ +/* +Update: Laurentiu Duca, 20180808_1200: + - consider baud_clk_posedge +Update: Laurentiu Duca, 20180724_1550: + - In state STA_TRANS, put num_of_trans <= 4'd8 instead of 7. + in order to send stop bit. + - correct init values and sizes +*/ + + +///////////////////////////////////////////////////////////////////// +//// Author: Zhangfeifei //// +//// //// +//// Advance Test Technology Laboratory, //// +//// Institute of Computing Technology, //// +//// Chinese Academy of Sciences //// +//// //// +//// If you encountered any problem, please contact : //// +//// Email: zhangfeifei@ict.ac.cn or whitewill@opencores.org //// +//// Tel: +86-10-6256 5533 ext. 5673 //// +//// //// +//// Downloaded from: //// +//// http://www.opencores.org/pdownloads.cgi/list/ucore //// +///////////////////////////////////////////////////////////////////// +//// //// +//// Copyright (C) 2005-2006 Zhangfeifei //// +//// zhangfeifei@ict.ac.cn //// +//// //// +//// //// +//// This source file may be used and distributed freely without //// +//// restriction provided that this copyright statement is not //// +//// removed from the file and any derivative work contains the //// +//// original copyright notice and the associated disclaimer. //// +//// //// +//// Please let the author know if it is used //// +//// for commercial purpose. //// +//// //// +//// THIS SOFTWARE IS PROVIDED ``AS IS'' AND WITHOUT ANY //// +//// EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED //// +//// TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS //// +//// FOR A PARTICULAR PURPOSE. IN NO EVENT SHALL THE AUTHOR //// +//// OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, //// +//// INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES //// +//// (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE //// +//// GOODS OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR //// +//// BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF //// +//// LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT //// +//// (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT //// +//// OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE //// +//// POSSIBILITY OF SUCH DAMAGE. //// +//// //// +///////////////////////////////////////////////////////////////////// +//// //// +//// //// +//// Date of Creation: 2005.12.3 //// +//// //// +//// Version: 0.0.1 //// +//// //// +//// Description: tx module of the uart module,data format is //// +//// 8bits data,1 bits stop bit,and no parity check //// +//// //// +///////////////////////////////////////////////////////////////////// +//// //// +//// Change log: //// +//// //// +///////////////////////////////////////////////////////////////////// + +module u_xmit_of_verifla( + clk_i,rst_i,//system signal + baud_clk_posedge, + data_i,wen_i,//parallel data in and enable signal + txd_o,//serial data out + tre_o// ready to transmit flag + ); + + parameter // state difinition + STA_IDLE = 0, + STA_TRANS = 1, + STA_FINISH = 2; + + input clk_i; + input rst_i; + input baud_clk_posedge; + input [7:0] data_i; + input wen_i; + + output txd_o; + output tre_o; + + reg txd_o; + reg tre_o; + + reg [7:0] tsr;//transmitting shift register + reg [3:0] num_of_trans; + + reg [1:0] reg_sta; + + //the counter to count the clk in + reg [3:0] count; + reg count_c;//the carry of count + + always @(posedge clk_i or posedge rst_i) + begin + if(rst_i) + begin + tsr <= 8'b0; + txd_o <= 1'b1; + tre_o <= 1'b1; + num_of_trans <= 4'b0; + count_c <= 1'b0; + count <= 4'b0; + reg_sta <= STA_IDLE; + end + else begin + if(baud_clk_posedge) + case(reg_sta) + STA_IDLE: + begin + num_of_trans <= 4'd0; + count <= 4'd0; + count_c <= 1'b0; + if(wen_i) + begin + tsr <= data_i; + tre_o <= 1'b0; + txd_o <= 1'b0;// transmit the start bit + reg_sta <= STA_TRANS; + end + else + reg_sta <= STA_IDLE; + end + STA_TRANS: + begin + {count_c,count} <= count + 1; + + if(count_c) + begin + if(num_of_trans <=4'd8) + begin + //note ,when num_of_trans==8 ,we transmit the stop bit + tsr <= {1'b1,tsr[7:1]}; + txd_o <= tsr[0]; + num_of_trans <= num_of_trans+1; + reg_sta <= STA_TRANS; + end + else begin + txd_o <= 1'b1; + tre_o <= 1'b1; + reg_sta <= STA_IDLE; + end + end + end + endcase + end + end + +endmodule

openverifla_2.3.b/verilog/verifla/u_xmit_of_verifla.v Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/verilog/verifla/uart_of_verifla.v =================================================================== --- openverifla_2.3.b/verilog/verifla/uart_of_verifla.v (nonexistent) +++ openverifla_2.3.b/verilog/verifla/uart_of_verifla.v (revision 42) @@ -0,0 +1,101 @@ +/* +Update: Laurentiu Duca, 20180808_1200: + - consider baud_clk_posedge +*/ +module uart_of_verifla ( sys_clk, + sys_rst_l, + baud_clk_posedge, + + // Transmitter + uart_XMIT_dataH, + xmitH, + xmit_dataH, + xmit_doneH, + + // Receiver + uart_REC_dataH, + rec_dataH, + rec_readyH + ); + +input sys_clk; +input sys_rst_l; +output baud_clk_posedge; + +// Trasmitter +output uart_XMIT_dataH; +input xmitH; +input [7:0] xmit_dataH; +output xmit_doneH; + +// Receiver +input uart_REC_dataH; +output [7:0] rec_dataH; +output rec_readyH; + +wire baud_clk_posedge; +wire [7:0] rec_dataH; +wire rec_readyH; + + + +// Instantiate the Transmitter +u_xmit_of_verifla txd1 ( + .clk_i(sys_clk), + .rst_i(!sys_rst_l), + .baud_clk_posedge(baud_clk_posedge), + .data_i(xmit_dataH), + .wen_i(xmitH), + .txd_o(uart_XMIT_dataH), + .tre_o(xmit_doneH) + ); +/* +u_xmit iXMIT( .sys_clk(baud_clk), + .sys_rst_l(sys_rst_l), + + .uart_xmitH(uart_XMIT_dataH), + .xmitH(xmitH), + .xmit_dataH(xmit_dataH), + .xmit_doneH(xmit_doneH) + ); +*/ + +// Instantiate the Receiver +u_rec_of_verifla rxd1( + .clk_i(sys_clk), + .rst_i(!sys_rst_l),//system signal + .baud_clk_posedge(baud_clk_posedge), + .rxd_i(uart_REC_dataH),//serial data in + .rdy_o (rec_readyH), .data_o(rec_dataH) //data ready and parallel data out signal + ); +/* +u_rec iRECEIVER (// system connections + .sys_rst_l(sys_rst_l), + .sys_clk(baud_clk), + // uart + .uart_dataH(uart_REC_dataH), + .rec_dataH(rec_dataH), + .rec_readyH(rec_readyH) + ); +*/ + +// Instantiate the Baud Rate Generator + +baud_of_verifla baud1( .sys_clk(sys_clk), + .sys_rst_l(sys_rst_l), + .baud_clk_posedge(baud_clk_posedge) + ); + +/* +reg [2:0] baud_clk_vec=0; +always @(posedge sys_clk or negedge sys_rst_l) +begin + if(~sys_rst_l) + baud_clk_vec = 0; + else + baud_clk_vec = {baud_clk_vec[1:0], baud_clk}; +end +wire baud_clk_posedge; +assign baud_clk_posedge=baud_clk_vec[2:1]==2'b01; +*/ +endmodule

openverifla_2.3.b/verilog/verifla/uart_of_verifla.v Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/vhdl/keyboard/keyboard.ucf =================================================================== --- openverifla_2.3.b/vhdl/keyboard/keyboard.ucf (nonexistent) +++ openverifla_2.3.b/vhdl/keyboard/keyboard.ucf (revision 42) @@ -0,0 +1,28 @@ +#NET "switch[0]" LOC="L13"; +#NET "switch[1]" LOC="L14"; +#NET "switch[2]" LOC="H18"; +#NET "switch[3]" LOC="N17"; + +NET "clk" LOC = "C9"; +NET "reset" LOC = "L13"; + +NET "kbd_data_line" LOC = "G13"; +NET "kbd_clk" LOC = "G14"; + +#NET "J1_0" LOC = "N15"; +#NET "J1_1" LOC = "N14"; +#NET "J1_2" LOC = "E15"; +#NET "J1_3" LOC = "V7"; + +#leds +NET "kbd_key[0]" LOC="D4"; +NET "kbd_key[1]" LOC="C3"; +NET "kbd_key[2]" LOC="D6"; +NET "kbd_key[3]" LOC="E6"; +NET "kbd_key[4]" LOC="D13"; +NET "kbd_key[5]" LOC="A7"; +NET "kbd_key[6]" LOC="G9"; +NET "kbd_key[7]" LOC="A8"; + +NET "uart_REC_dataH" LOC = "R13"; +NET "uart_XMIT_dataH" LOC = "P13";

