// ============================ CBOT_main =================================== //
void CBOT_main(void) {
unsigned char sensors;
// Initialize.
init_bot();
// Clear the screen.
LCD_clear();
printMainMenu();
while (1) {
// Delay a little so that the 'Tiny is not overwhelmed with requests.
TMRSRVC_delay( 100 ); // Wait 100ms.
// Get state of all sensors.
sensors = ATTINY_get_sensors();
if ( sensors & SNSR_SW3_EDGE ) {
SPKR_play_tone( SPKR_FREQ( 293.7 ), 250, 80 );
all_pixel_test();
printMainMenu();
} else if ( sensors & SNSR_SW4_EDGE ) {
SPKR_play_tone( SPKR_FREQ( 440 ), 250, 80 );
pixel_sensor_test();
printMainMenu();
} else if ( sensors & SNSR_SW5_EDGE ) {
SPKR_play_tone( SPKR_FREQ( 659.3 ), 250, 80 );
draw_smiley();
printMainMenu();
}
}
}
//========PUBLIC FUNCTIONS==========
void Interface::start()
{
char ch = ' ';
while(ch != 'q')
{
checkRelation();
printMainMenu();
setStatus(""); //reset status message
cout << "Choice: ";
cin >> ch;
switch(ch)
{
case 'a':
about();
break;
case 's':
enterTheMatrixQuestion();
break;
case '1':
addCompOrPerson();
break;
case '2':
viewCompsOrPersons();
break;
case '3':
settingsMain();
break;
default:
break;
}
}
}
// toggles between the display states On/Off
void SabreController::toggleDisplay()
{
if (this->NoDisplay)
{
switch (GUI_State)
{
case HomeScreen:
printHomeScreen(this->SelectedInput, this->sabreDAC.Attenuation);
break;
case InputSettingsMenu:
printInputSettingsMenu(SelectedInput);
break;
case MainMenu:
printMainMenu();
break;
default:
/* Your code here */
break;
}
this->NoDisplay = false;
}
else
{
OLED.clear();
this->NoDisplay = true;
}
}
int main()
{
char choice;
initProducts();
do
{
choice = printMainMenu();
}while(choice != 3);
return 0;
}
void mainMenu(){
/* Prints main menu screen and gets user choice */
int userOption; /* Stores user chosen menu option */
/* Initial message */
system("clear");
printf("Bem vindo ao jogo: Batalha Naval\n\n[Pressione ENTER para ir ao menu principal]\n");
getchar(); /* Waits for ENTER keypress */
/* Menu Loop */
do{
printMainMenu(); /* Prints menu options */
scanf("%i", &userOption); /* Listens to user input */
switch(userOption){ /* Executes input */
case 1:
startGame();
break;
case 2:
configureGame();
break;
case 3:
getRanking();
break;
case 0:
break;
default:
printf("Por favor escolha uma entrada valida!\n");
printf("\n[Pressione ENTER para continuar]");
getchar();
getchar();
}
}while(userOption != 0);
return;
}
int main(int argc, char *arg[]) {
int originalPid = getpid();
//Must be set once to ensure random generator function works properly
srand (time(NULL));
if(argc < 2) {
printf("Please provide the number of processes you would like to start.\n");
} else {
//initiate number of wanted processes
numberOfProcesses = atoi(arg[1]);
ProGen();
//Only the main process will provide the user with a PMS menu
if((int)getpid() == originalPid) {
//Initiates an array with all children descendants of parent
int arraySize = numberOfProcesses + 5;
int runningProcesses[arraySize];
int counter = 0;
int i;
for(i = 0; i<numberOfProcesses; i++) {
runningProcesses[i] = (int)getpid() + i + 1;
counter++;
}
runningProcesses[counter] = -999;
printMainMenu(runningProcesses);
} else {
/*All children except the root are put in an endless while loop in order
to ensure that they continue to execute throughout the program. */
while(1);
}
}
return 0;
}
void nextPage(GlobalState* globalData, int cursorPos) {
// Beep off
TRISBbits.RB5 = 1;
switch (cursorPos) {
// Send a 0 to go to main menu
case 0:
globalData->displayPage = 0;
printMainMenu(globalData);
break;
// Getting a position of 1 does singleplayer
case 1:
globalData->displayPage = 1;
// Print singleplayer menu
clean(BLACK);
prints(0, 0, WHITE, BLACK, "Nothing here. Press B to go back.", 1);
break;
// Getting a position of 2 does multiplayer
case 2:
globalData->displayPage = 2;
// Print multiplayer menu
clean(WHITE);
prints(0, 0, BLACK, WHITE, "Nothing here. Press B to go back.", 1);
break;
// Getting a position of 3 does build cards
case 3:
globalData->displayPage = 3;
// Print build cards menu
printBuildCard1(globalData);
