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[/] [s6soc/] [trunk/] [sw/] [zipos/] [doorbell.c] - Diff between revs 27 and 29

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//
//
// Filename:    doorbell.c
// Filename:    doorbell.c
//
//
// Project:     CMod S6 System on a Chip, ZipCPU demonstration project
// Project:     CMod S6 System on a Chip, ZipCPU demonstration project
//
//
// Purpose:     
// Purpose:     This is the user program, or perhaps more appropriately
 
//              user program(s), associated with running the ZipOS on the
 
//      CMod-S6.  To run within the ZipOS, a user program must implement
 
//      two functions: kntasks() and kinit(TASKP *).  The first one is simple.
 
//      it simply returns the number of tasks the kernel needs to allocate 
 
//      space for.  The second routine needs to allocate space for each task,
 
//      set up any file descriptors associated with (each) task, and identify
 
//      the entry point of each task.  These are the only two routines
 
//      associated with user tasks called from kernel space.  Examples of each
 
//      are found within here.
//
//
// Creator:     Dan Gisselquist, Ph.D.
// Creator:     Dan Gisselquist, Ph.D.
//              Gisselquist Technology, LLC
//              Gisselquist Technology, LLC
//
//
////////////////////////////////////////////////////////////////////////////////
////////////////////////////////////////////////////////////////////////////////
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#include "errno.h"
#include "errno.h"
#include "swint.h"
#include "swint.h"
 
 
#include "../dev/display.h"
#include "../dev/display.h"
#include "../dev/rtcsim.h"
#include "../dev/rtcsim.h"
 
#include "../dev/keypad.h"
 
 
/* Our system will need some pipes to handle ... life.  How about these:
/* Our system will need some pipes to handle ... life.  How about these:
 *
 *
 *      rxpipe  - read()s from this pipe read from the UART
 *      rxpipe  - read()s from this pipe read from the UART
 *                      Interrupt fed
 *                      Interrupt fed
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 *                      Interrupt consumed
 *                      Interrupt consumed
 *      keypipe - read()s from this pipe return values read by the keypad
 *      keypipe - read()s from this pipe return values read by the keypad
 *      lcdpipe - write()s to this pipe write to the LCD display SPI port
 *      lcdpipe - write()s to this pipe write to the LCD display SPI port
 *      pwmpipe - write()s to this pipe will send values to the audio port
 *      pwmpipe - write()s to this pipe will send values to the audio port
 *                      Interrupt consumed
 *                      Interrupt consumed
 *      cmdpipe - written to by the user command task, read by the display task
 
 *              used to communicate menu status
 
 *
 *
 
 * These pipes are allocated within the kernel setup function, ksetup().
 */
 */
 
 
/* We'll need some tasks as well:
/* We'll need some tasks as well:
 *      User command task
 *      User command task
 *              Handles user interaction
 *              Handles user interaction
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/*
/*
 * Read the keypad, write the results to an output pipe
 * Read the keypad, write the results to an output pipe
 */
 */
// #define      KEYPAD_TASK     keypad_task_id
// #define      KEYPAD_TASK     keypad_task_id
/*
/*
 
 * Read from the keypad, and set up a series of menu screens on the Display,
 
 * so that we can:
 
 *
 
 *      1. Set time
 
 *      2. Set dawn
 
 *      3. Set dusk
 
 */
 
#define MENU_TASK       menu_task_id
 
/*
 * Maintain a realtime clock
 * Maintain a realtime clock
 */
 */
#define RTCCLOCK_TASK   rtccclock_task_id
#define RTCCLOCK_TASK   rtccclock_task_id
/*
/*
 * Read from an incoming pipe, write results to the SPI port controlling the
 * Read from an incoming pipe, write results to the SPI port controlling the
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/*
/*
 * Wait for a button press, and then based upon the clock set a light
 * Wait for a button press, and then based upon the clock set a light
 */
 */
#define DOORBELL_TASK   doorbell_task_id
#define DOORBELL_TASK   doorbell_task_id
 
 
/*
 
 * Interract with any user commands, such as setting the clock, setting
 
 * nighttime (when the lights turn on) or setting daytime when only the
 
 * doorbell rings.
 