openverifla_2.3.b/vhdl/keyboard/keyboard.ucf Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/vhdl/keyboard/keyboard.vhd =================================================================== --- openverifla_2.3.b/vhdl/keyboard/keyboard.vhd (nonexistent) +++ openverifla_2.3.b/vhdl/keyboard/keyboard.vhd (revision 42) @@ -0,0 +1,84 @@ +-- keyboad driver +----------------------------------------------------- + +library IEEE; +use IEEE.STD_LOGIC_1164.ALL; +use IEEE.NUMERIC_STD.ALL; +--use ieee.std_logic_arith.all; +--use ieee.std_logic_unsigned.all; + +----------------------------------------------------- + +entity keyboard is +port( kbd_data_line, kbd_clk: in std_logic; + kbd_key: out std_logic_vector(7 downto 0); + clk, reset: in std_logic; + uart_XMIT_dataH: out std_logic; + uart_REC_dataH: in std_logic +); +end keyboard; + +----------------------------------------------------- + +architecture keyboard_arch of keyboard is + + -- define the states of keyboard_arch model + signal i: std_logic_vector(3 downto 0); + signal kbd_clk_buf: std_logic_vector(2 downto 0) :="000"; + signal negedge_kbd_clk: std_logic :='0'; + signal kbd_key_reg: std_logic_vector(7 downto 0); + signal cnt: std_logic_vector(5 downto 0); + signal verifla_data_in : std_logic_vector(15 downto 0); +begin + + p1: process(clk) begin + if(rising_edge(clk)) then + kbd_clk_buf <= kbd_clk_buf(1 downto 0) & kbd_clk; + end if; + end process; + negedge_kbd_clk <= '1' when (kbd_clk_buf(2 downto 1) = "10") else '0'; + + -- process: state registers + state_reg: process(clk, reset) + begin + if (reset='1') then + i <= "1010"; + kbd_key_reg <= x"00"; + elsif (rising_edge(clk)) then + if (negedge_kbd_clk = '1') then + if ((i >= x"0") and (i <= x"7")) then + kbd_key_reg <= kbd_data_line & kbd_key_reg(7 downto 1); + i <= std_logic_vector((unsigned(i)+"0001")); + elsif ((i = x"8") or (i = x"9")) then + i <= std_logic_vector((unsigned(i)+"0001")); + else + i <= x"0"; + end if; + end if; + end if; + end process; + kbd_key <= kbd_key_reg; + + -- Simple counter + state_reg_cnt: process(clk, reset) + begin + if (reset='1') then + cnt <= "000000"; + elsif (rising_edge(clk)) then + if(negedge_kbd_clk = '1') then + cnt <= std_logic_vector(unsigned(cnt)+"000001"); + end if; + end if; + end process; + + -- openVeriFLA + verifla_data_in <= cnt & kbd_data_line & kbd_clk & kbd_key_reg; + --(15 downto 10 => '0') & kbd_data_line & kbd_clk & kbd_key_reg; + verifla: entity work.top_of_verifla(top_of_verifla_arch) + port map (clk=>clk, rst_l=>not(reset), sys_run=>'1', + data_in=>verifla_data_in, + -- Transceiver + uart_XMIT_dataH => uart_XMIT_dataH, + uart_REC_dataH => uart_REC_dataH); + +end keyboard_arch; Index: openverifla_2.3.b/vhdl/keyboard/keyboard_driver_test.vhd =================================================================== --- openverifla_2.3.b/vhdl/keyboard/keyboard_driver_test.vhd (nonexistent) +++ openverifla_2.3.b/vhdl/keyboard/keyboard_driver_test.vhd (revision 42) @@ -0,0 +1,103 @@ +----------------------------------------------------------------- +-- Booth algorithm for multiplication +-- author: Laurentiu Duca +----------------------------------------------------------------- + +library ieee; +--use ieee.std_logic_arith.all; +--use ieee.std_logic_unsigned.all; +use ieee.std_logic_1164.all; + +entity keyboard_driver_test is -- entity declaration +end keyboard_driver_test; + +----------------------------------------------------------------- + +architecture keyboard_driver_test_arch of keyboard_driver_test is + +-- This test module is wrote +-- in the following scenario: the driver is on the FPGA and the keyboard +-- is attached to the FPGA development board + + signal kbd_key:std_logic_vector(7 downto 0); +-- This signals must explicitly added to the simulation. +-- For debugging purposes, also add the register named "i" from the keyboard driver + signal reset, clk: std_logic; + signal kbd_clk, kbd_data_line: std_logic; + signal uart_XMIT_dataH: std_logic; + signal uart_REC_dataH: std_logic :='1'; + --signal i: std_logic_vector(64 downto 0); + + signal stop_simulation: std_logic := '0'; + +begin + + keyboard1: entity work.keyboard(keyboard_arch) + port map(kbd_data_line=>kbd_data_line, kbd_clk=>kbd_clk, kbd_key=>kbd_key, + clk=>clk, reset=>reset, + --top_of_verifla transceiver + uart_XMIT_dataH=>uart_XMIT_dataH, uart_REC_dataH=>uart_REC_dataH); + + process + begin + if stop_simulation = '0' then + clk <= '1'; -- clock cycle 10 ns + wait for 5 ns; + clk <= '0'; + wait for 5 ns; + else + wait; + end if; + end process; + + -- Reset the driver by using the reset button of the FPGA board. + process + begin + reset <= '1'; + wait for 10 ns; + reset <= '0'; + wait for 10 ns; + wait; + end process; + + -- Now, simulate the keyboard. + -- Consider the keyboard clock period to be about 10 units. + process + begin + -- At the begining, the line is idle for some periods. + kbd_clk<='1'; kbd_data_line<='1'; wait for 2050 ns; wait for 2050 ns; + + -- When a key is pressed, the keyboard sends its scan code + -- on the data line. For the 'a' key, the scan code is 1Ch=00011100b. + -- The order is LSb first, so the bits are sent in the following order: 00111000. + -- Simulate pressing the 'a' key. + -- Send start bit. + kbd_clk<='1'; wait for 250 ns; kbd_data_line<='0'; wait for 250 ns; kbd_clk<='0'; wait for 500 ns; + -- Send the scan code + kbd_clk<='1'; wait for 250 ns; kbd_data_line<='0'; wait for 250 ns; kbd_clk<='0'; wait for 500 ns; + kbd_clk<='1'; wait for 250 ns; kbd_data_line<='0'; wait for 250 ns; kbd_clk<='0'; wait for 500 ns; + kbd_clk<='1'; wait for 250 ns; kbd_data_line<='1'; wait for 250 ns; kbd_clk<='0'; wait for 500 ns; + kbd_clk<='1'; wait for 250 ns; kbd_data_line<='1'; wait for 250 ns; kbd_clk<='0'; wait for 500 ns; + kbd_clk<='1'; wait for 250 ns; kbd_data_line<='1'; wait for 250 ns; kbd_clk<='0'; wait for 500 ns; + kbd_clk<='1'; wait for 250 ns; kbd_data_line<='0'; wait for 250 ns; kbd_clk<='0'; wait for 500 ns; + kbd_clk<='1'; wait for 250 ns; kbd_data_line<='0'; wait for 250 ns; kbd_clk<='0'; wait for 500 ns; + kbd_clk<='1'; wait for 250 ns; kbd_data_line<='0'; wait for 250 ns; kbd_clk<='0'; wait for 500 ns; + -- Send the parity bit which is '1' for the 'a' key. + kbd_clk<='1'; wait for 250 ns; kbd_data_line<='1'; wait for 250 ns; kbd_clk<='0'; wait for 500 ns; + -- Send the stop bit. + kbd_clk<='1'; wait for 250 ns; kbd_data_line<='1'; wait for 250 ns; kbd_clk<='0'; wait for 500 ns; + -- Put the line idle for some periods. + kbd_clk<='1'; kbd_data_line<='1'; wait for 2050 ns; wait for 2050 ns; + wait for 1000 ns; + -- When the 'a' key - that is now pressed, + -- will be released, then the keyboard will send F0h, 1Ch. + -- We do not simulate this because the process is similar. + + -- stop simulation. + -- assert false report "end of simulation" severity failure; + stop_simulation <= '1'; + wait; + + end process; + +end keyboard_driver_test_arch;

