Subversion Repositories pcie_ds_dma

#ifndef __PEX_BOARD_H__

#include "pex_board.h"

#endif

#ifndef __DMA_MEMORY__H__

#include "dma_memory.h"

#endif

//-----------------------------------------------------------------------------

#include <stdio.h>

#include <stdlib.h>

#include <fcntl.h>

#include <errno.h>

#include <sys/mman.h>

#include <sys/ioctl.h>

#include <cassert>

#include <cstdlib>

#include <cstring>

#include <iostream>

#include <iomanip>

#include <climits>

//-----------------------------------------------------------------------------

using namespace std;

//-----------------------------------------------------------------------------

pex_board::pex_board()

{

    fd = -1;

    bar0 = bar1 = NULL;

    memset(&bi, 0, sizeof(bi));

    m_dma = new dma_memory();

}

//-----------------------------------------------------------------------------

pex_board::~pex_board()

{

    if(m_dma) delete m_dma;

    core_close();

}

//-----------------------------------------------------------------------------

int pex_board::core_open(const char *name)

{

    int error = 0;

    if(fd > 0)

        return 0;

    fd = open(name, S_IROTH | S_IWOTH );

    if(fd < 0) {

        std::cerr << __FUNCTION__ << "(): " << " error open device: " << name << endl;

        goto do_out;

    }

    error = core_board_info();

    if(error < 0) {

        std::cerr << __FUNCTION__ << "(): " << " error get board info" << endl;

        goto do_close;

    }

    bar0 = (u32*)mmap(NULL, bi.Size[0], PROT_READ|PROT_WRITE, MAP_SHARED, fd, (off_t)bi.PhysAddress[0]);

    if( bar0 == MAP_FAILED ) {

        std::cerr << __FUNCTION__ << "(): " << " error map bar0 address" << endl;

        error = -EINVAL;

        goto do_close;

    }

    bar1 = (u32*)mmap(NULL, bi.Size[1], PROT_READ|PROT_WRITE, MAP_SHARED, fd, (off_t)bi.PhysAddress[1]);

    if( bar1== MAP_FAILED ) {

        std::cerr << __FUNCTION__ << "(): " << " error map bar1 address" << endl;

        error = -EINVAL;

        goto do_unmap_bar0;

    }

    std::cout << "Map BAR0: 0x" << hex << bi.PhysAddress[0] << " -> " << bar0 << dec << endl;

    std::cout << "Map BAR1: 0x" << hex << bi.PhysAddress[1] << " -> " << bar1 << dec << endl;

    return 0;

do_unmap_bar0:

    munmap(bar0, bi.Size[0]);

do_close:

    close(fd);

do_out:

    return error;

}

//-----------------------------------------------------------------------------

int pex_board::core_init()

{

    uint16_t temp = 0;

    uint16_t blockId = 0;

    uint16_t blockVer = 0;

    uint16_t deviceID = 0;

    uint16_t deviceRev = 0;

    int i = 0;

    fprintf(stderr,"%s()\n", __FUNCTION__);

    blockId =  core_block_read( 0, 0 );

    blockVer = core_block_read( 0, 1 );

    fprintf(stderr,"%s(): BlockID = 0x%X, BlockVER = 0x%X.\n", __FUNCTION__, blockId, blockVer);

    deviceID = core_block_read(  0, 2 );

    deviceRev = core_block_read( 0, 3 );

    fprintf(stderr,"%s(): DeviceID = 0x%X, DeviceRev = 0x%X.\n", __FUNCTION__, deviceID, deviceRev);

    temp = core_block_read( 0, 4 );

    int m_BlockCnt = core_block_read( 0, 5 );

    if( m_BlockCnt>8 ) {

        m_BlockCnt=8;

    }

    fprintf(stderr,"%s(): PldVER = 0x%X.\n", __FUNCTION__, temp);

    fprintf(stderr,"%s(): Block count = %d.\n", __FUNCTION__, m_BlockCnt);

    // определим какие каналы ПДП присутствуют и их характеристики:

    // направление передачи данных, размер FIFO, максимальный размер блока ПДП

    FIFO_ID FifoId;

    int m_DmaFifoSize[4] = {0};

    int m_MaxDmaSize[4] = {0};

    int m_DmaDir[4] = {0};

    int m_DmaChanMask = 0;

    for(int iBlock = 0; iBlock < m_BlockCnt; iBlock++)