 */
 
// #define      COMMAND_TASK    command_task_id
 
#define LAST_TASK       last_task_id
#define LAST_TASK       last_task_id
 
 
typedef enum    {
typedef enum    {
#ifdef  RTCCLOCK_TASK
#ifdef  RTCCLOCK_TASK
        RTCCLOCK_TASK,
        RTCCLOCK_TASK,
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#ifdef  DOORBELL_TASK
#ifdef  DOORBELL_TASK
#ifdef  DISPLAY_TASK
#ifdef  DISPLAY_TASK
        DOORBELL_TASK, DISPLAY_TASK,
        DOORBELL_TASK, DISPLAY_TASK,
#endif
#endif
#endif
#endif
#ifdef  KEYPAD_TASK
//#ifdef        KEYPAD_TASK
        KEYPAD_TASK,
        //KEYPAD_TASK,
 
//#endif
 
#ifdef  MENU_TASK
 
        MENU_TASK,
#endif
#endif
#ifdef  COMMAND_TASK
#ifdef  COMMAND_TASK
        COMMAND_TASK,
        COMMAND_TASK,
#endif
#endif
        LAST_TASK
        LAST_TASK
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void    rtctask(void),
void    rtctask(void),
        doorbell_task(void),
        doorbell_task(void),
        display_task(void),
        display_task(void),
        keypad_task(void),
        keypad_task(void),
        command_task(void);
        menu_task(void);
        // idle_task ... is accomplished within the kernel
        // idle_task ... is accomplished within the kernel
extern  void    restore_context(int *), save_context(int *);
extern  void    restore_context(int *), save_context(int *);
extern  SYSPIPE *rxpipe, *txpipe, *pwmpipe, *lcdpipe;
extern  SYSPIPE *rxpipe, *txpipe, *pwmpipe, *lcdpipe;
SYSPIPE *midpipe;
SYSPIPE *midpipe;
extern  KDEVICE *pipedev;
extern  KDEVICE *pipedev;
Line 169... Line 184...
#endif
#endif
 
 
#ifdef  DOORBELL_TASK
#ifdef  DOORBELL_TASK
#ifdef  DISPLAY_TASK
#ifdef  DISPLAY_TASK
        // 13 + 10 +9(uwrite)+4(uarthex)+2(uartstr)+2(uartchr)
        // 13 + 10 +9(uwrite)+4(uarthex)+2(uartstr)+2(uartchr)
        tasklist[DOORBELL_TASK]    = new_task(64, doorbell_task);
        tasklist[DOORBELL_TASK]    = new_task(96, doorbell_task);
        tasklist[DOORBELL_TASK]->fd[FILENO_STDOUT] = sys_malloc(sizeof(KFILDES));
//      tasklist[DOORBELL_TASK]->fd[FILENO_STDOUT]= kopen((int)lcdpipe,pipedev);
                tasklist[DOORBELL_TASK]->fd[FILENO_STDOUT]->id = (int)lcdpipe;
        tasklist[DOORBELL_TASK]->fd[FILENO_STDERR]= kopen((int)txpipe, pipedev);
                tasklist[DOORBELL_TASK]->fd[FILENO_STDOUT]->dev= pipedev;
        tasklist[DOORBELL_TASK]->fd[FILENO_AUX] = kopen((int)pwmpipe,  pipedev);
        tasklist[DOORBELL_TASK]->fd[FILENO_STDERR] = sys_malloc(sizeof(KFILDES));
 
                tasklist[DOORBELL_TASK]->fd[FILENO_STDERR]->id = (int)txpipe;
 
                tasklist[DOORBELL_TASK]->fd[FILENO_STDERR]->dev= pipedev;
 
        tasklist[DOORBELL_TASK]->fd[FILENO_AUX] = sys_malloc(sizeof(KFILDES));
 
                tasklist[DOORBELL_TASK]->fd[FILENO_AUX]->id = (int)pwmpipe;
 
                tasklist[DOORBELL_TASK]->fd[FILENO_AUX]->dev= pipedev;
 
 
 
        //
        //
        tasklist[DISPLAY_TASK] = new_task(32, display_task);
        tasklist[DISPLAY_TASK] = new_task(32, display_task);
        tasklist[DISPLAY_TASK]->fd[FILENO_STDIN] = sys_malloc(sizeof(KFILDES));
        tasklist[DISPLAY_TASK]->fd[FILENO_STDIN] = kopen((int)lcdpipe,pipedev);
                tasklist[DISPLAY_TASK]->fd[FILENO_STDIN]->id = (int)lcdpipe;
 
                tasklist[DISPLAY_TASK]->fd[FILENO_STDIN]->dev= pipedev;
 