openverifla_2.3.b/vhdl/keyboard/keyboard_driver_test.vhd Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/vhdl/verifla/baud_of_verifla.vhd =================================================================== --- openverifla_2.3.b/vhdl/verifla/baud_of_verifla.vhd (nonexistent) +++ openverifla_2.3.b/vhdl/verifla/baud_of_verifla.vhd (revision 42) @@ -0,0 +1,67 @@ +-- 20180816-1450 +-- baud rate generator +-- author: Laurentiu Duca +----------------------------------------------------- + +library IEEE; +use IEEE.STD_LOGIC_1164.ALL; +use IEEE.NUMERIC_STD.ALL; +--use ieee.std_logic_arith.all; +use ieee.std_logic_unsigned.all; +use work.inc_of_verifla.all; + +----------------------------------------------------- + +entity baud_of_verifla is +port( sys_clk, sys_rst_l:in std_logic; + baud_clk_posedge: out std_logic +); +end baud_of_verifla; + +----------------------------------------------------- + +architecture baud_of_verifla_arch of baud_of_verifla is + + -- This were moved to inc_of_verifla.vhd + --constant CLOCK_FREQUENCY: integer := 50000000; + --constant BPS: integer := 115200; + -- 1s ... 50000000 T1 + -- 1bit ... 16 T2 + -- 1s .. 115200 bits + -- => + -- 1s .. 115200 * 16 T2 + -- + -- T2 = 5000000 T1 / (115200 * 16) = T1 * 50000000 / (115200 * 16) + --constant T2_div_T1_div_2: integer := (CLOCK_FREQUENCY / (BPS * 16 * 2)); + -- COUNTER_SIZE = log2(T2_T1_div_2) bits + --constant BAUD_COUNTER_SIZE: integer := 15; + + signal counter: std_logic_vector((BAUD_COUNTER_SIZE-1) downto 0); + signal baud_clk, baud_clk_posedge_reg: std_logic; + +begin + + baud_clk_posedge <= baud_clk_posedge_reg; + + state_reg: process(sys_clk, sys_rst_l) + begin + if (sys_rst_l='0') then + baud_clk <= '0'; + baud_clk_posedge_reg <= '0'; + counter <= std_logic_vector(to_unsigned(0, BAUD_COUNTER_SIZE)); --x"00000000"; + elsif (rising_edge(sys_clk)) then + if (counter < std_logic_vector(to_unsigned(T2_div_T1_div_2, BAUD_COUNTER_SIZE))) then + counter <= counter + std_logic_vector(to_unsigned(1, BAUD_COUNTER_SIZE)); + baud_clk <= baud_clk; + baud_clk_posedge_reg <= '0'; + else + if (baud_clk = '0') then + baud_clk_posedge_reg <= '1'; + end if; + counter <= std_logic_vector(to_unsigned(0, BAUD_COUNTER_SIZE)); + baud_clk <= not(baud_clk); + end if; + end if; + end process; + +end baud_of_verifla_arch; \ No newline at end of file

openverifla_2.3.b/vhdl/verifla/baud_of_verifla.vhd Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/vhdl/verifla/common_internal_verifla.vhd =================================================================== --- openverifla_2.3.b/vhdl/verifla/common_internal_verifla.vhd (nonexistent) +++ openverifla_2.3.b/vhdl/verifla/common_internal_verifla.vhd (revision 42) @@ -0,0 +1,55 @@ +-- date: 20180821-1530 +-- author: Laurentiu Duca +--------------------------------------------------------------------------- + +library IEEE; +use IEEE.STD_LOGIC_1164.ALL; +use IEEE.NUMERIC_STD.ALL; +--use ieee.std_logic_arith.all; +--use ieee.std_logic_unsigned.all; + +--------------------------------------------------------------------------- + +package common_internal_verifla is + +-- Data input width and indentical samples bits must be multiple of 8. +constant LA_DATA_INPUT_WORDLEN_BITS: integer :=16; + +-- Trigger +constant LA_TRIGGER_VALUE: std_logic_vector((LA_DATA_INPUT_WORDLEN_BITS-1) downto 0) + :=(others => '0'); +constant LA_TRIGGER_MASK: std_logic_vector((LA_DATA_INPUT_WORDLEN_BITS-1) downto 0) + :=(LA_DATA_INPUT_WORDLEN_BITS-7 downto LA_DATA_INPUT_WORDLEN_BITS-8 => '1', + others => '0'); +constant LA_TRACE_MASK: std_logic_vector((LA_DATA_INPUT_WORDLEN_BITS-1) downto 0) + :=(others => '1'); + +constant LA_MEM_CLEAN_BEFORE_RUN: integer :=1; +constant LA_IDENTICAL_SAMPLES_BITS: integer :=16; +constant LA_MEM_WORDLEN_BITS: integer :=(LA_DATA_INPUT_WORDLEN_BITS+LA_IDENTICAL_SAMPLES_BITS); +constant LA_MEM_WORDLEN_OCTETS: integer :=((LA_MEM_WORDLEN_BITS+7)/8); +constant LA_MEM_ADDRESS_BITS: integer :=6; +constant LA_MEM_FIRST_ADDR: integer := 0; +constant LA_MEM_LAST_ADDR: integer := 2 ** LA_MEM_ADDRESS_BITS - 1; + +constant LA_BT_QUEUE_TAIL_ADDRESS: integer :=LA_MEM_LAST_ADDR; +-- constraint: (LA_MEM_FIRST_ADDR + 4) <= LA_TRIGGER_MATCH_MEM_ADDR <= (LA_MEM_LAST_ADDR - 4) +constant LA_TRIGGER_MATCH_MEM_ADDR: integer := 2 ** (LA_MEM_ADDRESS_BITS - 3); +constant LA_MEM_LAST_ADDR_BEFORE_TRIGGER: integer := LA_TRIGGER_MATCH_MEM_ADDR - 1; +constant LA_MAX_SAMPLES_AFTER_TRIGGER_BITS: integer :=26; +constant LA_MAX_SAMPLES_AFTER_TRIGGER: integer := 2 ** (LA_MAX_SAMPLES_AFTER_TRIGGER_BITS-1) - 1; + +-- Identical samples +constant LA_MAX_IDENTICAL_SAMPLES: integer := 2 ** LA_IDENTICAL_SAMPLES_BITS - 2; + +--Reserved mem words +-- LA_MEM_EMPTY_SLOT which represents an empty and not used memory slot. +--It has sense if LA_MEM_CLEAN_BEFORE_RUN and +-- a) when the trigger event arrives before the filling of the full btqueue. +-- b) after the trigger event and after capturing LA_MAX_SAMPLES_AFTER_TRIGGER + +--`define LA_INIT_MEM_AT_RESET: instead of this verilog define we have two architectures for memory. +constant LA_MEM_EMPTY_SLOT: std_logic_vector(LA_MEM_WORDLEN_BITS-1 downto 0) + := (others => '0'); + +end common_internal_verifla;

openverifla_2.3.b/vhdl/verifla/common_internal_verifla.vhd Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/vhdl/verifla/computer_input_of_verifla.vhd =================================================================== --- openverifla_2.3.b/vhdl/verifla/computer_input_of_verifla.vhd (nonexistent) +++ openverifla_2.3.b/vhdl/verifla/computer_input_of_verifla.vhd (revision 42) @@ -0,0 +1,79 @@ +-- 20180820-1740 +-- Author: Laurentiu Duca +-- License: GNU GPL +----------------------------------------------------- + +library IEEE; +use IEEE.STD_LOGIC_1164.ALL; +use IEEE.NUMERIC_STD.ALL; +--use ieee.std_logic_arith.all; +use ieee.std_logic_unsigned.all; +use work.common_internal_verifla.all; + +----------------------------------------------------- + +entity computer_input_of_verifla is + port (clk, rst_l: in std_logic; + rec_dataH: in std_logic_vector(7 downto 0); + rec_readyH: in std_logic; + user_run: out std_logic); +end computer_input_of_verifla; + +----------------------------------------------------- + +architecture computer_input_of_verifla_arch of computer_input_of_verifla is + +--constant USERCMD_RESET: std_logic_vector(7 downto 0) :=x"00"; +constant USERCMD_RUN: std_logic_vector(7 downto 0) :=x"01"; +type state_type is (CI_STATE_IDLE, CI_STATE_START_OF_NEW_CMD); +signal ci_state, next_ci_state: state_type; +signal ci_indata, next_ci_indata: std_logic_vector(7 downto 0); +signal ci_new_octet_received:std_logic; +signal next_user_run: std_logic; + +begin + + -- T(clk)<clk, rst_l=>rst_l, ub=>rec_readyH, ubsing=>ci_new_octet_received); + + -- set up next value + state_reg: process(clk, rst_l) + begin + if (rst_l='0') then + ci_state<=CI_STATE_IDLE; + ci_indata<=x"00"; + user_run <= '0'; + elsif (rising_edge(clk)) then + ci_state<=next_ci_state; + ci_indata<=next_ci_indata; + user_run <= next_user_run; + end if; + end process; + + -- state machine + comb_logic: process(ci_new_octet_received, rec_dataH, ci_state, ci_indata) + begin + -- implicit + next_ci_state <= ci_state; + next_ci_indata <= x"00"; + next_user_run <= '0'; + case ci_state is + when CI_STATE_IDLE => + if(ci_new_octet_received = '1') then + next_ci_indata <= rec_dataH; + next_ci_state <= CI_STATE_START_OF_NEW_CMD; + else + next_ci_state<=CI_STATE_IDLE; + end if; + when CI_STATE_START_OF_NEW_CMD => + next_ci_state<=CI_STATE_IDLE; + if (ci_indata = USERCMD_RUN) then + next_user_run<='1'; + end if; + when others => + -- this is forced by the vhdl compiler + end case; + end process; + +end computer_input_of_verifla_arch;

