void handleMotionEvent(AInputEvent* input)
{
int32_t action = AMotionEvent_getAction(input);
int actionMasked = action & AMOTION_EVENT_ACTION_MASK;
int actionPointerIndex = (action & AMOTION_EVENT_ACTION_POINTER_INDEX_MASK) >> AMOTION_EVENT_ACTION_POINTER_INDEX_SHIFT;
// LOG(0, ".. motion: %d %d\n", actionMasked, actionPointerIndex);
size_t numPointers = AMotionEvent_getPointerCount(input);
float scale = 1.0f / _inputScale;
for (size_t i=0; i<numPointers; ++i)
{
int sysIndex = i;
Touch* touch = NULL;
bool on = false;
switch (actionMasked)
{
case AMOTION_EVENT_ACTION_DOWN:
case AMOTION_EVENT_ACTION_POINTER_DOWN:
touch = assignTouch(sysIndex);
on = true;
break;
case AMOTION_EVENT_ACTION_MOVE:
touch = getTouch(sysIndex);
on = true;
break;
case AMOTION_EVENT_ACTION_POINTER_UP:
case AMOTION_EVENT_ACTION_UP:
touch = getTouch(sysIndex);
on = sysIndex != actionPointerIndex;
break;
}
if (touch == NULL) continue;
float x = AMotionEvent_getX(input, sysIndex);
float y = AMotionEvent_getY(input, sysIndex);
Vector3 pos(x, y, 0);
pos *= scale;
// LOG(0, ".. pointer %d %f %f\n", sysIndex, pos.x, pos.y);
touch->pointer->move(on, pos);
}
if (actionMasked == AMOTION_EVENT_ACTION_POINTER_UP || actionMasked == AMOTION_EVENT_ACTION_UP)
releaseTouch(actionPointerIndex);
}
/*
* Class: com_example_soundtouchdemo_NativeSoundTouch
* Method: soundTouchDestory
* Signature: ()V
*/
void Java_com_example_soundtouchdemo_NativeSoundTouch_soundTouchDestory(
JNIEnv *env, jobject obj) {
soundtouch::SoundTouch* soundTouch = getTouch(env, obj);
delete soundTouch;
}
/*
* Class: com_example_soundtouchdemo_NativeSoundTouch
* Method: setPitchSemiTones
* Signature: (D)V
*/
void Java_com_example_soundtouchdemo_NativeSoundTouch_setPitchSemiTones(
JNIEnv *env, jobject obj, jfloat jpitch) {
soundtouch::SoundTouch* soundTouch = getTouch(env, obj);
float pitch = jpitch;
soundTouch->setPitchSemiTones(pitch);
}
/*
* Class: com_example_soundtouchdemo_NativeSoundTouch
* Method: soundTouchFlushLastSamples
* Signature: ()V
*/
void Java_com_example_soundtouchdemo_NativeSoundTouch_soundTouchFlushLastSamples(
JNIEnv *env, jobject obj) {
LOGD("SoundTouch flush");
soundtouch::SoundTouch* soundTouch = getTouch(env, obj);
soundTouch->flush();
}
/*
* Class: com_example_soundtouchdemo_NativeSoundTouch
* Method: setTempoChange
* Signature: (F)V
*/
void Java_com_example_soundtouchdemo_NativeSoundTouch_setTempoChange(
JNIEnv *env, jobject obj, jfloat jtempo) {
soundtouch::SoundTouch* soundTouch = getTouch(env, obj);
float tempo = jtempo;
soundTouch->setTempoChange(tempo);
}
/*
* Class: com_example_soundtouchdemo_NativeSoundTouch
* Method: soundTouchgethVersion
* Signature: ()Ljava/lang/String;
*/
jstring Java_com_example_soundtouchdemo_NativeSoundTouch_soundTouchgethVersion(
JNIEnv *env, jobject obj) {
const char *verStr;
soundtouch::SoundTouch* soundTouch = getTouch(env, obj);
verStr = soundTouch->getVersionString();
// return version as string
return env->NewStringUTF(verStr);
}
void GameplayLayer::_handleActionDiceDragMoved(EventCustom* event) {