break;
// Error
default:
// BSOD
clean(BLUE);
globalData->keyFlag = TRUE;
globalData->displayedKey = FALSE;
globalData->displayPage = 255;
}
}
void main() {
int i = 0;
int j = 0;
char test[2] = {'2', '\0'};
systemSetup(&globalData);
#if FRONT_NOT_BACK
TRISAbits.RA0 = 0;
ANSELAbits.ANSA0 = 0;
printMainMenu(&globalData);
#else
// TRISDbits.RD4 = 0;
// ANSELDbits.ANSD4 = 0;
// PORTDbits.RD4 = 1;
#endif
while (1) {
#if FRONT_NOT_BACK
// get the updated cards
if (globalData.runGetUpdatedCards == 1) {
getUpdatedCards();
globalData.runGetUpdatedCards = FALSE;
}
#else
// move the reader -- if we had one -- to the proper location
/*
* run LED driver
*/
if (globalData.updateLEDFlag) {
globalData.updateLEDFlag = FALSE;
updateLEDs();
}
#endif
// process pending i2c tasks
if (globalData.sendI2C == 1) {
sendBytes(i2cData.dataOut, i2cData.outLength);
globalData.sendI2C = FALSE;
}
if (globalData.gotI2C == 1) {
processI2C();
globalData.gotI2C = 0;
}
#if FRONT_NOT_BACK
if (!globalData.keyFlag) {
// Check keystroke
keypad(&globalData);
}
if (globalData.keyFlag && !globalData.displayedKey || globalData.myRequestStatus != 0) {
globalData.keyFlag = FALSE;
globalData.displayedKey = TRUE;
switch (globalData.displayPage) {
case 0: // main menu
processPrintCursor(&globalData, 3, BLUE, WHITE);
if (globalData.newDisplay == 1) {
globalData.newDisplay = 0;
switch (globalData.cursorPos) {
case 0: // go to singleplayer
globalData.displayPage = 1;
printSelectGame(&globalData);
break;
case 1: // multi
globalData.displayPage = 2;
printSelectGame(&globalData);
break;
case 2: // build
globalData.displayPage = 3;
printBuild(&globalData);
break;
case 0xFF: // back
globalData.displayPage = 0;
break;
default:
globalData.displayPage = 0;
printMainMenu(&globalData);
break;
}
}
break;
case 1: // display sp game menu
processPrintCursor(&globalData, 4, GREEN, BLACK);
if (globalData.newDisplay == 1) {
globalData.newDisplay = 0;
switch (globalData.cursorPos) {
case 0: // go to monster game
globalData.displayPage = 4;
singlePlayer(&globalData);
break;
case 1: // go to clue
globalData.displayPage = 5;
clean(BLACK);
prints(0, 35, WHITE, BLACK, "In Progress", 1);
break;
case 2: // go to error
globalData.displayPage = 6;
printBSOD();
break;
case 3: // go to error
clean(BLACK);
prints(0, 35, WHITE, BLACK, "In Progress", 1);
globalData.displayPage = 7;
break;
default:
globalData.displayPage = 0;
printMainMenu(&globalData);
break;
}
globalData.cursorPos = 0;
}
break;
case 2: // display mp game menu
processPrintCursor(&globalData, 4, GREEN, BLACK);
if (globalData.newDisplay == 1) {
globalData.newDisplay = 0;
switch (globalData.cursorPos) {
case 0: // go to monster game
globalData.displayPage = 4;
printSelectGame(&globalData);
break;
case 1: // go to clue
globalData.displayPage = 5;
clean(BLACK);
prints(0, 35, WHITE, BLACK, "In Progress", 1);
break;
case 2: // go to error
globalData.displayPage = 6;
printBSOD();
break;
case 3: // go to error
clean(BLACK);
prints(0, 35, WHITE, BLACK, "In Progress", 1);
globalData.displayPage = 7;
break;
default:
globalData.displayPage = 0;
printMainMenu(&globalData);
break;
}
globalData.cursorPos = 0;
}
break;
case 3: // build cards
processPrintCursor(&globalData, 4, RED, BLACK);
if (globalData.newDisplay == 1) {
globalData.newDisplay = 0;
switch (globalData.cursorPos) {
case 0: // go to monster game
buildCard(&globalData, 0);
prints(140, 35, BLACK, RED, "DONE", 1);
globalData.displayPage = 0;
printMainMenu(&globalData);
break;
case 1: // go to clue
buildCard(&globalData, 1);
prints(140, 35, BLACK, RED, "DONE", 1);
globalData.displayPage = 0;
printMainMenu(&globalData);
break;
case 2: // go to error
buildCard(&globalData, 2);
prints(140, 35, BLACK, RED, "DONE", 1);
globalData.displayPage = 0;
printMainMenu(&globalData);
break;
case 3: // go to error
buildCard(&globalData, 3);
clean(BLACK);
prints(140, 35, BLACK, RED, "DONE", 1);
globalData.displayPage = 0;
printMainMenu(&globalData);
break;
default:
globalData.displayPage = 0;
printMainMenu(&globalData);
break;
}
globalData.cursorPos = 0;
}
break;
case 4: // singleplayer monster