openverifla_2.3.b/vhdl/verifla/computer_input_of_verifla.vhd Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/vhdl/verifla/inc_of_verifla.vhd =================================================================== --- openverifla_2.3.b/vhdl/verifla/inc_of_verifla.vhd (nonexistent) +++ openverifla_2.3.b/vhdl/verifla/inc_of_verifla.vhd (revision 42) @@ -0,0 +1,30 @@ +--library IEEE; +--use IEEE.STD_LOGIC_1164.ALL; +--use IEEE.NUMERIC_STD.ALL; +--use ieee.std_logic_arith.all; +--use ieee.std_logic_unsigned.all; + +--------------------------------------------------------------------------- + +package inc_of_verifla is + +constant CLOCK_FREQUENCY: integer := 50000000; +constant BAUDRATE: integer := 115200; + +constant T2_div_T1_div_2: integer := (CLOCK_FREQUENCY / (BAUDRATE * 16 * 2)); +-- Assert: BAUD_COUNTER_SIZE >= log2(T2_div_T1_div_2) bits +constant BAUD_COUNTER_SIZE: integer := 15; + +-- 1s ... 50000000 T1 +-- 1bit ... 16 T2 +-- 1s .. 115200 bits +-- => +-- 1s .. 115200 * 16 T2 +-- +-- T2 = 5000000 T1 / (115200 * 16) = T1 * 50000000 / (115200 * 16) + +end inc_of_verifla; + +package body inc_of_verifla is + +end inc_of_verifla; Index: openverifla_2.3.b/vhdl/verifla/memory_of_verifla.vhd =================================================================== --- openverifla_2.3.b/vhdl/verifla/memory_of_verifla.vhd (nonexistent) +++ openverifla_2.3.b/vhdl/verifla/memory_of_verifla.vhd (revision 42) @@ -0,0 +1,96 @@ +-- 20180820-1740 +-- Author: Laurentiu Duca +-- License: GNU GPL +----------------------------------------------------- + +library IEEE; +use IEEE.STD_LOGIC_1164.ALL; +use IEEE.NUMERIC_STD.ALL; +--use ieee.std_logic_arith.all; +use ieee.std_logic_unsigned.all; +use work.common_internal_verifla.all; + +----------------------------------------------------- + +entity memory_of_verifla is port( + clk, rst_l: in std_logic; + addra: in std_logic_vector(LA_MEM_ADDRESS_BITS-1 downto 0); + wea: in std_logic; + dina: in std_logic_vector(LA_MEM_WORDLEN_BITS-1 downto 0); + addrb: in std_logic_vector(LA_MEM_ADDRESS_BITS-1 downto 0); + doutb: out std_logic_vector(LA_MEM_WORDLEN_BITS-1 downto 0) +); +end memory_of_verifla; +----------------------------------------------------- + +architecture memory_of_verifla_arch of memory_of_verifla is + +type reg_array is array (0 to LA_MEM_LAST_ADDR) of std_logic_vector(LA_MEM_WORDLEN_BITS-1 downto 0); + +impure function init_mem(n: in integer) return reg_array is + variable temp_mem : reg_array; +begin + for i in reg_array'range loop + temp_mem(i) := LA_MEM_EMPTY_SLOT; --std_logic_vector(to_unsigned(0, LA_MEM_WORDLEN_BITS)); + end loop; + return temp_mem; +end function; + +signal mem: reg_array := init_mem(0); + +begin + -- doutb <= mem(to_integer(unsigned(addrb))); + -- This works too as a consequence of send_capture_of_verifla architecture. + p0: process(clk, rst_l) + begin + if(rst_l = '0') then + doutb <= LA_MEM_EMPTY_SLOT; + elsif(rising_edge(clk)) then + doutb <= mem(to_integer(unsigned(addrb))); + end if; + end process; + + p1: process(clk) + begin + if(rising_edge(clk)) then + if(wea = '1') then + mem(to_integer(unsigned(addra))) <= dina; + end if; + end if; + end process; + +end memory_of_verifla_arch; +----------------------------------------------------- + +architecture memory_of_verifla_clean_at_reset_arch of memory_of_verifla is + +type reg_array is array (0 to LA_MEM_LAST_ADDR) of std_logic_vector(LA_MEM_WORDLEN_BITS-1 downto 0); +signal mem: reg_array; +--signal i: integer; + +begin + -- doutb <= mem(to_integer(unsigned(addrb))); + -- This works too as a consequence of send_capture_of_verifla architecture. + p0: process(clk, rst_l) + begin + if(rst_l = '0') then + doutb <= LA_MEM_EMPTY_SLOT; + elsif(rising_edge(clk)) then + doutb <= mem(to_integer(unsigned(addrb))); + end if; + end process; + + p1: process(clk, rst_l) + begin + if(rst_l = '0') then + for i in 0 to LA_MEM_LAST_ADDR loop + mem(i) <= LA_MEM_EMPTY_SLOT; + end loop; + elsif(rising_edge(clk)) then + if(wea = '1') then + mem(to_integer(unsigned(addra))) <= dina; + end if; + end if; + end process; + +end memory_of_verifla_clean_at_reset_arch;

openverifla_2.3.b/vhdl/verifla/memory_of_verifla.vhd Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/vhdl/verifla/monitor_of_verifla.vhd =================================================================== --- openverifla_2.3.b/vhdl/verifla/monitor_of_verifla.vhd (nonexistent) +++ openverifla_2.3.b/vhdl/verifla/monitor_of_verifla.vhd (revision 42) @@ -0,0 +1,337 @@ +-- Author: Laurentiu Duca +-- License: GNU GPL +-- 20181016-1225 +-- LA_TRACE_MASK +-- 20180826-1740 +-- split mon_run in sys_run and user_run +-- 20180820-1500 +-- first source +----------------------------------------------------- + +library IEEE; +use IEEE.STD_LOGIC_1164.ALL; +use IEEE.NUMERIC_STD.ALL; +--use ieee.std_logic_arith.all; +--use ieee.std_logic_unsigned.all; +use work.common_internal_verifla.all; + +----------------------------------------------------- + +entity monitor_of_verifla is + port (clk, rst_l: in std_logic; + sys_run, user_run: in std_logic; + data_in: in std_logic_vector(LA_DATA_INPUT_WORDLEN_BITS-1 downto 0); + mem_port_A_address: out std_logic_vector(LA_MEM_ADDRESS_BITS-1 downto 0); + mem_port_A_data_in: out std_logic_vector(LA_MEM_WORDLEN_BITS-1 downto 0); + mem_port_A_wen: out std_logic; + ack_sc_run, sc_done: in std_logic; + sc_run: out std_logic); +end monitor_of_verifla; + +----------------------------------------------------- + +architecture monitor_of_verifla_arch of monitor_of_verifla is + + constant LA_MEM_FIRST_ADDR_SLV: std_logic_vector(LA_MEM_ADDRESS_BITS-1 downto 0) + := std_logic_vector(to_unsigned(LA_MEM_FIRST_ADDR, LA_MEM_ADDRESS_BITS)); + constant LA_MEM_LAST_ADDR_SLV: std_logic_vector(LA_MEM_ADDRESS_BITS-1 downto 0) + := std_logic_vector(to_unsigned(LA_MEM_LAST_ADDR, LA_MEM_ADDRESS_BITS)); + constant LA_BT_QUEUE_TAIL_ADDRESS_SLV: std_logic_vector(LA_MEM_ADDRESS_BITS-1 downto 0) + := LA_MEM_LAST_ADDR_SLV; + constant LA_TRIGGER_MATCH_MEM_ADDR_SLV: std_logic_vector(LA_MEM_ADDRESS_BITS-1 downto 0) + := std_logic_vector(to_unsigned(LA_TRIGGER_MATCH_MEM_ADDR, LA_MEM_ADDRESS_BITS)); + constant LA_MEM_LAST_ADDR_BEFORE_TRIGGER_SLV: std_logic_vector(LA_MEM_ADDRESS_BITS-1 downto 0) + := std_logic_vector(to_unsigned(LA_MEM_LAST_ADDR_BEFORE_TRIGGER, LA_MEM_ADDRESS_BITS)); + + --type state_type is (MON_STATE_IDLE, MON_STATE_DO_MEM_CLEAN, MON_STATE_PREPARE_RUN, + --MON_STATE_WAIT_TRIGGER_MATCH, MON_STATE_AFTER_TRIGGER, MON_STATE_DATA_CAPTURED, + --MON_STATE_SC_RUN, MON_STATE_WAIT_SC_DONE); + -- This way, at reset we can set any start