Final MEMBITT Code
Dependencies: 4DGL-uLCD-SE SDFileSystem mbed
Fork of reminder_main by
main.cpp
- Committer:
- deronmai
- Date:
- 2016-12-06
- Revision:
- 5:69da174d0f56
- Parent:
- 4:ae6216936ddf
- Child:
- 6:ce8d4456e28b
File content as of revision 5:69da174d0f56:
#include "mbed.h" #include <string> #include <vector> #include "utils.h" #include "SDFileSystem.h" #include "uLCD_4DGL.h" DigitalOut myled(LED1); InterruptIn pb1(p21); InterruptIn pb2(p22); uLCD_4DGL uLCD(p28,p27,p29); SDFileSystem sd(p5, p6, p7, p8, "sd"); //PinDetect pb1(p21); // receive new schedule Serial pc(USBTX, USBRX); // tx, rx .... for testing purposes (remove later) //Serial blue(p13, p14, 9600); Serial easyVR(p13,p14); void pb1_hit_interrupt (void); void pb2_hit_interrupt (void); // Global vars time_t ct_time; struct tm * timeinfo; schedule myschedule; // Function declares void clock_main(struct reminder *current_reminder); int estimate_time(struct reminder current_reminder); void write_schedule_sd(char *buffer, int size); void speak(int num); void synthesis(reminder x); void synTimes(reminder x); int schedule_read(); void writetest(); void packdata(int send); // if send == 1 send data to pc //void pb1_hit_callback (void); void receive_schedule(); int main() { // in real project, we will set the time via the internet //uLCD.printf("Hello world\n"); // localtime( pb1.mode(PullUp); // Delay for initial pullup to take effect wait(.01); // Attach the address of the interrupt handler routine for pushbutton pb1.fall(&pb1_hit_interrupt); pb2.mode(PullUp); wait(.01); pb2.fall(&pb2_hit_interrupt); srand (time(NULL)); // initialize random numbers /* int i = 0; while(1) { uLCD.printf("%i",i); wait(1); }*/ /* reminder test_reminder; // test_reminder.tm_time.tm_sec = 0; test_reminder.tm_time.tm_min = 36; test_reminder.tm_time.tm_hour = 11; for (int i = 0; i < 7; i++) { if (i == 1 || i == 3 || i == 4 || i == 5) test_reminder.reminder_days[i] = 1; // set MWHF else test_reminder.reminder_days[i] = 0; }*/ // test_reminder.tm_time.tm_mday = 1; // day of the month // test_reminder.tm_time.tm_mon = 0; // months since January // test_reminder.tm_time.tm_year = 0; // years since 1970 //myschedule.addReminder(test_reminder); uLCD.printf("waiting to receive schedule\n"); receive_schedule(); int current_time = schedule_read(); //uLCD.printf("current time set to: %i", current_time); set_time(current_time-18000); // Set RTC time to Wed, 28 Oct 2009 14:24:30 // subtract 5*60*60 for eastern time time_t clock; time_t seconds = time(NULL); uLCD.printf("Time as a basic string = %s", ctime(&seconds)); //packdata(1); wait(1); int flag = 0; //Day currentDay = Wednesday; uLCD.printf("current day is %i\n",timeinfo->tm_wday); int time_diff; while(1) { for (int i = 0; i < myschedule.getSize(); i++) { timeinfo = localtime (&clock); // ct_time not set right now time(&clock); pc.printf("Time as a basic string = %s\n\r", ctime(&clock)); reminder tmpReminder = myschedule.getCurrentReminder(); // CHANGE TO POTENTAILLY NOT INCREMENTING CURRENT REMINDER? flag = 0; while (!flag) { if (tmpReminder.reminder_days[timeinfo->tm_wday] != 1) { // pc.printf("%i\n\r", myschedule.reminder_list[i].reminder_days[currentDay]); i++; // current reminder not set to go off today; go to next reminder tmpReminder = myschedule.nextReminder(); } // may need to check if the current reminder is not last one, otherwise out of bounds ERROR else { time_diff = estimate_time(tmpReminder); //uLCD.locate(0,0); uLCD.printf("time_diff is %i\n\r", time_diff); if (time_diff < 0) { i++; tmpReminder = myschedule.nextReminder(); } else flag = 1; // sleep(sleep_time); // try and sleep here // wait(sleep_time); // replace this wait function with a smart