singlePlayer(&globalData);
break;
case 5: // clue sp
break;
case 6: // bsod
break;
case 7: // in progress, b goes back
if (globalData.keyPress == 0x0B) {
globalData.displayPage = 0;
printMainMenu(&globalData);
}
break;
}
}
// if (!globalData.keyFlag) {
// keypad(&globalData);
// }
// mainMenu(&globalData);
//
// if (globalData.keyFlag && !globalData.displayedKey) { // TODO this goes into a display function
// globalData.keyFlag = FALSE;
// globalData.displayedKey = TRUE;
//
//// processDisplay(globalData);
//
// }
#else
//Doing an inventory command from the Build card menu
if (globalData.readCard != 0) {
// globalData.getInventory = TRUE;
// }
// if (globalData.getInventory == TRUE) {
// get the inventory of cards
inventoryRFID();
// Print out each on to the LCD
for (i = 0; i < readerData.availableUIDs; i++) {
if (readerData.readUID[i][0] != ',') {
// Get rid of commas
processUID(readerData.readUID[i]);
// printrs(0, 24 + 8 * i, BLACK, RED, readerData.readUID[i], 1); // print first UID
}
}
// got inventory, tell frontend
i2cData.dataOut[0] = CARD_CHANGE;
i2cData.outLength = 1;
globalData.sendI2C = TRUE;
i2cData.transmissionNum = 0; // begin counting slots
// Tell UID to be quiet - Works but needs to have at least one uid in this state
// quietRFID(readerData.readUID[0]);
// if (readerData.availableUIDs > 0) {
//
// // block 0 high bits being 0x0000 indicates factory card, not custom
// // block 0 high bits being 0x0001 indicates custom card
// // block 0 low bits indicate the game the card is for. 0x0001 is the monster game
// writeRFID(readerData.readUID[0], 0x00, 0x0000, 0x0001); // 7654 3210
// writeRFID(readerData.readUID[0], 0x01, 0x0010, 0x0001); // hex 7-5 are for level 0x001 is level 1
// // hex 4 is for type 0 1 2 3
// // 0x0 fire, 0x1 water, 0x3 earth
// // last 4 are monster ID
//
// //writes 8 chars in 2 addresses of memory (0x02 and 0x03 here)
// char8RFID(readerData.readUID[0], 0x02, "FIREDUDE");
// writeRFID(readerData.readUID[0], 0x04, 0x0003, 0x0201); // Move list by id, has moves 03, 02, and 01
// readRFID(readerData.readUID[0], 0x00);
// printrs(0, 32, BLACK, RED, readerData.readData, 1); // print 1st block
// readRFID(readerData.readUID[0], 0x01);
// printrs(0, 40, BLACK, RED, readerData.readData, 1); // print 2nd block
// readRFID(readerData.readUID[0], 0x02);
// printrs(0, 48, BLACK, RED, readerData.readData, 1); // print 3rd block
// readRFID(readerData.readUID[0], 0x03);
// printrs(0, 56, BLACK, RED, readerData.readData, 1); // print 4th block
// readRFID(readerData.readUID[0], 0x04);
// printrs(0, 64, BLACK, RED, readerData.readData, 1); // print 5th block
// }
//
//
// readRFID(readerData.readUID[0], 0x01);
// // Print out block on to the LCD
// for (j = 0; j < readerData.availableUIDs; j++) {
// if (readerData.readUID[j][0] != ',') {
// // Get rid of commas
// printrs(0, 24 + 8 * i + 8 * j, BLACK, RED, readerData.readUID[j], 1); // print first UID
// }
// }
//
// prints(0, H - 8, BLACK, RED, "Press B to go back.", 1);
// // Turn off inventory flag
// globalData.getInventory = FALSE;
globalData.readCard = 0;
}
#endif
}
return;
}
void printMainMenu(int runningProcesses[]) {
const char* prompt = "Please input your selection: \n 1. List \n 2. Suspend \n 3. Resume \n 4. Terminate \n 5. Exit \n";
char *reply = readline(prompt);
int userSelection = atoi(reply);
if(userSelection == 5) {
killpg(getpgrp(),SIGTERM);
} else if(userSelection == 1) {
char buffer[10];
int value = (int)getsid(getpid());
sprintf(buffer, "%d", value);
//The parameters needed to produce the PID,PPID,Time of each child
char *const parmList[] = {"ps","-o","pid,ppid,time","-g","-r",buffer,NULL};
int childrenListProcess = fork();
if(childrenListProcess<0) {
printf("The fork has failed.");
exit(EXIT_FAILURE);
} else if(childrenListProcess == 0) {
setsid();
printf("\n");
execvp("/bin/ps", parmList);
} else {
int status;
waitpid(childrenListProcess, &status, 0);
}
const char* prompt = "";
char* reply = readline(prompt);
printMainMenu(runningProcesses);
} else if(userSelection == 2) {
const char* prompt = "Please Enter Process ID: ";