state. + constant MON_STATE_IDLE: integer :=0; + constant MON_STATE_DO_MEM_CLEAN: integer :=1; + constant MON_STATE_PREPARE_RUN: integer :=2; + constant MON_STATE_WAIT_TRIGGER_MATCH: integer :=3; + constant MON_STATE_AFTER_TRIGGER: integer :=4; + constant MON_STATE_DATA_CAPTURED: integer :=5; + constant MON_STATE_SC_RUN: integer :=6; + constant MON_STATE_WAIT_SC_DONE: integer :=7; + + signal sys_run_reg: std_logic; + signal sc_run_aux, next_sc_run_aux: std_logic; + signal mon_state, next_mon_state: integer; -- state_type; + signal next_mon_samples_after_trigger, mon_samples_after_trigger: + std_logic_vector(LA_MAX_SAMPLES_AFTER_TRIGGER_BITS-1 downto 0); + signal next_mon_write_address, mon_write_address: + std_logic_vector(LA_MEM_ADDRESS_BITS-1 downto 0); + signal next_bt_queue_tail_address, bt_queue_tail_address: std_logic_vector(LA_MEM_ADDRESS_BITS-1 downto 0); + signal mon_old_data_in, mon_current_data_in: std_logic_vector(LA_DATA_INPUT_WORDLEN_BITS-1 downto 0); + signal mon_clones_nr, next_mon_clones_nr: std_logic_vector(LA_IDENTICAL_SAMPLES_BITS-1 downto 0); + signal one_plus_mon_write_address:std_logic_vector(LA_MEM_ADDRESS_BITS-1 downto 0); + signal oneplus_mon_clones_nr:std_logic_vector(LA_IDENTICAL_SAMPLES_BITS-1 downto 0); + signal data_in_changed: std_logic; + signal last_mem_addr_before_trigger: std_logic; + signal not_maximum_mon_clones_nr: std_logic; + +begin + + -- Register the input data + -- such that mon_current_data_in is constant the full clock period. + register_input_data: process(clk, rst_l) + begin + if (rst_l='0') then + mon_old_data_in <= (others => '0'); + mon_current_data_in <= (others => '0'); + sys_run_reg <= '0'; + elsif (rising_edge(clk)) then + mon_old_data_in <= mon_current_data_in; + mon_current_data_in <= data_in; + sys_run_reg <= sys_run; + end if; + end process; + + -- set new values + state_reg: process(clk, rst_l) + begin + if (rst_l='0') then + mon_state <= MON_STATE_IDLE; + sc_run_aux <= '0'; + mon_write_address <= std_logic_vector(to_unsigned(LA_MEM_FIRST_ADDR, LA_MEM_ADDRESS_BITS)); + bt_queue_tail_address <= (others => '0'); + mon_samples_after_trigger <= (others => '0'); + mon_clones_nr <= ((LA_IDENTICAL_SAMPLES_BITS-1) downto 1 => '0', others => '1'); + elsif (rising_edge(clk)) then + mon_state <= next_mon_state; + sc_run_aux <= next_sc_run_aux; + mon_write_address <= next_mon_write_address; + bt_queue_tail_address <= next_bt_queue_tail_address; + mon_samples_after_trigger <= next_mon_samples_after_trigger; + mon_clones_nr <= next_mon_clones_nr; + end if; + end process; + + -- continuous assignments + one_plus_mon_write_address <= + std_logic_vector(to_unsigned(to_integer(unsigned(mon_write_address)) + 1, LA_MEM_ADDRESS_BITS)); + oneplus_mon_clones_nr <= + std_logic_vector(to_unsigned(to_integer(unsigned(mon_clones_nr)) + 1, LA_IDENTICAL_SAMPLES_BITS)); + data_in_changed <= '1' when ((mon_current_data_in and LA_TRACE_MASK) /= (mon_old_data_in and LA_TRACE_MASK)) else '0'; + last_mem_addr_before_trigger <= + '1' when (to_integer(unsigned(mon_write_address)) = LA_MEM_LAST_ADDR_BEFORE_TRIGGER) else '0'; + not_maximum_mon_clones_nr <= + '1' when (to_integer(unsigned(mon_clones_nr)) < LA_MAX_IDENTICAL_SAMPLES) else '0'; + sc_run <= sc_run_aux; + + -- state machine + comb_logic: process(mon_state, sys_run_reg, user_run, ack_sc_run, sc_done, sc_run_aux, + mon_write_address, bt_queue_tail_address, mon_samples_after_trigger, + mon_current_data_in, mon_old_data_in, mon_clones_nr, + data_in_changed, oneplus_mon_clones_nr, one_plus_mon_write_address, + not_maximum_mon_clones_nr, last_mem_addr_before_trigger) + begin + -- implicit + next_mon_state <= mon_state; + next_sc_run_aux <= sc_run_aux; + next_mon_write_address <= mon_write_address; + next_bt_queue_tail_address <= bt_queue_tail_address; + next_mon_samples_after_trigger <= mon_samples_after_trigger; + next_mon_clones_nr <= mon_clones_nr; + mem_port_A_address <= (others => '0'); + mem_port_A_data_in <= (others => '0'); + mem_port_A_wen <= '0'; + case mon_state is + when MON_STATE_IDLE => + if((sys_run_reg = '1') or (user_run = '1')) then + if((LA_MEM_CLEAN_BEFORE_RUN = 1) or (user_run = '1')) then + next_mon_write_address <= LA_MEM_FIRST_ADDR_SLV; + next_mon_state <= MON_STATE_DO_MEM_CLEAN; + else + -- mon_prepare_run is called from states MON_STATE_IDLE and MON_STATE_PREPARE_RUN + -- we share the same clock as memory. + mem_port_A_address <= LA_MEM_FIRST_ADDR_SLV; + mem_port_A_data_in <= + std_logic_vector(to_unsigned(0, LA_IDENTICAL_SAMPLES_BITS-1)) & '1' & mon_current_data_in; + --{{(LA_IDENTICAL_SAMPLES_BITS-1){1'b0}}, 1'b1, mon_current_data_in}; + mem_port_A_wen <= '1'; + next_mon_write_address <= LA_MEM_FIRST_ADDR_SLV; + next_mon_clones_nr <= std_logic_vector(to_unsigned(2, LA_IDENTICAL_SAMPLES_BITS)); + next_mon_state <= MON_STATE_WAIT_TRIGGER_MATCH; + end if; + else + next_mon_state <= MON_STATE_IDLE; + end if; + when MON_STATE_DO_MEM_CLEAN => + mem_port_A_address <= mon_write_address; + mem_port_A_data_in <= LA_MEM_EMPTY_SLOT; + mem_port_A_wen <= '1'; + if(to_integer(unsigned(mon_write_address)) < LA_MEM_LAST_ADDR) then + next_mon_write_address <= std_logic_vector(to_unsigned(to_integer(unsigned(mon_write_address)) + 1, + LA_MEM_ADDRESS_BITS)); + next_mon_state <= MON_STATE_DO_MEM_CLEAN; + else + -- at the new posedge clock, will clean memory at its last address + next_mon_state <= MON_STATE_PREPARE_RUN; + end if; + when MON_STATE_PREPARE_RUN => + -- mon_prepare_run is called from states MON_STATE_IDLE and MON_STATE_PREPARE_RUN + -- we share the same clock as memory. + mem_port_A_address <= LA_MEM_FIRST_ADDR_SLV; + mem_port_A_data_in <= + std_logic_vector(to_unsigned(0, LA_IDENTICAL_SAMPLES_BITS-1)) & '1' & mon_current_data_in; + --{{(LA_IDENTICAL_SAMPLES_BITS-1){1'b0}}, 1'b1, mon_current_data_in}; + mem_port_A_wen <= '1'; + next_mon_write_address <= LA_MEM_FIRST_ADDR_SLV; + next_mon_clones_nr <= std_logic_vector(to_unsigned(2, LA_IDENTICAL_SAMPLES_BITS)); + next_mon_state <= MON_STATE_WAIT_TRIGGER_MATCH; + when MON_STATE_WAIT_TRIGGER_MATCH => + -- circular queue + if((mon_current_data_in and LA_TRIGGER_MASK) /= (LA_TRIGGER_VALUE and LA_TRIGGER_MASK)) then + next_mon_state <= MON_STATE_WAIT_TRIGGER_MATCH; + mem_port_A_wen <= '1'; + if(data_in_changed = '1') then + if(last_mem_addr_before_trigger = '1') then + mem_port_A_address <= LA_MEM_FIRST_ADDR_SLV; + else + mem_port_A_address <= one_plus_mon_write_address; + end if; + else + if(not_maximum_mon_clones_nr = '1') then + mem_port_A_address <= mon_write_address; + else + if(last_mem_addr_before_trigger = '1') then + mem_port_A_address <= LA_MEM_FIRST_ADDR_SLV; + else + mem_port_A_address <= one_plus_mon_write_address; + end if; + end if; + end if; + if(data_in_changed = '1') then + mem_port_A_data_in <= + std_logic_vector(to_unsigned(0, LA_IDENTICAL_SAMPLES_BITS-1)) & '1' & mon_current_data_in; + --{{(LA_IDENTICAL_SAMPLES_BITS-1){1'b0}}, 1'b1, mon_current_data_in} + else + if(not_maximum_mon_clones_nr = '1') then + mem_port_A_data_in <= mon_clones_nr & mon_current_data_in; + else + mem_port_A_data_in <= + std_logic_vector(to_unsigned(0, LA_IDENTICAL_SAMPLES_BITS-1)) & '1' & mon_current_data_in; + -- {{(LA_IDENTICAL_SAMPLES_BITS-1){1'b0}}, 