    {

        uint16_t block_id = 0;

        block_id=core_block_read( iBlock, 0 );

        block_id &=0xFFF;

        if(block_id == PE_EXT_FIFO_ID)

        {

            u32 resource_id = 0;

            uint16_t iChan = core_block_read( iBlock, 3 );

            m_DmaChanMask |= (1 << iChan);

            FifoId.AsWhole = core_block_read( iBlock, 2 );

            m_DmaFifoSize[iChan] = FifoId.ByBits.Size;

            m_DmaDir[iChan] = FifoId.ByBits.Dir;

            m_MaxDmaSize[iChan] = 0x40000000; // макс. размер ПДП пусть будет 1 Гбайт

            resource_id = core_block_read( iBlock, 4 ); // RESOURCE

            fprintf(stderr,"%s(): Channel(ID) = %d(0x%x), FIFO size = %d Bytes, DMA Dir = %d, Max DMA size = %d MBytes, resource = 0x%x.\n", __FUNCTION__,

                    iChan, block_id, m_DmaFifoSize[iChan] * 4, m_DmaDir[iChan], m_MaxDmaSize[iChan] / 1024 / 1024, resource_id);

        }

    }

    // подготовим к работе ПЛИС ADM

    fprintf(stderr,"%s(): Prepare ADM PLD.\n", __FUNCTION__);

    core_block_write( 0, 8, 0);

    core_pause(100);    // pause ~ 100 msec

    for(i = 0; i < 10; i++)

    {

        core_block_write( 0, 8, 1);

        core_pause(100);        // pause ~ 100 msec

        core_block_write( 0, 8, 3);

        core_pause(100);        // pause ~ 100 msec

        core_block_write( 0, 8, 7);

        core_pause(100);        // pause ~ 100 msec

        temp = core_block_read( 0, 010 ) & 0x01;

        if(temp)

            break;

    }

    core_block_write( 0, 8, 0xF );

    core_pause(100);    // pause ~ 100 msec

    return 0;

}

//-----------------------------------------------------------------------------

int pex_board::core_reset()

{

    return 0;

}

//-----------------------------------------------------------------------------

int pex_board::core_close()

{

    if(bar0) {

        munmap(bar0, bi.Size[0]);

        bar0 = NULL;

    }

    if(bar1) {

        munmap(bar1, bi.Size[1]);

        bar1 = NULL;

    }

    close(fd);

    fd = -1;

    return 0;

}

//-----------------------------------------------------------------------------

int pex_board::core_load_dsp()

{

    return 0;

}

//-----------------------------------------------------------------------------

int pex_board::core_load_pld()

{

    return 0;

}

//-----------------------------------------------------------------------------

int pex_board::core_board_info()

{

    int error = ioctl(fd, IOCTL_PEX_BOARD_INFO, &bi);

    if(error < 0) {

        std::cerr << __FUNCTION__ << "(): " << " error get board info" << endl;

        return -1;

    }

/*

    fprintf(stderr, "VENDOR ID: 0x%X\n", bi.vendor_id);

    fprintf(stderr, "DEVICE ID: 0x%X\n", bi.device_id);

    fprintf(stderr, "BAR0: 0x%zX\n", bi.PhysAddress[0]);

    fprintf(stderr, "SIZE: 0x%zX\n", bi.Size[0]);

    fprintf(stderr, "BAR1 0x%zX\n", bi.PhysAddress[1]);

    fprintf(stderr, "SIZE: 0x%zX\n", bi.Size[1]);

    fprintf(stderr, "IRQ: 0x%zX\n", bi.InterruptVector);

*/

    return 0;

}

//-----------------------------------------------------------------------------

int pex_board::core_pld_info()

{

    u32 d = 0;

    u32 d1 = 0;

    u32 d2 = 0;

    u32 d3 = 0;

    u32 d4 = 0;

    u32 d5 = 0;

    int ii = 0;

    if(!bar1)

        return -1;

    fprintf(stderr," Firmware PLD ADM\n" );

    core_reg_poke_dir(0, 1, 1);

    core_reg_poke_dir(0, 1, 1);

    d=core_reg_peek_ind( 0, 0x108 );

    if( d==0x4953 ) {

        fprintf(stderr, " SIG = 0x%.4X - Ok\n", d );

    } else {

        fprintf(stderr, " SIG = 0x%.4X - Error, waiting 0x4953\n", d );

        return -1;