char* reply = readline(prompt);
int result = validateProcess(runningProcesses, atoi(reply));
if(result == 0) {
int returnedValue = kill(atoi(reply),SIGSTOP);
printMainMenu(runningProcesses);
} else {
printf("That was not a valid Process ID.\n");
printMainMenu(runningProcesses);
}
} else if(userSelection == 3) {
const char* prompt = "Please Enter Process ID: ";
char* reply = readline(prompt);
int result = validateProcess(runningProcesses, atoi(reply));
if(result == 0) {
int returnedValue = kill(atoi(reply),SIGCONT);
printMainMenu(runningProcesses);
} else {
printf("That was not a valid Process ID.\n");
printMainMenu(runningProcesses);
}
} else if(userSelection == 4) {
const char* prompt = "Please Enter Process ID: ";
char* reply = readline(prompt);
int result = validateProcess(runningProcesses, atoi(reply));
if(result == 0) {
/*This will remove the process that we are about to terminate
from our running list of on-going processes
*/
int i = 0;
while(runningProcesses[i] != -999) {
if(runningProcesses[i] == atoi(reply)) {
runningProcesses[i] = -777;
}
i++;
}
int returnedValue = kill(atoi(reply),SIGTERM);
int status;
waitpid(atoi(reply),&status, 0);
printMainMenu(runningProcesses);
} else {
printf("That was not a valid Process ID.\n");
printMainMenu(runningProcesses);
}
} else {
printMainMenu(runningProcesses);
}
}
int main()
{
char filename[100];
int sum,cmd;
RBTree IDTree=NULL,NameTree=NULL;
setlocale(LC_ALL,"");
printStartMenu();
inputCorrectInt(&cmd,1,2);
if (cmd==1)
{
wprintf(L"请输入文件名：\n");
scanf("%s",filename);
strcat(filename,".db");
sum=LoadDatabase(filename,&IDTree,&NameTree);
wprintf(L"正在尝试读取数据...\n");
if (sum<0)
{
wprintf(L"读取失败。\n\n");
system("pause");
return 0;
}
else
{
system("cls");
wprintf(L"已读取%d名学生信息。\n",sum);
}
}
else
{
wprintf(L"请输入文件名：\n");
scanf("%s",filename);
strcat(filename,".db");
}
while(1)
{
printMainMenu();
inputCorrectInt(&cmd,1,5);
switch (cmd)
{
case 1: //output information
printAllStudent(IDTree);
system("cls");
break;
case 2: //search student
printSearchStudent(IDTree,NameTree);
system("cls");
break;
case 3:
printAddStudent(IDTree,NameTree);
system("cls");
break;
case 4:
if (printSaveAndExit(IDTree,filename))
return 0;
system("cls");
break;
case 5:
if (printDirectExit())
return 0;
system("cls");
break;
};
}/*
int i;
int ID;
wchar_t name[20];
Student* Student;
FILE* file=fopen("data.txt","rb");
for (i=1;i<=34;i++)
{
fscanf(file,"%d%ls",&ID,name);
Student=BuildStudent(ID,name,10,Male,"19700101");
Insert(&IDTree,Student,IDSort);
wprintf(L"%d %s\n",ID,name);
}
fclose(file);
SaveDatabase(IDTree,"database.db");*/
return 0;
}
// --- MAIN ---
int main() {
char choice;
int device_id;
int aux_int;
short int aux_sint;
unsigned char aux_uchar;
float pid_control[3];
short int offsets[NUM_OF_SENSORS];
assert(open_port());
printMainMenu();
scanf("%c", &choice);
printf("choice: %c\n", choice);
switch(choice) {
case 'g':
get_or_set = choice;
break;
case 's':
get_or_set = choice;
break;
case 'm':
initMemory();
break;
case 'c':
calibrate();
break;
default:
break;
}
if (get_or_set == 'g' || get_or_set == 's') {
printParamMenu();
scanf(" %c", &choice);
if (get_or_set == 's') {
switch(choice) {
// Set new ID
case 'i':
printf("Choose a new ID: ");
scanf("%d", &device_id);
commSetParam(&comm_settings_t, BROADCAST_ID,
PARAM_ID, &device_id, 1);
usleep(100000);
commStoreDefaultParams(&comm_settings_t, BROADCAST_ID);
usleep(500000);
break;
// Set new PID parameters
case 'k':
printf("Set the new values for the PID controller:\nK_p: ");
scanf("%f", pid_control);
printf("K_i: ");
scanf("%f", pid_control + 1);
printf("K_d: ");
scanf("%f", pid_control + 2);
commSetParam(&comm_settings_t, BROADCAST_ID,
PARAM_PID_CONTROL, pid_control, 3);
usleep(100000);
commStoreDefaultParams(&comm_settings_t, BROADCAST_ID);
usleep(500000);
break;
// Set startup activation flag
case 'a':
printf("Do you want the motor to be ON [1] or OFF [0] at startup?: ");
scanf("%d", &aux_int);
if (aux_int == 0) {
aux_uchar = 0;
commSetParam(&comm_settings_t, BROADCAST_ID,
PARAM_STARTUP_ACTIVATION, &aux_uchar, 1);
} else {
aux_uchar = 3;