1'b1, mon_current_data_in} + end if; + end if; + if(data_in_changed = '1') then + next_mon_clones_nr <= std_logic_vector(to_unsigned(2, LA_IDENTICAL_SAMPLES_BITS)); + else + if(not_maximum_mon_clones_nr = '1') then + next_mon_clones_nr <= oneplus_mon_clones_nr; + else + next_mon_clones_nr <= std_logic_vector(to_unsigned(2, LA_IDENTICAL_SAMPLES_BITS)); + end if; + end if; + if(data_in_changed = '1') then + if(last_mem_addr_before_trigger = '1') then + next_mon_write_address <= LA_MEM_FIRST_ADDR_SLV; + else + next_mon_write_address <= one_plus_mon_write_address; + end if; + else + if(not_maximum_mon_clones_nr = '1') then + next_mon_write_address <= mon_write_address; + else + if(last_mem_addr_before_trigger = '1') then + next_mon_write_address <= LA_MEM_FIRST_ADDR_SLV; + else + next_mon_write_address <= one_plus_mon_write_address; + end if; + end if; + end if; + else + -- trigger matched + next_mon_state <= MON_STATE_AFTER_TRIGGER; + mem_port_A_address <= LA_TRIGGER_MATCH_MEM_ADDR_SLV; + mem_port_A_data_in <= + std_logic_vector(to_unsigned(0, LA_IDENTICAL_SAMPLES_BITS-1)) & '1' & mon_current_data_in; + -- {{{(LA_IDENTICAL_SAMPLES_BITS-1){1'b0}}, 1'b1}, mon_current_data_in}; + mem_port_A_wen <= '1'; + next_mon_write_address <= LA_TRIGGER_MATCH_MEM_ADDR_SLV; + next_mon_clones_nr <= std_logic_vector(to_unsigned(2, LA_IDENTICAL_SAMPLES_BITS)); + next_bt_queue_tail_address <= mon_write_address; + next_mon_samples_after_trigger <= std_logic_vector(to_unsigned(1, LA_MAX_SAMPLES_AFTER_TRIGGER_BITS)); + end if; + when MON_STATE_AFTER_TRIGGER => + if((to_integer(unsigned(mon_samples_after_trigger)) < LA_MAX_SAMPLES_AFTER_TRIGGER) and + (to_integer(unsigned(mon_write_address)) < LA_MEM_LAST_ADDR)) then + mem_port_A_wen <= '1'; + if(data_in_changed = '1') then + mem_port_A_address <= one_plus_mon_write_address; + else + if(not_maximum_mon_clones_nr = '1') then + mem_port_A_address <= mon_write_address; + else + mem_port_A_address <= one_plus_mon_write_address; + end if; + end if; + if(data_in_changed = '1') then + mem_port_A_data_in <= + std_logic_vector(to_unsigned(0, LA_IDENTICAL_SAMPLES_BITS-1)) & '1' & mon_current_data_in; + --{{(LA_IDENTICAL_SAMPLES_BITS-1){1'b0}}, 1'b1, mon_current_data_in} : + else + if(not_maximum_mon_clones_nr = '1') then + mem_port_A_data_in <= mon_clones_nr & mon_current_data_in; + else + mem_port_A_data_in <= + std_logic_vector(to_unsigned(0, LA_IDENTICAL_SAMPLES_BITS-1)) & '1' & mon_current_data_in; + --{{(LA_IDENTICAL_SAMPLES_BITS-1){1'b0}}, 1'b1, mon_current_data_in}); + end if; + end if; + if(data_in_changed = '1') then + next_mon_clones_nr <= std_logic_vector(to_unsigned(2, LA_IDENTICAL_SAMPLES_BITS)); + else + if(not_maximum_mon_clones_nr = '1') then + next_mon_clones_nr <= oneplus_mon_clones_nr; + else + next_mon_clones_nr <= std_logic_vector(to_unsigned(2, LA_IDENTICAL_SAMPLES_BITS)); + end if; + end if; + if(data_in_changed = '1') then + next_mon_write_address <= one_plus_mon_write_address; + else + if(not_maximum_mon_clones_nr = '1') then + next_mon_write_address <= mon_write_address; + else + next_mon_write_address <= one_plus_mon_write_address; + end if; + end if; + next_mon_samples_after_trigger <= + std_logic_vector(to_unsigned(to_integer(unsigned(mon_samples_after_trigger)+1), + LA_MAX_SAMPLES_AFTER_TRIGGER_BITS)); + next_mon_state <= MON_STATE_AFTER_TRIGGER; + else + mem_port_A_wen <= '0'; + next_mon_state <= MON_STATE_DATA_CAPTURED; + end if; + when MON_STATE_DATA_CAPTURED => + -- Save bt_queue_tail_address + mem_port_A_address <= LA_BT_QUEUE_TAIL_ADDRESS_SLV; + mem_port_A_data_in <= + std_logic_vector(to_unsigned(0, LA_MEM_WORDLEN_BITS-LA_MEM_ADDRESS_BITS)) & bt_queue_tail_address; + -- {{(LA_MEM_WORDLEN_BITS-LA_MEM_ADDRESS_BITS){1'b0}}, bt_queue_tail_address}; + mem_port_A_wen <= '1'; + next_mon_state <= MON_STATE_SC_RUN; + when MON_STATE_SC_RUN => + next_mon_state <= MON_STATE_WAIT_SC_DONE; + next_sc_run_aux <= '1'; + when MON_STATE_WAIT_SC_DONE => + -- sc_run must already be 1. + if(ack_sc_run = '1') then + next_sc_run_aux <= '0'; + end if; + if((sc_run_aux = '0') and (sc_done = '1')) then + next_mon_state <= MON_STATE_IDLE; + else + next_mon_state <= MON_STATE_WAIT_SC_DONE; + end if; + when others => + -- this is forced by the vhdl compiler + end case; + end process; + +end monitor_of_verifla_arch;

openverifla_2.3.b/vhdl/verifla/monitor_of_verifla.vhd Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/vhdl/verifla/send_capture_of_verifla.vhd =================================================================== --- openverifla_2.3.b/vhdl/verifla/send_capture_of_verifla.vhd (nonexistent) +++ openverifla_2.3.b/vhdl/verifla/send_capture_of_verifla.vhd (revision 42) @@ -0,0 +1,130 @@ +-- 20180820-1740 +-- Author: Laurentiu Duca +-- License: GNU GPL +----------------------------------------------------- + +library IEEE; +use IEEE.STD_LOGIC_1164.ALL; +use IEEE.NUMERIC_STD.ALL; +--use ieee.std_logic_arith.all; +--use ieee.std_logic_unsigned.all; +use work.common_internal_verifla.all; + +----------------------------------------------------- + +entity send_capture_of_verifla is + port (clk, rst_l, baud_clk_posedge: in std_logic; + sc_run: in std_logic; + ack_sc_run, sc_done: out std_logic; + mem_port_B_address: out std_logic_vector(LA_MEM_ADDRESS_BITS-1 downto 0); + mem_port_B_dout: in std_logic_vector(LA_MEM_WORDLEN_BITS-1 downto 0); + xmit_doneH: in std_logic; + xmitH: out std_logic; + xmit_dataH: out std_logic_vector(7 downto 0)); +end send_capture_of_verifla; + +----------------------------------------------------- + +architecture send_capture_of_verifla_arch of send_capture_of_verifla is + + constant LA_MEM_LAST_ADDR_SLV: std_logic_vector(LA_MEM_ADDRESS_BITS-1 downto 0) + := std_logic_vector(to_unsigned(LA_MEM_LAST_ADDR, LA_MEM_ADDRESS_BITS)); + constant USERCMD_RESET: std_logic_vector(7 downto 0) :=x"00"; + constant USERCMD_RUN: std_logic_vector(7 downto 0) :=x"01"; + type state_type is (SC_STATE_IDLE, SC_STATE_ACK_SC_RUN, + SC_STATE_SET_MEMADDR_TO_READ_FROM, SC_STATE_GET_MEM_OUTPUT_DATA, + SC_STATE_SEND_OCTET, SC_STATE_WAIT_OCTET_SENT, SC_STATE_WORD_SENT); + + signal sc_state, next_sc_state: state_type; + signal sc_current_address, next_sc_current_address: std_logic_vector(LA_MEM_ADDRESS_BITS-1 downto 0); + signal sc_octet_id, next_sc_octet_id:std_logic_vector(LA_MEM_WORDLEN_OCTETS-1 downto 0); + signal sc_word_bits, next_sc_word_bits: std_logic_vector(LA_MEM_WORDLEN_BITS-1 downto 0); + +begin + + -- set up next value + state_reg: process(clk, rst_l) + begin + if (rst_l='0') then + sc_state<=SC_STATE_IDLE; + sc_current_address<=(others => '0'); + sc_word_bits<=(others => '0'); + sc_octet_id<= (others => '0'); + elsif (rising_edge(clk)) then + if (baud_clk_posedge = '1') then + sc_state <= next_sc_state; + sc_current_address <= next_sc_current_address; + sc_word_bits <= next_sc_word_bits; + sc_octet_id <= next_sc_octet_id; + end if; + end if; + end process; + + -- state machine + comb_logic: process(sc_state, sc_run, xmit_doneH, + sc_current_address, sc_word_bits, sc_octet_id, mem_port_B_dout) + begin + -- implicit + next_sc_state<=sc_state; + ack_sc_run<='0'; + sc_done<='0'; + xmit_dataH<=(others => '0'); + xmitH<='0'; + mem_port_B_address<=sc_current_address; + next_sc_current_address<=sc_current_address; + next_sc_word_bits<=sc_word_bits; + next_sc_octet_id<=sc_octet_id; + case sc_state is + when SC_STATE_IDLE => + if(sc_run = '1') then + next_sc_state <= SC_STATE_ACK_SC_RUN; + next_sc_current_address <= LA_MEM_LAST_ADDR_SLV; + else + next_sc_state <= SC_STATE_IDLE; + end if; + when SC_STATE_ACK_SC_RUN => + ack_sc_run <= '1'; + next_sc_state <= SC_STATE_SET_MEMADDR_TO_READ_FROM; + when SC_STATE_SET_MEMADDR_TO_READ_FROM => + mem_port_B_address <= sc_current_address; + -- next clock cycle we have memory dout of our read. + next_sc_state <= SC_STATE_GET_MEM_OUTPUT_DATA; + when SC_STATE_GET_MEM_OUTPUT_DATA => + next_sc_word_bits <= mem_port_B_dout; + -- LSB first + next_sc_octet_id <= (others => '0'); + next_sc_state <= SC_STATE_SEND_OCTET; + when SC_STATE_SEND_OCTET => + xmit_dataH <= sc_word_bits(7 downto 0); + next_sc_word_bits <= x"00" & sc_word_bits(LA_MEM_WORDLEN_BITS-1 downto 8); + -- shift_right(unsigned(sc_word_bits),8); + xmitH <= '1'; + next_sc_octet_id <= std_logic_vector(to_unsigned( + to_integer(unsigned(sc_octet_id))+1, LA_MEM_WORDLEN_OCTETS)); + next_sc_state <= SC_STATE_WAIT_OCTET_SENT; + when SC_STATE_WAIT_OCTET_SENT => + if(xmit_doneH = '1') then + if(to_integer(unsigned(sc_octet_id)) < LA_MEM_WORDLEN_OCTETS) then + next_sc_state <= SC_STATE_SEND_OCTET; + else + next_sc_state <= SC_STATE_WORD_SENT; + end if; + else + next_sc_state <= SC_STATE_WAIT_OCTET_SENT; + end if; + when SC_STATE_WORD_SENT => + if(to_integer(unsigned(sc_current_address)) > LA_MEM_FIRST_ADDR) then + next_sc_current_address <= std_logic_vector(to_unsigned( + to_integer(unsigned(sc_current_address))-1, LA_MEM_ADDRESS_BITS)); + next_sc_state <= SC_STATE_SET_MEMADDR_TO_READ_FROM; + else + -- done sending all captured data + sc_done <= '1'; + next_sc_state <= SC_STATE_IDLE; + end if; + when others => + -- this is forced by the vhdl compiler + end case; + end process; + +end send_capture_of_verifla_arch;

openverifla_2.3.b/vhdl/verifla/send_capture_of_verifla.vhd Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/vhdl/verifla/single_pulse_of_verifla.vhd =================================================================== --- openverifla_2.3.b/vhdl/verifla/single_pulse_of_verifla.vhd (nonexistent) +++ openverifla_2.3.b/vhdl/verifla/single_pulse_of_verifla.vhd (revision 42) @@ -0,0 +1,66 @@ +----------------------------------------------------- +-- single pulse from a multi-periods-contiguous pulse +-- date: 20180820-1700 +-- author: Laurentiu Duca +----------------------------------------------------- + +library IEEE; +use IEEE.STD_LOGIC_1164.ALL; +use IEEE.NUMERIC_STD.ALL; +--use ieee.std_logic_arith.all; +--use ieee.std_logic_unsigned.all; + +----------------------------------------------------- + +entity single_pulse_of_verifla is +port( clk, rst_l: in std_logic; + ub: in std_logic; + ubsing: out std_logic +); +end single_pulse_of_verifla; + +----------------------------------------------------- + +architecture single_pulse_of_verifla_arch of single_pulse_of_verifla is + + signal next_state, state: std_logic; + signal ubsing_reg, next_ubsing_reg: std_logic; + +begin + ubsing <= ubsing_reg; + + state_reg: process(clk, rst_l) + begin + if (rst_l='0') then + state <= '0'; + ubsing_reg <= '0'; + elsif (rising_edge(clk)) then + state <= next_state; + ubsing_reg <= next_ubsing_reg; + end if; + end process; + + comb_logic: process(state, ub) + begin + next_state <= state; + next_ubsing_reg <= '0'; + case state is + when '0' => + if (ub = '1') then + next_state <= '1'; + next_ubsing_reg <= '1'; + end if; + when '1' => + if (ub = '0') then + next_state <= '0'; + end if; + when others => + -- this is forced by the vhdl compiler + --next_state <= '0'; + --next_ubsing_reg <= '0'; + end case; + end process; + +end single_pulse_of_verifla_arch; + +----------------------------------------------------- Index: openverifla_2.3.b/vhdl/verifla/top_of_verifla.vhd =================================================================== --- openverifla_2.3.b/vhdl/verifla/top_of_verifla.vhd (nonexistent) +++ openverifla_2.3.b/vhdl/verifla/top_of_verifla.vhd (revision 42) @@ -0,0 +1,71 @@ +-- 20180820-1740 +-- Author: Laurentiu Duca +-- License: GNU GPL +----------------------------------------------------- + +library IEEE; +use IEEE.STD_LOGIC_1164.ALL; +use IEEE.NUMERIC_STD.ALL; +--use ieee.std_logic_arith.all; +use ieee.std_logic_unsigned.all; +use work.common_internal_verifla.all; + +----------------------------------------------------- + +entity top_of_verifla is + port (clk, rst_l, sys_run: in std_logic; + data_in: in std_logic_vector(LA_DATA_INPUT_WORDLEN_BITS-1 downto 0); + -- Transceiver + uart_XMIT_dataH: out std_logic; + uart_REC_dataH: in std_logic); +end top_of_verifla; + +----------------------------------------------------- + +architecture top_of_verifla_arch of top_of_verifla is + + signal mem_port_A_data_in, mem_port_B_dout: std_logic_vector(LA_MEM_WORDLEN_BITS-1 downto 0); + signal mem_port_A_address, mem_port_B_address: std_logic_vector (LA_MEM_ADDRESS_BITS-1 downto 0) ; + signal mem_port_A_wen: std_logic; + signal user_run: std_logic; + signal sc_run, ack_sc_run, sc_done: std_logic; + -- Transmitter + signal xmit_dataH: std_logic_vector(7 downto 0); + signal xmit_doneH, xmitH: std_logic; + -- Receiver + signal rec_dataH: std_logic_vector(7 downto 0); + signal rec_readyH: std_logic; + -- Baud + signal baud_clk_posedge: std_logic; + +begin + iUART: entity work.uart_of_verifla(uart_of_verifla_arch) + port map(clk, rst_l, baud_clk_posedge, + -- Transmitter + uart_XMIT_dataH, xmitH, xmit_dataH, xmit_doneH, + -- Receiver + uart_REC_dataH, rec_dataH, rec_readyH); + mi: entity work.memory_of_verifla(memory_of_verifla_arch) + port map (addra => mem_port_A_address, addrb => mem_port_B_address, + clk=>clk, rst_l=>rst_l, + dina=>mem_port_A_data_in, doutb=>mem_port_B_dout, + wea=>mem_port_A_wen); + + ci: entity work.computer_input_of_verifla(computer_input_of_verifla_arch) + port map (clk, rst_l, rec_dataH, rec_readyH, user_run); + + mon: entity work.monitor_of_verifla(monitor_of_verifla_arch) + port map (clk, rst_l, + sys_run, user_run, data_in, + mem_port_A_address, mem_port_A_data_in, mem_port_A_wen, + ack_sc_run, sc_done, sc_run); + + -- send_capture_of_verifla must use the same reset as the uart. + sc: entity work.send_capture_of_verifla(send_capture_of_verifla_arch) + port map (clk, rst_l, baud_clk_posedge, + sc_run, ack_sc_run, sc_done, + mem_port_B_address, mem_port_B_dout, + xmit_doneH, xmitH, xmit_dataH); + +end top_of_verifla_arch; +