#endif
#endif
#endif
#endif
 
 
 
 
#ifdef  KEYPAD_TASK
#ifdef  KEYPAD_TASK
        tasklist[KEYPAD_TASK]    = new_task(16, keypad_task);
        // Stack = 7 + 9(uwrite) + 2*4
        tasklist[KEYPAD_TASK]->fd[FILENO_STDOUT] = sys_malloc(sizeof(KFILDES));
        tasklist[KEYPAD_TASK] = new_task(32, keypad_task);
                tasklist[NMEA_TASK]->fd[FILENO_STDOUT]->id = (int)keypipe;
        tasklist[KEYPAD_TASK]->fd[FILENO_STDOUT] = kopen((int)keypipe,pipedev);
                tasklist[NMEA_TASK]->fd[FILENO_STDOUT]->dev= pipedev;
#endif
 
#ifdef  MENU_TASK
 
        // Stack = 18 + 10(showbell/shownow) + 9(uwrite) + 2(menu_readkey)
 
        //              + 18 (time_menu/dawn_menu/dusk_menu)
 
        tasklist[MENU_TASK] = new_task(72, menu_task);
 
        // tasklist[MENU_TASK]->fd[FILENO_STDIN] = kopen((int)keypipe,pipedev);
 
        tasklist[MENU_TASK]->fd[FILENO_STDOUT]= kopen((int)lcdpipe,pipedev);
 
        tasklist[MENU_TASK]->fd[FILENO_STDERR]= kopen((int)txpipe, pipedev);
#endif
#endif
}
}
 
 
#ifdef DOORBELL_TASK
 
// #define      HALF_HOUR_S     1800    // Seconds per half hour
// #define      HALF_HOUR_S     1800    // Seconds per half hour
// #define      HALF_HOUR_S     180     // Seconds per three minutes--for test
// #define      HALF_HOUR_S     180     // Seconds per three minutes--for test
#define HALF_HOUR_S     30      // 3 Mins is to long, here's 3 seconds
#define HALF_HOUR_S     30      // 3 Mins is to long, here's 3 seconds
 
 
#include "../dev/samples.c"
#ifdef  MENU_TASK
 
unsigned        dawn = 0x060000, dusk = 0x180000;
 
#else
const unsigned  dawn = 0x060000, dusk = 0x180000;
const unsigned  dawn = 0x060000, dusk = 0x180000;
int     nwritten = 0, nread = 0, nstarts = 0;
#endif
 
 
void    shownow(unsigned now) { // Uses 10 stack slots + 8 for write()
void    shownow(unsigned now) { // Uses 10 stack slots + 8 for write()
        char    dmsg[9];
        char    dmsg[9];
        dmsg[0] = PACK(0x1b,'[','j','T');
        dmsg[0] = PACK(0x1b,'[','j','T');
        dmsg[1] = PACK('i','m','e',':');
        dmsg[1] = PACK('i','m','e',':');
Line 250... Line 264...
        dmsg[7] = PACK('b','e','l','l');
        dmsg[7] = PACK('b','e','l','l');
        dmsg[8] = PACK('!',' ',0,0);
        dmsg[8] = PACK('!',' ',0,0);
        write(FILENO_STDOUT, dmsg, 9);
        write(FILENO_STDOUT, dmsg, 9);
}
}
 
 
void    belllight(unsigned now) {
 
        IOSPACE *sys = (IOSPACE *)IOADDR;
 
        if ((now < dawn)||(now > dusk))
 
                sys->io_spio = 0x088; // Turn our light on
 
        else
 
                sys->io_spio = 0x80; // Turn light off
 
}
 
 
 
void    uartchr(char v) {
void    uartchr(char v) {
        if (write(FILENO_STDERR, &v, 1) != 1)
        if (write(FILENO_STDERR, &v, 1) != 1)
                write(FILENO_STDERR, "APPLE-PANIC", 11);
                write(FILENO_STDERR, "APPLE-PANIC", 11);
}
}
 