    }

    d=core_reg_peek_ind(  0, 0x109 );  fprintf(stderr, " ADM interface version:  %d.%d\n", d>>8, d&0xFF );

    d=core_reg_peek_ind(  0, 0x110 ); d1=core_reg_peek_ind(  0, 0x111 );

    fprintf(stderr,  " Base module: 0x%.4X  v%d.%d\n", d, d1>>8, d1&0xFF );

    d=core_reg_peek_ind(  0, 0x112 ); d1=core_reg_peek_ind(  0, 0x113 );

    fprintf(stderr,  " Submodule: 0x%.4X  v%d.%d\n", d, d1>>8, d1&0xFF );

    d=core_reg_peek_ind(  0, 0x10B );  fprintf(stderr,  " Firmware modificaton:  %d \n", d );

    d=core_reg_peek_ind(  0, 0x10A );  fprintf(stderr,  " Firmware version:       %d.%d\n", d>>8, d&0xFF );

    d=core_reg_peek_ind(  0, 0x114 );  fprintf(stderr,  " Firmware build number: 0x%.4X\n", d );

    fprintf(stderr,  "\n Information about the tetrads:\n\n" );

    for( ii=0; ii<8; ii++ ) {

        const char *str;

        d=core_reg_peek_ind(  ii, 0x100 );

        d1=core_reg_peek_ind(  ii, 0x101 );

        d2=core_reg_peek_ind(  ii, 0x102 );

        d3=core_reg_peek_ind(  ii, 0x103 );

        d4=core_reg_peek_ind(  ii, 0x104 );

        d5=core_reg_peek_ind(  ii, 0x105 );

        switch( d ) {

        case 1: str="TRD_MAIN      "; break;

        case 2: str="TRD_BASE_DAC  "; break;

        case 3: str="TRD_PIO_STD   "; break;

        case 0:    str=" -            "; break;

        case 0x47: str="SBSRAM_IN     "; break;

        case 0x48: str="SBSRAM_OUT    "; break;

        case 0x12: str="DIO64_OUT     "; break;

        case 0x13: str="DIO64_IN      "; break;

        case 0x14: str="ADM212x200M   "; break;

        case 0x5D: str="ADM212x500M   "; break;

        case 0x41: str="DDS9956       "; break;

        case 0x4F: str="TEST_CTRL     "; break;

        case 0x3F: str="ADM214x200M   "; break;

        case 0x40: str="ADM216x100    "; break;

        case 0x2F: str="ADM28x1G      "; break;

        case 0x2D: str="TRD128_OUT    "; break;

        case 0x4C: str="TRD128_IN     "; break;

        case 0x30: str="ADMDDC5016    "; break;

        case 0x2E: str="ADMFOTR2G     "; break;

        case 0x49: str="ADMFOTR3G     "; break;

        case 0x67: str="DDS9912       "; break;

        case 0x70: str="AMBPEX5_SDRAM "; break;

        case 0x71: str="TRD_MSG       "; break;

        case 0x72: str="TRD_TS201     "; break;

        case 0x73: str="TRD_STREAM_IN "; break;

        case 0x74: str="TRD_STREAM_OUT"; break;

        default: str="UNKNOWN"; break;

        }

        fprintf(stderr,  " %d  0x%.4X %s ", ii, d, str );

        if( d>0 ) {

            fprintf(stderr,  " MOD: %-2d VER: %d.%d ", d1, d2>>8, d2&0xFF );

            if( d3 & 0x10 ) {

                fprintf(stderr,  "FIFO IN   %dx%d\n", d4, d5 );

            } else if( d3 & 0x20 ) {

                fprintf(stderr,  "FIFO OUT  %dx%d\n", d4, d5 );

            } else {

                fprintf(stderr,  "\n" );

            }

        } else {

            fprintf(stderr,  "\n" );

        }

    }

    return 0;

}

//-----------------------------------------------------------------------------

int pex_board::core_resource()

{

    return 0;

}

//-----------------------------------------------------------------------------

void pex_board::core_pause(int ms)

{

    struct timeval tv = {0, 0};

    tv.tv_usec = 1000*ms;

    select(0,NULL,NULL,NULL,&tv);

}

//-----------------------------------------------------------------------------

u32 pex_board::core_reg_peek_dir( u32 trd, u32 reg )