openverifla_2.3.b/vhdl/verifla/top_of_verifla.vhd Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/vhdl/verifla/u_rec_of_verifla.vhd =================================================================== --- openverifla_2.3.b/vhdl/verifla/u_rec_of_verifla.vhd (nonexistent) +++ openverifla_2.3.b/vhdl/verifla/u_rec_of_verifla.vhd (revision 42) @@ -0,0 +1,98 @@ +-- date: 20180816_1740 +-- author: Laurentiu Duca +-- license: GNU GPL +----------------------------------------------------- + +library IEEE; +use IEEE.STD_LOGIC_1164.ALL; +use IEEE.NUMERIC_STD.ALL; +--use ieee.std_logic_arith.all; +--use ieee.std_logic_unsigned.all; + +----------------------------------------------------- + + +entity u_rec_of_verifla is +port( clk_i, rst_i, baud_clk_posedge: in std_logic; + rxd_i: in std_logic; -- serial data in + rdy_o: out std_logic; + data_o:out std_logic_vector(7 downto 0) +); +end u_rec_of_verifla; + +----------------------------------------------------- + +architecture u_rec_of_verifla_arch of u_rec_of_verifla is + + type state_type is (STA_IDLE, STA_CHECK_START_BIT, STA_RECEIVE); + signal rdy_o_reg: std_logic; + signal data_o_reg: std_logic_vector(7 downto 0); + signal rsr: std_logic_vector(7 downto 0); -- receiving shift reg + signal num_of_rec: std_logic_vector(3 downto 0); + signal reg_sta: state_type; + signal count: std_logic_vector(4 downto 0); -- the counter to count the clk in + --signal count_c: std_logic; -- the carry of count + +begin + + rdy_o <= rdy_o_reg; + data_o <= data_o_reg; + + state_reg: process(clk_i, rst_i) + begin + if (rst_i='1') then + data_o_reg <= x"00"; + rdy_o_reg <= '0'; + rsr <= x"00"; + num_of_rec <= "0000"; + count <= "00000"; + --count_c <= '0'; + reg_sta <= STA_IDLE; + elsif (rising_edge(clk_i)) then + if(baud_clk_posedge = '1') then + case reg_sta is + when STA_IDLE => + num_of_rec <= x"0"; + count <= "00000"; + if(rxd_i = '0') then + reg_sta <= STA_CHECK_START_BIT; + else + reg_sta <= STA_IDLE; + end if; + when STA_CHECK_START_BIT => + if(count >= "00111") then + count <= "00000"; + if(rxd_i = '0') then + -- has passed 8 clk and rxd_i is still zero,then start bit has been confirmed + rdy_o_reg <= '0'; + reg_sta <= STA_RECEIVE; + else + reg_sta <= STA_IDLE; + end if; + else + reg_sta <= STA_CHECK_START_BIT; + count <= std_logic_vector(unsigned(count)+"00001"); + end if; + when STA_RECEIVE => + count <= std_logic_vector(unsigned('0' & count(3 downto 0))+"00001"); + if(count(4) = '1') then + -- has passed 16 clk after the last bit has been checked,sampling a bit + if(num_of_rec <= x"7") then + -- sampling the received bit + rsr <= rxd_i & rsr(7 downto 1); + num_of_rec <= std_logic_vector(unsigned(num_of_rec)+"0001"); + reg_sta <= STA_RECEIVE; + else + -- sample the stop bit + data_o_reg <= rsr; + rdy_o_reg <= '1'; + reg_sta <= STA_IDLE; + end if; + end if; + when others => + -- this is forced by the vhdl compiler + end case; + end if; + end if; + end process; +end u_rec_of_verifla_arch;

openverifla_2.3.b/vhdl/verifla/u_rec_of_verifla.vhd Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/vhdl/verifla/u_xmit_of_verifla.vhd =================================================================== --- openverifla_2.3.b/vhdl/verifla/u_xmit_of_verifla.vhd (nonexistent) +++ openverifla_2.3.b/vhdl/verifla/u_xmit_of_verifla.vhd (revision 42) @@ -0,0 +1,87 @@ +-- 20180816-1600 +-- author: Laurentiu Duca +-- license: GNU GPL +----------------------------------------------------- + +library IEEE; +use IEEE.STD_LOGIC_1164.ALL; +use IEEE.NUMERIC_STD.ALL; +--use ieee.std_logic_arith.all; +--use ieee.std_logic_unsigned.all; + +----------------------------------------------------- + + +entity u_xmit_of_verifla is +port( clk_i, rst_i, baud_clk_posedge: in std_logic; + data_i:in std_logic_vector(7 downto 0); + wen_i: in std_logic; + txd_o, tre_o: out std_logic +); +end u_xmit_of_verifla; + +----------------------------------------------------- + +architecture u_xmit_of_verifla_arch of u_xmit_of_verifla is + + type state_type is (STA_IDLE, STA_TRANS, STA_FINISH); + signal txd_o_reg, tre_o_reg: std_logic; + signal tsr: std_logic_vector(7 downto 0); -- transmitting shift register + signal num_of_trans: std_logic_vector(3 downto 0); + signal reg_sta: state_type; + signal count: std_logic_vector(4 downto 0); -- the counter to count the clk in + --signal count_c: std_logic; -- the carry of count + +begin + + txd_o <= txd_o_reg; + tre_o <= tre_o_reg; + + state_reg: process(clk_i, rst_i) + begin + if (rst_i='1') then + tsr <= x"00"; + txd_o_reg <= '1'; + tre_o_reg <= '1'; + num_of_trans <= "0000"; + --count_c <= '0'; + count <= "00000"; + reg_sta <= STA_IDLE; + elsif (rising_edge(clk_i)) then + if(baud_clk_posedge = '1') then + case reg_sta is + when STA_IDLE => + num_of_trans <= "0000"; + count <= "00000"; + --count_c <= '0'; + if (wen_i = '1') then + tsr <= data_i; + tre_o_reg <= '0'; + txd_o_reg <= '0'; + reg_sta <= STA_TRANS; + else + reg_sta <= STA_IDLE; + end if; + when STA_TRANS => + count <= std_logic_vector(unsigned('0' & count(3 downto 0)) + "00001"); + if(count(4) = '1') then + if(num_of_trans <= x"8") then + -- note ,when num_of_trans==8 ,we transmit the stop bit + tsr <= '1' & tsr(7 downto 1); + txd_o_reg <= tsr(0); + num_of_trans <= std_logic_vector(unsigned(num_of_trans) + "0001"); + reg_sta <= STA_TRANS; + else + txd_o_reg <= '1'; + tre_o_reg <= '1'; + reg_sta <= STA_IDLE; + end if; + end if; + when others => + -- this is forced by the vhdl compiler + end case; + end if; + end if; + end process; + +end u_xmit_of_verifla_arch; \ No newline at end of file

openverifla_2.3.b/vhdl/verifla/u_xmit_of_verifla.vhd Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property Index: openverifla_2.3.b/vhdl/verifla/uart_of_verifla.vhd =================================================================== --- openverifla_2.3.b/vhdl/verifla/uart_of_verifla.vhd (nonexistent) +++ openverifla_2.3.b/vhdl/verifla/uart_of_verifla.vhd (revision 42) @@ -0,0 +1,50 @@ +-- uart_of_verifla +-- date: 20180816_1740 +-- author: Laurentiu Duca +-- license: GNU GPL +----------------------------------------------------- + +library IEEE; +use IEEE.STD_LOGIC_1164.ALL; +use IEEE.NUMERIC_STD.ALL; +--use ieee.std_logic_arith.all; +--use ieee.std_logic_unsigned.all; + +----------------------------------------------------- + +entity uart_of_verifla is +port( sys_clk, sys_rst_l: in std_logic; + baud_clk_posedge: out std_logic; + uart_XMIT_dataH: out std_logic; + xmitH: in std_logic; + xmit_dataH: in std_logic_vector(7 downto 0); + xmit_doneH: out std_logic; + uart_REC_dataH: in std_logic; + rec_dataH: out std_logic_vector(7 downto 0); + rec_readyH: out std_logic +); +end uart_of_verifla; + +----------------------------------------------------- + +architecture uart_of_verifla_arch of uart_of_verifla is + + signal sys_rst: std_logic; + signal baud_clk_posedge_wire: std_logic; + +begin + sys_rst <= not sys_rst_l; + baud_clk_posedge <= baud_clk_posedge_wire; + + txd1: entity work.u_xmit_of_verifla(u_xmit_of_verifla_arch) + port map(clk_i => sys_clk, rst_i =>sys_rst, baud_clk_posedge => baud_clk_posedge_wire, + data_i => xmit_dataH, wen_i => xmitH, txd_o => uart_XMIT_dataH, tre_o => xmit_doneH); + + rxd1: entity work.u_rec_of_verifla(u_rec_of_verifla_arch) + port map(clk_i => sys_clk, rst_i => sys_rst, baud_clk_posedge => baud_clk_posedge_wire, + rxd_i => uart_REC_dataH, rdy_o => rec_readyH, data_o => rec_dataH); + + baud1: entity work.baud_of_verifla(baud_of_verifla_arch) + port map(sys_clk => sys_clk, sys_rst_l => sys_rst_l, baud_clk_posedge => baud_clk_posedge_wire); + +end uart_of_verifla_arch;

openverifla_2.3.b/vhdl/verifla/uart_of_verifla.vhd Property changes : Added: svn:executable ## -0,0 +1 ## +* \ No newline at end of property