sleep to save power and then poll after that } //wait(1); } uLCD.printf("%s\n", tmpReminder.notification); if (tmpReminder.notification == "App") { uLCD.printf("checking app\n"); //if (timeinfo->tm_min == tmpReminder.min && timeinfo->tm_hour == tmpReminder.hour - 1) { //if (tmpReminder.hour - timeinfo->tm_hour <= 1) { if (time_diff <= 60) { myled = true; synthesis(tmpReminder); uLCD.printf("moving to next reminder\n"); myschedule.nextReminder(); uLCD.printf("moved to next reminder\n"); flag = 0; } } else { if (timeinfo->tm_min == tmpReminder.min && timeinfo->tm_hour == tmpReminder.hour) { myled = true; synthesis(tmpReminder); uLCD.printf("moving to next reminder\n"); myschedule.nextReminder(); uLCD.printf("moved to next reminder\n"); flag = 0; } } wait(1); } uLCD.printf("All reminders done for the day\n"); while(1) {} } } int estimate_time(struct reminder current_reminder) { // estimates the remaining time until the next reminder so program can sleep till then to save battery //uLCD.printf("current hour: %i note hour %i\n\r", timeinfo->tm_hour, current_reminder.hour); int estimated_time = (60*current_reminder.hour) - (60*timeinfo->tm_hour) + (current_reminder.min - timeinfo->tm_min); // convert hours to min, find estimated time before reminder plus 1 hour (60 min) return estimated_time; //if (current_reminder.reminder_days[currentDay] == 1) // } // use pushbutton to do this void receive_schedule() { pc.baud(9600); char buff[1000]; int i = 0; bool flag = false; while(!flag) { buff[i] = pc.getc(); uLCD.printf("%c", buff[i]); //blue.putc(buff[i]); flag = buff[i] == '^'; if (flag) uLCD.printf("flag detected"); i++; } write_schedule_sd(buff, i); } void write_schedule_sd(char *buffer, int size) { mkdir("/sd/mydir", 0777); FILE *fp = fopen("/sd/mydir/schedule.txt", "w"); if(fp == NULL) { error("Could not open file for write\n"); } fprintf(fp, buffer); fclose(fp); } int schedule_read() { char time_read[1]; int set_time = 0;; //uLCD.locate(0,0); //uLCD.printf("reading schedule\r\n"); FILE *fp = fopen("/sd/mydir/schedule.txt", "r"); if(fp == NULL) { error("Could not open file to read\n"); } // get time fread(time_read,1,1,fp); if (time_read[0] != '[') { uLCD.locate(0,0); uLCD.printf("[ not found, instead found %s\r\n",time_read[0]); error("Time in incorrect format, expected [, got %s\n",time_read[0]); } while (time_read[0] != ']') { fread(time_read,1,1,fp); if (time_read[0] != ']') set_time = (set_time*10)+(time_read[0] - '0'); } //set_time(set_time); //uLCD.locate(0,0); //uLCD.printf("opened successfully\r\n"); char reminder_size[1]; int header = 1; int reminder_count = 0; //fgets(reminder_size, sizeof(reminder_size), fp); fread(reminder_size,1,1,fp); if (reminder_size[0] != '{') { uLCD.locate(0,0); uLCD.printf("{ not found, instead found %s\r\n",reminder_size[0]); error("Schedule in incorrect format, expected {, got %s\n",reminder_size[0]); } while (header) { char test[1]; //fgets(reminder_size, sizeof(reminder_size), fp); fread(test,1,1,fp); if (test[0] == '|') header = 0; else { //uLCD.printf("%s %i",reminder_size[0], (int)reminder_size[0]); uLCD.printf("%c",test[0]); //wait(4); reminder_count = (reminder_count*10)+(test[0] - '0'); } } uLCD.cls(); //uLCD.locate(0,0); //uLCD.printf("parsing schedule reminder count is %i\r\n", reminder_count); //wait(5); reminder tmp; char buf[REMINDER_SIZE]; //int days; for (int i = 0; i < reminder_count; i++) { //fgets(buf, sizeof(buf), fp); fread(buf,sizeof(buf),1,fp); uLCD.cls(); uLCD.locate(0,0); uLCD.printf("buf is %s\r\n",buf); wait(.1); char *pch; pch = strtok (buf,"+"); tmp.notification = pch; uLCD.printf("%s\n", pch); wait(.1); pch = strtok (NULL,"+"); //uLCD.printf("%s\n", pch); if (strlen(pch) == 1) tmp.hour = (int) (pch[0] - '0'); else tmp.hour = (int) ((pch[0] - '0') * 10 + (pch[1] - '0')); //if (tmp.hour > 24 uLCD.printf("%i\n", tmp.hour); //wait(1); pch = strtok (NULL,"+"); if (strlen(pch) == 1) tmp.min = (int) (pch[0] - '0'); else tmp.min = (int) ((pch[0] - '0') * 10 + (pch[1] - '0')); uLCD.printf("%i\n", tmp.min); wait(.1); pch = strtok (NULL,"+"); for (int i = 0; i < 7; i++) { tmp.reminder_days[i] = (int) pch[i] - '0'; //days = days/10; uLCD.printf("%i\n", tmp.reminder_days[i]); //wait(.1); } //add to the (schedule) vector here myschedule.addReminder(tmp); wait(5); } fclose(fp); uLCD.cls(); uLCD.printf("returned time here"); return set_time; } /* void clock_main(struct reminder *current_reminder) { } */ void packdata(int send) { dateTime testdt; testdt.month = 1; testdt.day = 2; testdt.year = 2009; myschedule.updateRecord(testdt, 1); myschedule.updateRecord(testdt, 0); int rem_num = 0; // number of reminders char con[2]; string record_str = ""; string part; int data_entries; record tmpr; dateTime tmpd; uLCD.printf("test start\r\n"); for (int i = 0; i < myschedule.getSize(); i++) { uLCD.printf("schedule entries exist\r\n"); data_entries = myschedule.getNumRecords(i); if (data_entries) { // more than 1 data entry rem_num++; char de[2]; sprintf(con, "%d", i); sprintf(de, "%d", data_entries); record_str += "|r" + (string)con + "(" + (string)de + ")"; tmpr = myschedule.getRecord(i); for (int j = 0; j < data_entries; j++) { tmpd = tmpr.date[j]; char tmpmon[2], tmpday[2], tmpyear[2]; sprintf(tmpmon, "%d", tmpd.month); sprintf(tmpday, "%d", tmpd.day); sprintf(tmpyear, "%d", tmpd.year); part = "["; if (tmpd.month < 10) part += "0"; part += (string) tmpmon + "-"; if (tmpd.day < 10) part += "0"; part += (string)tmpday + "-" + (string)tmpyear + "]"; char tmpval[1]; sprintf(tmpval, "%d", tmpr.data[j]); part += tmpval; uLCD.printf("%s\r\n", part.c_str()); //part = "[" + tmpd.month + "-" + tmpd.day + "-" + tmpd.year + "]"; record_str += part; } } } char remnum[2]; sprintf(remnum, "%d", rem_num); record_str = "{" + (string)remnum + record_str + "}"; uLCD.printf("%s\r\n", record_str.c_str()); uLCD.printf("starting data record write\r\n"); // save data to buffer const char *buffer = record_str.c_str(); mkdir("/sd/mydir", 0777); FILE *fp = fopen("/sd/mydir/data.txt", "w"); if(fp == NULL) { error("Could not open file for write\n"); } fprintf(fp, buffer); fclose(fp); // if send is 1, send to desktop if (send) { pc.printf("%s", buffer); } } void writetest() { uLCD.printf("starting test\r\n"); char *buffer = "hello1"; mkdir("/sd/mydir", 0777); FILE *fp = fopen("/sd/mydir/data.txt", "w"); if(fp == NULL) { error("Could not open file for write\n"); } fprintf(fp, buffer); fclose(fp); uLCD.printf("first opened\r\n"); char *buffer2 = "good2"; FILE *fq = fopen("/sd/mydir/data.txt", "w"); if(fq == NULL) { error("Could not open file for write\n"); } fprintf(fq, buffer2); fclose(fq); uLCD.printf("second opened\r\n"); char open[10]; FILE *fw = fopen("/sd/mydir/data.txt", "r"); if(fw == NULL) { error("Could not open file to read\n"); } fread(open,sizeof(open),8,fw); uLCD.printf("%s", open); uLCD.printf("should have printed\r\n"); } // Function to play a sound file on speaker void speak(int num) { // Send Play Sound command easyVR.putc('w'); // small delay is needed between characters wait(.002); // Sound table index easyVR.putc('A' + num/32); wait(.002); easyVR.putc('A' + num%32); wait(.002); // max volume easyVR.putc('P'); // Wait for response of 'o' as playback ends while (easyVR.getc()!