auto data = (ActionDiceDragData*) event->getUserData();
auto sprite = data->getSprite();
auto touch = data->getTouch();
auto dice = sprite->getDice();
auto touchLocation = this->convertTouchToNodeSpace(touch);
sprite->setPosition(touchLocation);
auto handler = DiceDragHandlerFactory::getHandler(dice);
handler->dragMoved(data, this, this->_getDockableContainer());
}
Touch* assignTouch(int sysIndex)
{
Touch* touch = getTouch(sysIndex);
if (touch) return touch;
for (uint i=0; i<COUNT_OF(_touch); ++i)
{
touch = &_touch[i];
if (touch->sysIndex == -1)
{
touch->sysIndex = sysIndex;
return touch;
}
}
return NULL;
}
/*
* Class: com_example_soundtouchdemo_NativeSoundTouch
* Method: shiftingPitch
* Signature: ([BII)V
*/
void Java_com_example_soundtouchdemo_NativeSoundTouch_shiftingPitch(JNIEnv *env,
jobject obj, jbyteArray jarray, jint offset, jint length) {
soundtouch::SoundTouch* soundTouch = getTouch(env, obj);
jbyte *data;
data = env->GetByteArrayElements(jarray, JNI_FALSE);
//soundtouch::SAMPLETYPE sampleBuffer[length];
//memcpy(&sampleBuffer, data, length);
//(16*1)/8=2bytes,length/2=x;x¸ösample
soundTouch->putSamples((soundtouch::SAMPLETYPE*) data, length / (16 / 8));
env->ReleaseByteArrayElements(jarray, data, 0);
}
/*
* Class: com_example_soundtouchdemo_NativeSoundTouch
* Method: receiveSamples
* Signature: ([BI)I
*/
jint Java_com_example_soundtouchdemo_NativeSoundTouch_receiveSamples(
JNIEnv *env, jobject obj, jbyteArray jarray, jint jLenght) {
int receiveSamples = 0;
int maxReceiveSamples = jLenght / (16 / 8);
soundtouch::SoundTouch* soundTouch = getTouch(env, obj);
jbyte *data;
data = env->GetByteArrayElements(jarray, JNI_FALSE);
receiveSamples = soundTouch->receiveSamples((soundtouch::SAMPLETYPE*) data,
maxReceiveSamples);
//memcpy(data, sampleBuffer, receiveSize);
env->ReleaseByteArrayElements(jarray, data, 0);
return receiveSamples;
}
bool showStepByStep( T_Cell cell, T_Cell grid[][GRID_SIZE] ) {
bool retval; // La valeur de retour, vrai si l'utilisateur a choisi de revenir en arriere
int currentChoice = 1; // Chaque choix dans le menu a un numero
int userChoice; // Le choix de l'uilisateur
bool outOf=false; // booleen permet de sortir de la boucle
do {
printf("\n");
//printf("\033[u");
clearConsole();
//system("clear"); // Initialiser le terminal
retval = false; // Valeur faux par default
printGrid(&cell, grid); // Afficher la grille
if (currentChoice==1) // Si le choix courant egale au numero de menu
printf("\033[36m[*] CONTINUER\033[0m\n"); // afficher le menu coloré
else
printf("[ ] Continuer\n"); // sinon affichage normal
if (currentChoice==2)
printf("\033[36m[*] SAUVGARDER LA GRILLE DANS UN FICHIER\033[0m\n");
else
printf("[ ] Sauvgarder la grille dans un fichier\n");
if (currentChoice==3)
printf("\033[36m[*] REVENIRE A L'ETAPE PRECEDENTE\033[0m\n");
else
printf("[ ] Revenir a l'etape precedente\n");
if (currentChoice==4)
printf("\033[36m[*] APPLIQUER UNE REGLE\033[0m\n");
else
printf("[ ] Appliquer une regle\n");
if (currentChoice==5)