commSetParam(&comm_settings_t, BROADCAST_ID,
PARAM_STARTUP_ACTIVATION, &aux_uchar, 1);
}
commStoreDefaultParams(&comm_settings_t, BROADCAST_ID);
break;
case 'm':
break;
case 's':
break;
case 'o':
printf("Set the new offsets:\n");
printf("Offset 1: ");
scanf("%hd", &aux_sint);
offsets[0] = aux_sint;
printf("Offset 2: ");
scanf("%hd", &aux_sint);
offsets[1] = aux_sint;
printf("Offset 3: ");
scanf("%hd", &aux_sint);
offsets[2] = aux_sint;
commSetParam(&comm_settings_t, BROADCAST_ID, PARAM_MEASUREMENT_OFFSET,
offsets, NUM_OF_SENSORS);
usleep(100000);
commStoreDefaultParams(&comm_settings_t, BROADCAST_ID);
usleep(1000000);
break;
case 'u':
break;
case 'f':
break;
case 'l':
break;
}
} else {
switch(choice) {
case 'i':
break;
case 'k':
break;
case 'a':
break;
case 'm':
break;
case 's':
break;
case 'o':
break;
case 'u':
break;
case 'f':
break;
case 'l':
break;
}
}
}
return 1;
}
State onMainMenu(Game* game) {
int choice = 0;
char cmd[255];
char userInput[255];
cmd[0] = 0;
/* Print initial Main Menu */
printMainMenu(game);
/* get choices: Possible choices are New Game, Load Game, Set up board, How to play */
choice = getInput();
/* Added by Cesar 1/26/2014 */
/* handling the cases mentioned above */
switch(choice){
case 0:
/* Start a new game */
return NewGame;
case 1:
/* Load an old game */
printf("Enter the file name you want to load: ");
scanf("%s", userInput);
printf("\n");
fseek(stdin,0,SEEK_END);
loadGame(game, userInput);
return NewGame;
case 2:
/* Setup custom board */
while(cmd[0]!='0')
{
/*
printf("Enter the file name you want to save \n");
scanf("%s", userInput);
saveLog(game, userInput);
fseek(stdin,0,SEEK_END);
*/
printBoard(game);
printf("Please input move to move piece (input 0 to start game): ");
getGameInput(cmd);
printf("\n");
directMoveNotation(game, cmd);
}
return NewGame;
case 3:
/* How to play */
printRules();
return MainMenu;
case 4:
/* Reset board/game */
resetGame(game);
printf("Board/game has been reset.\n\n");
return MainMenu;
case 5:
/* displays help */
help();
return MainMenu;
case 9:
return Exit;
default:
return MainMenu;
}
/* end code added by Cesar */
/* old code, commented out on 1/26/2014
switch(choice) {
case 0:
return NewGame;
case 1:
loadGame(game);
return NewGame;
case 2:
game->setting->allowRedo ^= 1;
return MainMenu;
case 3:
game->setting->allowIllegalMove ^= 1;
return MainMenu;
case 4:
selectOpponent(game);
return MainMenu;
case 5:
selectDifficulty(game);
return MainMenu;
case 6:
return Exit;
default:
return MainMenu;
}
End old code */
}
// Main function: Program execution begins.
main()
{
/* Phonebook points to (the first element) of an array of structures
* of ContactType. Each element of the array contains all the
* information for one record: first name, last name, and phone
* number. Integer variables iLength and iCapacity each contain
* information about the array. iCapacity indicates the number of
* entries which can be stored according to current memory allocation;
* when iCapacity = 5, then no more than 5 records can be stored.
* iLength indicates the number of records that are currently stored.
* (Therefore, the last element in the array is indexed by iLength - 1.)
*/
ContactType *PhoneBook;
int iLength = 0;
int iCapacity = 0;
/* PhoneBook is allocated enough memory to match its current listed
* capacity. Of course, here, the listed capacity is 0, so PhoneBook
* is not assigned any memory according to the calloc function. This
* assignment is included for form's sake, to match the free(PhoneBook)
* statement at the end of the main() function. Adhering to the form
* of matching memory allocation and memory freeing will ensure careful
* programming.
*/
PhoneBook = (ContactType *) calloc(iCapacity, sizeof(ContactType));
/* cUserChoice will take on the value of the user's main menu choice.
* The following loop will continue to execute until the user chooses
* to exit. The constant identifier cLastChoice contains the character
* representing the last available choice ('Exit'). If the program
* is modified to accommodate a larger or smaller menu, this constant
* can be changed conveniently.