 
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                if (ch >= 10)
                if (ch >= 10)
                        ch = 'A'+ch-10;
                        ch = 'A'+ch-10;
                else
                else
                        ch += '0';
                        ch += '0';
                uartchr(ch);
                uartchr(ch);
        } uartstr("\r\n\0");
        } uartstr("\r\n");
 
}
 
 
 
#ifdef DOORBELL_TASK
 
#include "../dev/samples.c"
 
 
 
void    belllight(unsigned now) {
 
        IOSPACE *sys = (IOSPACE *)IOADDR;
 
        if ((now < dawn)||(now > dusk))
 
                sys->io_spio = 0x088; // Turn our light on
 
        else
 
                sys->io_spio = 0x80; // Turn light off
}
}
 
 
void    doorbell_task(void) {
void    doorbell_task(void) {
        // Controls LED 0x08
        // Controls LED 0x08
 
 
        // Start by initializing the display to GT Gisselquist\nTechnology
        // Start by initializing the display to GT Gisselquist\nTechnology
        // write(KFD_STDOUT, disp_build_backslash,sizeof(disp_build_backslash));
        // write(KFD_STDOUT, disp_build_backslash,sizeof(disp_build_backslash));
        // write(KFD_STDOUT, disp_build_gtlogo, sizeof(disp_build_gtlogo));
        // write(KFD_STDOUT, disp_build_gtlogo, sizeof(disp_build_gtlogo));
        // write(KFD_STDOUT, disp_reset_data, sizeof(disp_reset_data));
        // write(KFD_STDOUT, disp_reset_data, sizeof(disp_reset_data));
        // write(KFD_STDOUT, disp_gtech_data, sizeof(disp_gtech_data));
        // write(KFD_STDOUT, disp_gtech_data, sizeof(disp_gtech_data));
 
 
        IOSPACE *sys = (IOSPACE *)IOADDR;
        IOSPACE *sys = (IOSPACE *)IOADDR;
 
 
        while(1) {
        while(1) {
                nread = nwritten = 0;
 
                int     event;
                int     event;
                // Initial state: doorbell is not ringing.  In this state, we
                // Initial state: doorbell is not ringing.  In this state, we
                // can wait forever for an event
                // can wait forever for an event
                sys->io_spio = 0x080; // Turn our light off
                sys->io_spio = 0x080; // Turn our light off
                event = wait(INT_BUTTON|SWINT_PPS,-1);
                event = wait(INT_BUTTON|SWINT_PPS,-1);
 
 
 
#ifndef MENU_TASK
                unsigned when = rtcclock;
                unsigned when = rtcclock;
                if (event & INT_BUTTON)
                if (event & INT_BUTTON)
                        showbell(when);
                        showbell(when);
                else if (event & SWINT_PPS)
                else if (event & SWINT_PPS)
                        shownow(when);
                        shownow(when);
 
#else
 
                if (event & INT_BUTTON)
 
                        post(SWINT_DOORBELL);
 
#endif
 
 
                while(event & INT_BUTTON) {
                while(event & INT_BUTTON) {
                        // Next state, the button has been pressed, the
                        // Next state, the button has been pressed, the
                        // doorbell is ringing
                        // doorbell is ringing
 
 
Line 324... Line 345...
                        while(sptr < &sound_data[NSAMPLE_WORDS]) {
                        while(sptr < &sound_data[NSAMPLE_WORDS]) {
                                int     len = &sound_data[NSAMPLE_WORDS]-sptr;
                                int     len = &sound_data[NSAMPLE_WORDS]-sptr;
                                if (len > 256)
                                if (len > 256)
                                        len = 256;
                                        len = 256;
 
 
                                /*
 
                                while(len > 64) {
 
                                        write(FILENO_AUX, sptr, 64);
 
                                        sptr += 64;
 
                                        len -= 64;
 
                                }*/
 
 
 
                                // We will stall here, if the audio FIFO is full
                                // We will stall here, if the audio FIFO is full
                                write(FILENO_AUX, sptr, len);
                                write(FILENO_AUX, sptr, len);
                                sptr += len;
                                sptr += len;
                                nwritten += len;
 
 
 