='o') {} wait(.25); } void synthesis(reminder x) { uLCD.printf("speaking syn\n"); if(x.notification == "App") { speak(synWords[3]); wait(0.001); synTimes(x); } else { //reminder int asking = 1; int result; int repeat = 0; int response = 0; while (asking) { speak(synWords[2]); wait(0.001); //ask if they've taken their medication speak(synWords[6]); wait(0.001); //intake and process yes/no response easyVR.putc('d'); wait(.001); easyVR.putc('B'); clock_t endwait; endwait = clock() + 60 * CLOCKS_PER_SEC ; while (easyVR.readable()!=0 && clock() < endwait) {} if (clock() < endwait) { response = 1; //asking = 0; } else { repeat++; if (repeat > 2) { result = -1; asking = 0; } } if (response) { char rchar=easyVR.getc(); pc.putc(rchar); if (rchar == 'r') { easyVR.putc(' '); rchar = easyVR.getc(); //for a yes response if (rchar=='A' || rchar=='C' || rchar=='E' || rchar=='G' || rchar == 'I' || rchar == 'K') { uLCD.printf("yes"); //yes++; //response++; result = 1; } else if (rchar == 'B' || rchar=='D' || rchar=='F' || rchar=='H' || rchar=='J' || rchar=='K') { uLCD.printf("no"); result = 0; //no++; //response++; } asking = 0; uLCD.printf("asking = 0\n"); } else if (rchar == 'e') { uLCD.printf("error"); result = -1; repeat++; if (repeat > 2) { result = -1; asking = 0; // try again } } else uLCD.printf("%c ",rchar); } } uLCD.printf("done\n"); dateTime dt_record; dt_record.month = timeinfo->tm_mday; dt_record.day = timeinfo->tm_mon+1; // days since january (0-11) so add 1 dt_record.year = timeinfo->tm_year + 1990; // years since 1990 myschedule.updateRecord(dt_record, result); // do error checking for no response //thank the user speak(synWords[7]); } myled = 0; wait(0.001); } void synTimes(reminder x) { uLCD.printf("speaking time\n"); // schedule.reminder_list.... // x is selected reminder //two switch case statements: one for if the second number is a 5, one if it's a 0 int ampm = 0; int hour = x.hour; if(x.hour > 12) { hour = x.hour % 12; ampm = 24; } else ampm = 22; // need to add speaking hours? speak(synTime[hour-1]); wait(0.002); int minutes[2]; minutes[0] = x.min/10; minutes[1] = x.min%10; switch(minutes[0]) { case 0: if (minutes[1] == 0) { // say "OH" // speak(synWords[1]); // wait(0.002); // say "o'clock" speak(synWords[0]); wait(0.002); } else { // say "OH" speak(synWords[1]); wait(0.002); } break; case 1: if (minutes[1] == 0) { speak(synTime[10-1]); wait(0.002); } else { //say "fifteen" speak(synTime[13-1]); wait(0.002); } break; case 2: //say "twenty" speak(synTime[17-1]); wait(0.002); break; case 3: //say "thirty" speak(synTime[16-1]); wait(0.002); break; case 4: //say "forty" speak(synTime[15-1]); wait(0.002); break; case 5: //say "fifty" speak(synTime[14-1]); wait(0.002); break; } if (minutes[0] != 1) { if (minutes[1] == 5) { //say "5" speak(synTime[5-1]); wait(0.002); } } speak(ampm); uLCD.printf("done speaking\n"); } /* void pb1_hit_callback (void) { uLCD.printf("push button pressed - receive schedule\n"); receive_schedule(); }*/ void pb1_hit_interrupt (void) { uLCD.printf("push button 1 pressed - send schedule\n"); //receive_schedule(); packdata(1); } void pb2_hit_interrupt (void) { uLCD.printf("push button 2 pressed - cognitive game\n"); } void cognitivegame() { /* vector<string> wordset1; vector<string> wordset2; vector<string> wordset3; vector<string> wordset4; vector<string> wordset5; */ int correct = 0; int timesplayed; uLCD.printf("Speak: Your recall wordset will now play\n"); // speak(recall game) wait(3); int wordset = rand() % 5; // pick random wordset between 1 and 5 uLCD.printf("Playing wordset %i\n", wordset); switch(wordset) { case 0: { //speak(wordset1); break; } case 1: { //speak(wordset2); break; } case 2: { //speak(wordset3); break; } case 3: { //speak(wordset4); break; } case 4: { //speak(wordset5); break; } } uLCD.printf("Was _____ the first word in the set?\n"); uLCD.printf("Was _____ the last word in the set?\n"); }