printf("\033[36m[#] QUITTER\033[0m \n");
else
printf("[ ] Quiter\n");
userChoice=getTouch(); // prend le numero de la touche qui l'utilisateur a choisi
switch (userChoice) { //faire un switch pour le code de la touche
case 300: { // 300 si la valeur renvoyer par la fonction getTouch() ou cas ou l'utilisateur choisi la fleche haut
if (currentChoice>1)
currentChoice--;
else
currentChoice=5;
break;
}
case 301: {
if (currentChoice<5)
currentChoice++;
else
currentChoice=1;
break;
}
default: {
if (userChoice=='\n' || userChoice=='\r') { // si l'utilisateur a choisi un choix
switch (currentChoice) {
case 1: { outOf=true; break;} // continuer
case 2: { exportCurrentGrid(grid); break; }; // exporter la grille courante
case 3: {outOf=true; retval=true; break;} // revenir en arriere
case 4: { // le choix d'application une regle
bool secondOutOf=false; // booleen permet de sortir de la boucle suivante
printf("\n [ Entrer le numero de la regle] : ");
do {
int ruleNumber; // le numero de la regle
ruleNumber=getch();
switch (ruleNumber) {
case '1': { // regle 1
secondOutOf = true; // sortire de boucle apres l'application de la regle
firstRule(grid); // appliquer la regle 2
printf("\nregle 1 applique avec succes!\ntaper une touche pour continuer... ");
getTouch(); // attender un signal pour continue
break;
} // end of case '1'
case '2': { // regle 2
secondOutOf = true;
secondRule(grid, false);
printf("\nregle 2 applique avec succes!\ntaper une touche pour continuer... ");
getTouch();
break;
} // end of case '2'
case '3': { // regle 3
secondOutOf = true;
thirdRule(grid, false);
printf("\nregle 3 applique avec succes!\ntaper une touche pour continuer... ");
getTouch();
break;
} // end of case '3'
case '4': { // regle 4
secondOutOf = true;
forthRule(grid);
printf("\nregle 4 applique avec succes!\ntaper une touche pour continuer... ");
getTouch();
break;
} // end of case '4'
default: break;
} // end of switch ruleNumber
}while (!secondOutOf);
break;} // end of case 4
case 5: {
printf("\n");
exit(EXIT_SUCCESS);
} // end of case 5
default: break;
} // end of currentChoice
} // end of default
}
} // end of switchuserchoice
} while (!outOf);
return retval;
}
void scanGridValues(T_Cell grid[][GRID_SIZE], bool importFromFile) {
bool outOf=false;
int line, column;
line = 0; column=0;
int userChoise;
if (!importFromFile) {
//printf("\nSaisie les %d valeurs de la grille: ",GRID_SIZE*GRID_SIZE);
do
{
//system("clear"); // initialiser le terminal
//printf("\033[u");
clearConsole();
printGrid(&grid[line][column], grid); // Afficher la grille
printf("Entrer la valeur de la case [%d][%d]: ",line,column);
userChoise = getTouch(); // scan la valeur
switch (userChoise) { // pour deplacer entre les case de la grille
case 300: { // touche UP
if (line>0)
line--;
break;
}
case 301: { // Touche DOWN
if (line<GRID_SIZE-1)
line++;
break;
}
case 302: { // touche RIGHT
if (column<GRID_SIZE-1)
column++;
break;
}
case 303: { // touche LEFT
if (column>0)
column--;
break;
}
case '0': { // Effacer la valeur de la case acctuelle