*/
char cUserChoice = '\0';
const char cLastChoice = '9';
do {
// The menu is displayed and the user enters her choice.
printMainMenu ();
getChoice (&cUserChoice, cLastChoice);
// The appropriate function is called.
switch (cUserChoice) {
case '1':
showAllContacts (PhoneBook, &iLength);
break;
case '2':
addContact (&PhoneBook, &iLength, &iCapacity);
break;
case '3':
findContact (PhoneBook, &iLength);
break;
case '4':
getRandomContact (PhoneBook, &iLength);
break;
case '5':
deleteContact (PhoneBook, &iLength);
break;
case '6':
deleteAllContacts (&iLength, &iCapacity);
break;
case '7':
saveContactsToFile (PhoneBook, &iLength);
break;
case '8':
loadContactsFromFile (&PhoneBook, &iLength, &iCapacity);
break;
}
// The application continues until the user chooses to exit.
} while (cUserChoice != cLastChoice);
// Freeing allocated memory.
free (PhoneBook);
printf ("\nGoodbye!\n\n");
}
/**
* @brief This method runs when the 'task_user' is called.
*
* @details This method runs inifitely when the task is called so all logic
* is contained in here. A for(;;) loop runs until it gets to the
* end where it delays for 1 ms to allow other lower level
* priority tasks a chance to run.
*/
void task_user::run (void)
{
time_stamp a_time; // Holds the time so it can be displayed
number_entered = 0; // Holds a number being entered by user
//
for (;;)
{
switch (state)
{
// Initialize first task where we wait for
case (0):
printMainMenu();
// If the user typed a character, read
if (hasUserInput())
{
// In this switch statement, we respond to different characters as commands typed in by the user
switch (char_in)
{
// The 't' command asks what time it is right now
case ('m'):
*p_serial << PMS("->Selected: ") << char_in;
*p_serial
<< endl
<< endl
<< PMS ("\t->Switching to Motor Module..")
<< endl
<< PMS ("\t->Clearing Registers and Menus..")
<< endl
<< PMS ("\t->Intializing Motors..")
<< endl;
// Reset the visible menu flag
resetMenus();
// Sets the variable to true so it doesn't go into single module yet
in_main_motor_module = true;
// go to case 1 over all
transition_to(1);
break;
// Enter encoder test module
case ('e'):
*p_serial << PMS("->Selected: ") << char_in;
*p_serial
<< ATERM_CLEAR_SCREEN << ATERM_CURSOR_TO_YX(1, 1)
<< PMS ("\t->Switching to Encoder Module..")
<< endl
<< PMS ("\t->Clearing Registers and Menus..")
<< endl
<< PMS ("\t->Intializing Encoder..")
<< endl << endl;
// Reset the visible menu flag
resetMenus();
// Sets the variable to true so it doesn't go into single module yet
in_encoder_module = true;
// go to case 1 over all
transition_to(3);
break;
// The 't' command asks what time it is right now
// Enter encoder test module
case ('i'):
*p_serial << PMS("->Selected: ") << char_in;
*p_serial
<< ATERM_CLEAR_SCREEN << ATERM_CURSOR_TO_YX(1, 1)
<< PMS ("\t->Switching to IMU Module..")
<< endl
<< PMS ("\t->Clearing Registers and Menus..")
<< endl
<< PMS ("\t->Intializing IMU..")
<< endl << endl;
// Reset the visible menu flag
resetMenus();
// Sets the variable to true so it doesn't go into single module yet
in_imu_module = true;
// go to case 1 over all
transition_to(4);
break;
// The 't' command asks what time it is right now
case ('t'):
*p_serial << (a_time.set_to_now ()) << endl;
break;
// The 's' command asks for version and status information
case ('s'):
show_status ();
break;
// The 'd' means drive control
case ('d'):
*p_serial << PMS("->Selected: ") << char_in;
*p_serial
<< ATERM_CLEAR_SCREEN << ATERM_CURSOR_TO_YX(1, 1)
<< PMS ("\t->Switching to Drive Mode..")
<< endl << endl;
transition_to(5);
in_drive_mode = true;
resetMenus();
break;
//case ('d'):
// The 'h' command is a plea for help; '?' works also
case ('h'):
case ('?'):
print_help_message ();
break;
// The 'n' command runs a test of entering a number
case ('n'):
while (char_in != 'q')
{
*p_serial << PMS ("Enter decimal numeric digits, "
"then RETURN or ESC") << endl;
getNumberInput();
*p_serial << endl << endl << PMS("\t->You Entered: ") << number_entered << endl;
}
break;
// A control-C character causes the CPU to restart
case (3):
*p_serial << PMS ("Resetting AVR") << endl;
wdt_enable (WDTO_120MS);
for (;;);
break;
// If character isn't recognized, ask What's That Function?