                                // If the user presses the button more than
                                // If the user presses the button more than
                                // once, we start the sound over as well as
                                // once, we start the sound over as well as
                                // our light counter.
                                // our light counter.
                                event = wait(INT_BUTTON|SWINT_PPS, 0);
                                event = wait(INT_BUTTON|SWINT_PPS, 0);
                                if (event&INT_BUTTON) {
                                if (event&INT_BUTTON) {
                                        if (sptr > &sound_data[2048]) {
                                        if (sptr > &sound_data[1024]) {
                                                sptr = sound_data;
                                                sptr = sound_data;
                                                seconds = 0;
                                                seconds = 0;
 
#ifndef MENU_TASK
                                                when = (volatile unsigned)rtcclock;
                                                when = (volatile unsigned)rtcclock;
                                                showbell(when);
                                                showbell(when);
 
#else
 
                                                post(SWINT_DOORBELL);
 
#endif
                                        }
                                        }
                                } else if (event&SWINT_PPS) {
                                } else if (event&SWINT_PPS) {
                                        seconds++;
                                        seconds++;
                                        belllight(rtcclock);
                                        belllight(rtcclock);
 
#ifndef MENU_TASK
                                        showbell(when);
                                        showbell(when);
 
#endif
                                }
                                }
                        }
                        }
 
 
                        uartchr('D');
 
 
 
                        // Next state: the doorbell is no longer ringing, but
                        // Next state: the doorbell is no longer ringing, but
                        // we have yet to return to normal--the light is still
                        // we have yet to return to normal--the light is still
                        // on.
                        // on.
                        while((seconds < HALF_HOUR_S)&&
                        while((seconds < HALF_HOUR_S)&&
                                (((event=wait(INT_BUTTON|SWINT_PPS,-1))&INT_BUTTON)==0)) {
                                (((event=wait(INT_BUTTON|SWINT_PPS,-1))&INT_BUTTON)==0)) {
                                seconds++;
                                seconds++;
                                belllight(rtcclock);
                                belllight(rtcclock);
 
#ifndef MENU_TASK
                                showbell(when);
                                showbell(when);
 
#endif
                        }
                        }
                        if (event&INT_BUTTON) {
                        if (event&INT_BUTTON) {
 
#ifndef MENU_TASK
                                when = (volatile unsigned)rtcclock;
                                when = (volatile unsigned)rtcclock;
                                showbell(when);
                                showbell(when);
                                uartchr('B');
#endif
                        }
                        }
                }
                }
 
 
                // uartstr("\r\n");
 
                uartstr("\r\nNWritten: "); uarthex(nwritten);
 
                uartstr("NRead   : "); uarthex(nread);
 
                uartstr("NStarts : "); uarthex(nstarts);
 
                nwritten = nread = nstarts = 0;
 
        }
        }
}
}
#endif
#endif
 
 
 
#ifdef  MENU_TASK
 
void    entered_menu_str(char *str, unsigned now,int pos) {
 
        //
 
        // Set current time
 
        //   xx:xx:xx
 
        //
 
        str[0] = PACK(0x1b, '[', '1',';');
 
        str[1] = PACK('0','H',' ',' ');
 
        str[2] = PACK(' ','x','x',':');
 
        str[3] = PACK('x','x',' ',' ');
 
        //str[3]=PACK('x','x',':','x');
 
        str[4] = PACK(' ','\0','\0','\0');
 
 
 
        if (pos>0) {
 
                int ch = ((now >> 20)&0x0f)+'0';
 
                str[2] &= ~0x0ff0000;
 
                str[2] |= (ch<<16);
 
 
 
                if (pos > 1) {
 
                        int ch = ((now >> 16)&0x0f)+'0';
 
                        str[2] &= ~0x0ff00;
 
                        str[2] |= (ch<<8);
 
 
 
                if (pos > 2) {
 
                        int ch = ((now >> 12)&0x0f)+'0';
 
                        str[3] &= ~0xff000000;
 
                        str[3] |= (ch<<24);
 
 
 
                if (pos > 3) {
 
                        int ch = ((now >> 8)&0x0f)+'0';
 
                        str[3] &= ~0x0ff0000;
 
                        str[3] |= (ch<<16);
 
 
 
                if (pos > 4) {
 
                        int ch = ((now >> 4)&0x0f)+'0';
 
                        str[3] &= ~0x0ff00;
 
                        str[3] |= ':'<<8;
 
                        str[3] &= ~0x0ff;
 
                        str[3] |= (ch);
 
 
 