{

    if( (trd>15) || (reg>3) )

        return -1;

    u32 offset = trd*0x4000 + reg*0x1000;

    u32 ret = *(bar1 + offset/4);

    return ret;

}

//-----------------------------------------------------------------------------

u32 pex_board::core_reg_peek_ind( u32 trd, u32 reg )

{

    if( (trd>15) || (reg>0x3FF) )

        return -1;

    u32 status;

    u32 Status  = trd*0x4000;

    u32 CmdAdr  = trd*0x4000 + 0x2000;

    u32 CmdData = trd*0x4000 + 0x3000;

    u32 ret;

    bar1[CmdAdr/4] = reg;

    for( int ii=0; ; ii++ ) {

        status = bar1[Status/4];

        if( status & 1 )

            break;

        if( ii>10000 )

            core_pause( 1 );

        if( ii>20000 ) {

            return 0xFFFF;

        }

    }

    ret = bar1[CmdData/4];

    ret &= 0xFFFF;

    return ret;

}

//-----------------------------------------------------------------------------

void pex_board::core_reg_poke_dir( u32 trd, u32 reg, u32 val )

{

    if( (trd>15) || (reg>3) )

        return;

    u32 offset = trd*0x4000+reg*0x1000;

    bar1[offset/4]=val;

}

//-----------------------------------------------------------------------------

void pex_board::core_reg_poke_ind( u32 trd, u32 reg, u32 val )

{

    if( (trd>15) || (reg>0x3FF) )

        return;

    u32 status;

    u32 Status  = trd*0x4000;

    u32 CmdAdr  = trd*0x4000 + 0x2000;

    u32 CmdData = trd*0x4000 + 0x3000;

    bar1[CmdAdr/4] = reg;

    for( int ii=0; ; ii++ ) {

        status = bar1[Status/4];

        if( status & 1 )

            break;

        if( ii>10000 )

            core_pause( 1 );

        if( ii>20000 ) {

            return;

        }

    }

    bar1[CmdData/4] = val;

}

//-----------------------------------------------------------------------------

u32  pex_board::core_bar0_read( u32 offset )

{

    return bar0[offset];

}

//-----------------------------------------------------------------------------

void pex_board::core_bar0_write( u32 offset, u32 val )

{

    bar0[offset] = val;

}

//-----------------------------------------------------------------------------

u32  pex_board::core_bar1_read( u32 offset )

{

    return bar1[offset];

}

//-----------------------------------------------------------------------------

void pex_board::core_bar1_write( u32 offset, u32 val )

{

    bar1[offset] = val;

}

//-----------------------------------------------------------------------------

void pex_board::core_block_write( u32 nb, u32 reg, u32 val )

{

    if( (nb>7) || (reg>31) )

        return;

    *(bar0+nb*64+reg*2)=val;

}

//-----------------------------------------------------------------------------

u32  pex_board::core_block_read( u32 nb, u32 reg )

{

    if( (nb>7) || (reg>31) )

        return -1;

    u32 ret = 0;

    ret=*(bar0+nb*64+reg*2);

    if( reg<8 )

        ret&=0xFFFF;

    return ret;

}

//-----------------------------------------------------------------------------

u32 pex_board::core_alloc(int DmaChan, BRDctrl_StreamCBufAlloc* sSCA)

{

    m_DescrSize[DmaChan] = sizeof(AMB_MEM_DMA_CHANNEL) + (sSCA->blkNum - 1) * sizeof(void*);

    m_Descr[DmaChan] = (AMB_MEM_DMA_CHANNEL*) new u8[m_DescrSize[DmaChan]];

    m_Descr[DmaChan]->DmaChanNum = DmaChan;

    m_Descr[DmaChan]->Direction = sSCA->dir;

    m_Descr[DmaChan]->LocalAddr = 0;

    m_Descr[DmaChan]->MemType = sSCA->isCont;

    m_Descr[DmaChan]->BlockCnt = sSCA->blkNum;

    m_Descr[DmaChan]->BlockSize = sSCA->blkSize;

    m_Descr[DmaChan]->pStub = NULL;

    for(u32 iBlk = 0; iBlk < sSCA->blkNum; iBlk++) {

            m_Descr[DmaChan]->pBlock[iBlk] = NULL;

    }

    if( ioctl(fd, IOCTL_AMB_SET_MEMIO, m_Descr[DmaChan]) < 0 ) {

        fprintf(stderr, "%s(): Error allocate memory\n", __FUNCTION__ );

        return -1;