default:
*p_serial << '"' << char_in << PMS ("\": WTF?") << endl;
break;
}; // End switch for characters
} // End if a character was received
break; // End of state 0
// Motor Control BASE module
case (1):
if (in_main_motor_module) //first time here run menu and get input
{
// prints the menu for this module
printMotorMenu();
// user is going to input motor number or q
getNumberInput();
if (char_in == 'q')
{
*p_serial << PMS("->Selected: ") << char_in << endl
<< endl
<< endl
<< PMS("\t->Returning to Mission Control.. ")
<< endl
<< PMS("\t->Releasing Motors..") << endl
<< PMS("\t->Resetting AVR..") << endl;
//wdt_enable (WDTO_120MS);
//for (;;);
//break;
//release motors
//motor_select->put(1);
//motor_directive -> put(FREEWHEEL);
//
// no longer in this module, leaving
in_main_motor_module = false;
transition_to(0);
resetMenus();
break;
//reset menu flag
//resetMenus();
// set the transition & wait for break
//transition_to(0);
}
// if the number entered is valid
else if (isValidMotor(number_entered))
{
// re print user input and give them confirmation message.
*p_serial
<< endl
<< endl
<< PMS("\t->Switching to Control of Motor ") << number_entered << dec << PMS(".") << endl
<< PMS ("\t->Return to the Main Motor Module to swap Motors.") << endl;
// set local motor select value
local_motor_select = number_entered;
//reset menus
resetMenus();
//set flag to off so we can go into the single motor module
in_main_motor_module = false;
// go back to the top of this menu
// since in_main_motor_module flag is set off, we will go into single motor control when this state reloops
transition_to(1);
}
else
{
*p_serial << PMS("Try Again. ") << endl;
in_main_motor_module = true;
}
break;
}
if (!in_main_motor_module) //already were here now we go deeper
{
printSingleMotorOptions();
// They now select the motor task
if (hasUserInput())
{
switch (char_in)
{
case ('s'):
*p_serial
<< PMS("->Selected: ") << char_in << endl;
*p_serial
<< endl
<< PMS ("Enter the Power Value (-255 to 255);")
<< endl
<< PMS(" *Note: Negative Values = Reverse")
<< endl;
//motor_directive -> put(1);
getNumberInput();
//setPower(motor_select->get(), number_entered);
setMotor(local_motor_select, (int16_t)number_entered, SETPOWER);
*p_serial
<< endl << endl
<< PMS ("\tPower set at ") << number_entered
<< PMS(". ") << endl;
resetMenus();
printDashBoard();
//now that operation is complete, ask for more
*p_serial
<< endl << PMS("->Choose Motor ")
<< local_motor_select << PMS(" operation: ")
<< PMS("\t(Press 'o' for options)")
<< endl;
break;
case ('b'):
*p_serial
<< PMS("->Selected: ") << char_in
<< endl;
*p_serial
<< PMS ("\t->Enter the Brake Force(0 - 255)")
<< endl;
getNumberInput();
*p_serial
<< endl << endl
<< PMS ("\tBrake set at ") << number_entered
<< PMS(". ") << endl;
setMotor(local_motor_select, number_entered, BRAKE);
resetMenus();
printDashBoard();
//now that operation is complete, ask for more
*p_serial
<< endl << PMS("->Choose Motor ")
<< local_motor_select << PMS(" operation: ")
<< PMS("\t(Press 'o' for options)")
<< endl;
break;
case ('f'):
*p_serial
<< PMS("->Selected: ") << char_in << endl;
*p_serial
<< PMS ("\t->Releasing Motor..") << endl;
setMotor(0, 0, FREEWHEEL);
resetMenus();
printDashBoard();
//now that operation is complete, ask for more
*p_serial
<< endl << PMS("->Choose Motor ")
<< local_motor_select << PMS(" operation: ")
<< PMS("\t(Press 'o' for options)")
<< endl;
break;
case ('p'):
*p_serial
<< endl << PMS("->Selected: ")
<< char_in << endl
<< PMS("\t->Entering Potentiometer Control... ") << endl;
*p_serial << PMS ("\t->Potentiometer Activated.") << endl << endl;
*p_serial << endl << endl
<< PMS ("\t->Press 'q' to return to the Motor ") << local_motor_select << PMS(" Control")
<< endl << PMS ("\t->Press 'r' to refresh the DashBoard ") << endl;
transition_to(2);
resetMenus();
break;
case ('o'):
resetMenus();
printSingleMotorOptions();
break;
case ('q'):
*p_serial
<< PMS("->Selected: ") << char_in << endl
<< PMS(" Returning to Main Motor Module.. ")
<< endl;