                        if (pos > 5)
 
                                ch = (now&0x0f)+'0';
 
                        else
 
                                ch = 'x';
 
                        str[4] &= ~0x0ff000000;
 
                        str[4] |= (ch<<24);
 
        }}}}}
 
}
 
 
/*
void    show_time_menu(unsigned when, int posn) {
 
        char    dmsg[10];
 
        dmsg[0] = PACK(0x1b,'[','j','S');
 
        dmsg[1] = PACK('e','t',' ','c');
 
        dmsg[2] = PACK('u','r','r','e');
 
        dmsg[3] = PACK('n','t',' ','t');
 
        dmsg[4] = PACK('i','m','e',':');
 
        entered_menu_str(&dmsg[5], when, posn);
 
        write(FILENO_STDOUT, dmsg, 9);
 
}
 
 
 
void    show_dawn_menu(unsigned when, int posn) {
 
        char    dmsg[10];
 
        dmsg[0] = PACK(0x1b,'[','j','S');
 
        dmsg[1] = PACK('e','t',' ','s');
 
        dmsg[2] = PACK('u','n','r','i');
 
        dmsg[3] = PACK('s','e',':','\0');
 
        entered_menu_str(&dmsg[4], when, posn);
 
        write(FILENO_STDOUT, dmsg, 8);
 
}
 
 
 
void    show_dusk_menu(unsigned when, int posn) {
 
        char    dmsg[10];
 
        dmsg[0] = PACK(0x1b,'[','j','S');
 
        dmsg[1] = PACK('e','t',' ','s');
 
        dmsg[2] = PACK('u','n','s','e');
 
        dmsg[3] = PACK('t',':','\0','\0');
 
        entered_menu_str(&dmsg[4], when, posn);
 
        write(FILENO_STDOUT, dmsg, 8);
 
}
 
 
 
int     menu_readkey(void) {
 
        int     key;
 
        wait(0,3);
 
        key = keypadread();
 
        keypad_wait_for_release();
 
        clear(INT_KEYPAD);
 
        return key;
 
}
 
 
 
void    time_menu(void) {
 
        int     timeout = 60;
 
        unsigned newclock = 0;
 
        for(int p=0; p<6; p++) {
 
                int     key, event;
 
                show_time_menu(newclock, p);
 
                do {
 
                        event = wait(SWINT_PPS|INT_KEYPAD,-1);
 
                        if (event&SWINT_PPS) {
 
                                timeout--;
 
                                if (timeout == 0)
 
                                        return;
 
                        } if (event&INT_KEYPAD) {
 
                                timeout = 60;
 
                                key = menu_readkey();
 
                                if ((key >= 0)&&(key < 10)) {
 
                                        int     sh;
 
                                        sh = (5-p)*4;
 
                                        newclock &= ~(0x0f<<sh);
 
                                        newclock |= (key<<sh);
 
                                } else if (key == 12) {
 
                                        if (p>=0)
 
                                                p--;
 
                                } else {
 
                                        if (p > 4)
 
                                                break;
 
                                        else
 
                                                return;
 
                                }
 
                        }
 
                } while(0==(event&INT_KEYPAD));
 
        }
 
 
NWritten: 000018E7
        clear(SWINT_PPS);
NRead   : 000018E7
        rtcclock = newclock;
NStarts : 00000001
        if (wait(SWINT_PPS, 1))
 
                rtcclock = newclock;
 
}
 
 
 
void    dawn_menu(void) {
 
        int     timeout = 60;
 
        unsigned newdawn = 0;
 
        for(int p=0; p<6; p++) {
 
                int     key, event;
 
                show_dawn_menu(newdawn, p);
 
                do {
 
                        event = wait(SWINT_PPS|INT_KEYPAD,-1);
 
                        if (event&SWINT_PPS) {
 
                                timeout--;
 
                                if (timeout == 0)
 
                                        return;
 
                        } if (event&INT_KEYPAD) {
 
                                timeout = 60;
 
                                key = menu_readkey();
 
                                if ((key >= 0)&&(key < 10)) {
 
                                        int     sh = (5-p)*4;
 
                                        newdawn &= ~(0x0f<<sh);
 
                                        newdawn |= key<<sh;
 
                                } else if (key == 12) {
 
                                        if (p>=0)
 
                                                p--;
 