    }

    for(u32 iBlk = 0; iBlk < m_Descr[DmaChan]->BlockCnt; iBlk++) {

        void *MappedAddress = mmap( NULL,

                                    m_Descr[DmaChan]->BlockSize,

                                    PROT_READ | PROT_WRITE,

                                    MAP_SHARED,

                                    fd,

                                    (off_t)m_Descr[DmaChan]->pBlock[iBlk] );

        if(MappedAddress == MAP_FAILED) {

            fprintf(stderr, "%s(): Error map memory\n", __FUNCTION__ );

            return -1;

        }

        fprintf(stderr,"%d: %p -> %p\n", iBlk, (void*)m_Descr[DmaChan]->pBlock[iBlk], MappedAddress);

        //сохраним отображенный в процесс физический адрес текущего блока

        m_Descr[DmaChan]->pBlock[iBlk] = MappedAddress;

        sSCA->ppBlk[iBlk] = MappedAddress;

/*

        u32 *buffer = (u32*)MappedAddress;

        for(u32 jj=0; jj<m_Descr[DmaChan]->BlockSize/4; jj+=0x100) {

            fprintf(stdout,"%x ", buffer[jj]);

        }

        fprintf(stdout,"\n");

*/

    }

    if(m_Descr[DmaChan]->pStub) {

        void *StubAddress = mmap( NULL,

                                  sizeof(AMB_STUB),

                                  PROT_READ | PROT_WRITE,

                                  MAP_SHARED,

                                  fd,

                                  (off_t)m_Descr[DmaChan]->pStub );

        if(StubAddress == MAP_FAILED) {

            fprintf(stderr, "%s(): Error map stub\n", __FUNCTION__ );

            return -1;

        }

        fprintf(stderr,"Stub: %p -> %p\n", (void*)m_Descr[DmaChan]->pStub, StubAddress);

        m_Descr[DmaChan]->pStub = StubAddress;

        sSCA->pStub = (BRDstrm_Stub*)m_Descr[DmaChan]->pStub;

    }

    //сохраним информацию в буфере пользователя

    sSCA->blkNum = m_Descr[DmaChan]->BlockCnt;

    return 0;

}

//-----------------------------------------------------------------------------

u32 pex_board::core_allocate_memory(int DmaChan, void** pBuf, u32 blkSize, u32 blkNum, u32 isSysMem, u32 dir, u32 addr)

{

    m_DescrSize[DmaChan] = sizeof(AMB_MEM_DMA_CHANNEL) + (blkNum - 1) * sizeof(void*);

    m_Descr[DmaChan] = (AMB_MEM_DMA_CHANNEL*) new u8[m_DescrSize[DmaChan]];

    m_Descr[DmaChan]->DmaChanNum = DmaChan;

    m_Descr[DmaChan]->Direction = dir;

    m_Descr[DmaChan]->LocalAddr = addr;

    m_Descr[DmaChan]->MemType = isSysMem;

    m_Descr[DmaChan]->BlockCnt = blkNum;

    m_Descr[DmaChan]->BlockSize = blkSize;

    m_Descr[DmaChan]->pStub = NULL;

    for(u32 iBlk = 0; iBlk < blkNum; iBlk++) {

            m_Descr[DmaChan]->pBlock[iBlk] = NULL;

    }

    if( ioctl(fd, IOCTL_AMB_SET_MEMIO, m_Descr[DmaChan]) < 0 ) {

        fprintf(stderr, "%s(): Error allocate memory\n", __FUNCTION__ );

        return -1;

    }

    for(u32 iBlk = 0; iBlk < blkNum; iBlk++) {

        void *MappedAddress = mmap( NULL,

                                    m_Descr[DmaChan]->BlockSize,

                                    PROT_READ | PROT_WRITE,

                                    MAP_SHARED,

                                    fd,

                                    (off_t)m_Descr[DmaChan]->pBlock[iBlk] );

        if(MappedAddress == MAP_FAILED) {

            fprintf(stderr, "%s(): Error map memory\n", __FUNCTION__ );

            return -1;

        }

        fprintf(stderr,"%d: %p -> %p\n", iBlk, (void*)m_Descr[DmaChan]->pBlock[iBlk], MappedAddress);

        //сохраним отображенный в процесс физический адрес текущего блока

        m_Descr[DmaChan]->pBlock[iBlk] = MappedAddress;

    }