transition_to(1);
resetMenus();
in_main_motor_module = true;
break;
default:
*p_serial
<< endl << PMS("'") << char_in
<< PMS ("' is not a valid entry.") << endl;
*p_serial
<< endl << PMS("->Choose Motor ")
<< local_motor_select
<< PMS(" operation: ") << endl;
break;
}
}
}
break;
//Potentiometer Mode
case (2):
if (hasUserInput())
{
if (char_in == 'q')
{
*p_serial << endl << PMS("->Selected: ") << char_in << endl;
transition_to(1);
resetMenus();
break;
//
}
if (char_in == 'r')
{
*p_serial << endl << PMS("->Selected: ") << char_in << endl;
resetMenus();
printDashBoard();
*p_serial << endl << endl
<< PMS ("\t->Press 'q' to return to the Motor ") << local_motor_select << PMS(" Control")
<< endl << PMS ("\t->Press 'r' to refresh the DashBoard ") << endl;
}
}
setMotor(local_motor_select, motor_power -> get(), POTENTIOMETER);
printDashBoard();
break;
//for use later [3,4]
case (3):
if (in_encoder_module)
{
printEncoderModuleOptions();
if (hasUserInput())
switch (char_in)
{
case ('q'):
*p_serial << ATERM_CLEAR_SCREEN << ATERM_BKG_WHITE
<< PMS("->Selected: ") << char_in << endl
<< endl
<< endl
<< PMS("\t->Returning to Mission Control.. ")
<< endl
<< PMS("\t->Releasing Encoder..") << endl;
transition_to(0);
in_main_motor_module = true;
in_encoder_module = false;
resetMenus();
*p_serial
<< ATERM_CLEAR_SCREEN
<< ATERM_CURSOR_TO_YX(1, 1) << endl;
break;
case ('r'):
//constant refreshing already
transition_to(1)
in_imu_module = true;
break;
default:
break;
}
}
break;
case (4):
if (in_imu_module)
{
printIMUModuleOptions();
if (hasUserInput())
switch (char_in)
{
case ('q'):
*p_serial << ATERM_CLEAR_SCREEN
<< PMS("->Selected: ") << char_in << endl
<< endl
<< endl
<< PMS("\t->Returning to Mission Control.. ")
<< endl
<< PMS("\t->Releasing IMU..") << endl;
transition_to(0);
in_imu_module = false;
resetMenus();
break;
default:
break;
*p_serial << ATERM_CLEAR_SCREEN;
}
case ('r'):
break;
default:
break;
}
}
break;
// Drive Mode
case (5):
if (in_drive_mode)
{
printDriveModeOptions();
// printDashBoard();
if (hasUserInput())
switch (char_in)
{
case ('q'):
*p_serial << ATERM_CLEAR_SCREEN
<< PMS("->Selected: ") << char_in << endl
<< endl
<< endl
<< PMS("\t->Returning to Mission Control.. ")
<< endl
<< PMS("\t->Releasing Drive Mode..") << endl;
transition_to(0);
in_drive_mode = false;
resetMenus();
break;
case ('s'):
*p_serial << endl
<< PMS("Input Power Value for Motor: ")
<< endl;
getNumberInput();
setMotor(0, (int16_t)number_entered, SETPOWER);
*p_serial
<< endl << endl
<< PMS ("\tPower set at ") << number_entered
<< PMS (". ") << endl << endl
<< PMS ("Printing DashBoard.. ") << endl
<< endl;
resetMenus();
printDashBoard();
break;
case ('r'):
*p_serial
<< PMS ("Printing DashBoard.. ")
<< endl
<< endl;
resetMenus();
printDashBoard();
break;
default:
break;
}
int16_t x_direction = y_joystick -> get();
int16_t map_x = x_direction - 526;
if (x_direction > 526)
{
map_x = 2 * (x_direction - 526);
}
else
{
map_x = -2 * (526 - x_direction);
}
motor_setpoint -> put(map_x);
motor_directive -> put(SETPOWER);
// *p_serial
// << ATERM_CURSOR_TO_YX(19, 1)
// << ATERM_ERASE_IN_LINE(0)
// << gear_state -> get()
// << PMS ("\t\t")
// << motor_setpoint -> get()
// << PMS("\t")
// << PMS("\t")
// << motor_power -> get()
// << PMS("\t")
// << PMS("\t")
// << encoder_count -> get()
// << PMS("\t")
// << ATERM_CURSOR_TO_YX(23, 1)
// << ATERM_ERASE_IN_LINE(0)
// << steering_power -> get()
// << PMS(" \t")
// << encoder_ticks_per_task -> get()
// << PMS("\t")
// << PMS("\t")
// << x_joystick -> get()
// << PMS("\t")
// << PMS("\t")
// << y_joystick -> get()
// << PMS("\t");
*p_serial << encoder_ticks_per_task -> get() << endl;
}
break;
//JoyStick test
case (6):
break;
default:
*p_serial << PMS ("Illegal state! Resetting AVR") << endl;
wdt_enable (WDTO_120MS);
for (;;);
break;
} // End switch state
runs++; // Increment counter for debugging
// No matter the state, wait for approximately a millisecond before we
// run the loop again. This gives lower priority tasks a chance to run
delay_ms (5);
}