                                } else {
 
                                        if (p > 4)
 
                                                break;
 
                                        else
 
                                                return;
 
                                }
 
                        }
 
                } while(0 == (event&INT_KEYPAD));
 
        } dawn = newdawn;
 
}
 
 
 
void    dusk_menu(void) {
 
        int     timeout = 60;
 
        unsigned newdusk = 0;
 
        for(int p=0; p<6; p++) {
 
                int     key, event;
 
                show_dusk_menu(newdusk, p);
 
                do {
 
                        event = wait(SWINT_PPS|INT_KEYPAD,-1);
 
                        if (event&SWINT_PPS) {
 
                                timeout--;
 
                                if (timeout == 0)
 
                                        return;
 
                        } if (event&INT_KEYPAD) {
 
                                key = menu_readkey();
 
                                if ((key >= 0)&&(key < 10)) {
 
                                        int     sh = (5-p)*4;
 
                                        newdusk &= ~(0x0f<<sh);
 
                                        newdusk |= key<<sh;
 
                                } else if (key == 12) {
 
                                        if (p>=0)
 
                                                p--;
 
                                } else {
 
                                        if (p > 4)
 
                                                break;
 
                                        else
 
                                                return;
 
                                }
 
                        }
 
                } while(0 == (event&INT_KEYPAD));
 
        } dusk = newdusk;
 
}
 
 
 
void    unknown_menu(void) {
 
        //      0123456789ABCDEF
 
        //      Unknown Cmd Key
 
        //      A/Tm B/Dwn C/Dsk
 
        char    dmsg[11];
 
        dmsg[0] = PACK(0x1b,'[','j','U');
 
        dmsg[1] = PACK('n','k','n','o');
 
        dmsg[2] = PACK('w','n',' ','C');
 
        dmsg[3] = PACK('m','d',' ','K');
 
        dmsg[4] = PACK('e','y','\0','\0');
 
        dmsg[5] = PACK(0x1b,'[','1',';');
 
        dmsg[6] = PACK('0','H','A','/');
 
        dmsg[7] = PACK('T','m',' ','B');
 
        dmsg[8] = PACK('/','D','w','n');
 
        dmsg[9] = PACK(' ','C','/','D');
 
        dmsg[10] = PACK('s','k',0,0);
 
        write(FILENO_STDOUT, dmsg, 11);
 
}
 
void    menu_task(void) {
 
        // Controls LED 0x08
 
 
 
        // Start by initializing the display to GT Gisselquist\nTechnology
 
        // write(KFD_STDOUT, disp_build_backslash,sizeof(disp_build_backslash));
 
        // write(KFD_STDOUT, disp_build_gtlogo, sizeof(disp_build_gtlogo));
 
        // write(KFD_STDOUT, disp_reset_data, sizeof(disp_reset_data));
 
        // write(KFD_STDOUT, disp_gtech_data, sizeof(disp_gtech_data));
 
        IOSPACE *sys = (IOSPACE *)IOADDR;
 
        unsigned belltime = 0, when;
 
 
 
 
 
        when = rtcclock;
 
        while(1) {
 
                int     event;
 
                // Initial state: doorbell is not ringing.  In this state, we
 
                // can wait forever for an event
 
                sys->io_spio = 0x080; // Turn our light off
 
                event = wait(SWINT_DOORBELL|SWINT_PPS|INT_KEYPAD,-1);
 
                if (event & SWINT_DOORBELL) {
 
                        showbell(when);
 
                        belltime = time();
 
                } else if (event & SWINT_PPS) {
 
                        unsigned        now = time();
 
                        if ((now-belltime)<HALF_HOUR_S)
 
                                showbell(when);
 
                        else {
 
                                when = rtcclock;
 
                                shownow(when);
 
                        }
 
                }
 
 
 
                if (event & INT_KEYPAD) {
 
                        int     key;
 
                        key = menu_readkey();
 
                        switch(key) {
 
                                case 10: time_menu();
 
                                        when = rtcclock;
 
                                        break;
 
                                case 11: dawn_menu(); break;
 
                                case 12: dusk_menu(); break;
 
                                default:
 
                                        unknown_menu();
 
                                        wait(0,3000);
 
                        } clear(INT_KEYPAD);
 
                }
 
        }
 
}
 
#endif
 
 
*/
 
 
 
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