grid[line][column].value = userChoise-48;
break;
}
default: { // les 9 valeurs possible de la case
if (userChoise>'0' && userChoise<='9') {
if (addPossible(userChoise-48, grid[line][column], grid))
grid[line][column].value = userChoise-48;
break;
}
else if (userChoise=='\n' || userChoise=='\r') { // resoudre la grille
outOf = true;
break;
}
else {
outOf=false;
break;
}
}
}
} while (!outOf);
} // end of if no importFromFile
else importGrid(grid);
firstRule(grid); // Appliquer la regle 1
}
void DisplayClass::processButtons()
{
getTouch();
#ifdef SKIP
Serial.print("processButtonIndex = "); Serial.print(myTouchButton);
Serial.println();
#endif
switch (TouchedButtonIndex){
default:
case END_BUT:
#ifdef SKIP
Serial.print("Error processButtonIndex = "); Serial.print(myTouchButton);
Serial.println();
#endif
break;
// Process the Temperature UP/DOWN Buttons Here
case COOL_UP:
(p_tb1+COOL_UP)->DisplayButton(GRAY1, BRIGHT_RED, "+");
tempControl.incrementHighTemp(); // Added for Test 10/7/15
break;
case COOL_DN:
(p_tb1 + COOL_DN)->DisplayButton(GRAY1, 0x071f, "-");
tempControl.decrementHighTemp(); // Added for Test 10/7/15
break;
case HEAT_UP:
(p_tb1 + HEAT_UP)->DisplayButton(GRAY1, BRIGHT_RED, "+");
tempControl.incrementLowTemp();
break;
case HEAT_DN:
(p_tb1 + HEAT_DN)->DisplayButton(GRAY1, 0x071f, "-");
tempControl.decrementLowTemp();
break;
// Process the Mode Control Buttons Here
case HEAT:
//(p_tb1 + HEAT)->DisplayButton(YELLOW, 0x071f, "Ht");// BRIGHT_BLUE
tempControl.setSysMode(SYS_HEAT);
break;
case AUTO:
//(p_tb1 + AUTO)->DisplayButton(YELLOW, 0x071f, "Au");// BRIGHT_BLUE
tempControl.setSysMode(SYS_AUTO);
break;
case COOL:
//(p_tb1 + COOL)->DisplayButton(YELLOW, 0x071f, "Co");// BRIGHT_BLUE
tempControl.setSysMode(SYS_COOL);
break;
case OFF:
// (p_tb1 + OFF)->DisplayButton(YELLOW, 0x071f, "Of");// BRIGHT_BLUE
tempControl.setSysMode(SYS_OFF);
break;
case FAN:
//(p_tb1 + 8)->DisplayButton(YELLOW, 0x071f, "Fa");// BRIGHT_BLUE
tempControl.toggleSysFan();
break;
case EM_HEAT:
//(p_tb1 + EM_HEAT)->DisplayButton(YELLOW, 0x071f, "EH");// BRIGHT_BLUE
tempControl.setSysMode(SYS_EMR_HEAT);
break;
}
if (TouchedButtonIndex == END_BUT) {
// ??? Need this?
}
switch (HeldButtonIndex){
default:
break;
// Process the Repeating Buttons for Temperatre UP/DOWN Here
case COOL_UP:
(p_tb1)->DisplayButton(GRAY2, BRIGHT_RED, "+");
tempControl.incrementHighTemp();
break;
case COOL_DN:
(p_tb1 + COOL_DN)->DisplayButton(GRAY2, 0x071f, "-");// BRIGHT_BLUE
tempControl.decrementHighTemp();
break;
case HEAT_UP:
(p_tb1 + HEAT_UP)->DisplayButton(GRAY2, BRIGHT_RED, "+");
tempControl.incrementLowTemp();
break;
case HEAT_DN:
(p_tb1 + HEAT_DN)->DisplayButton(GRAY2, 0x071f, "-");// BRIGHT_BLUE
tempControl.decrementLowTemp();
break;
//case HEAT:
// //(p_tb1 + HEAT)->DisplayButton(YELLOW, 0x071f, "Ht");// BRIGHT_BLUE
// tempControl.setSysMode(SYS_HEAT);
// break;
//case AUTO:
// //(p_tb1 + AUTO)->DisplayButton(YELLOW, 0x071f, "Au");// BRIGHT_BLUE
// tempControl.setSysMode(SYS_AUTO);
// break;
//case COOL:
// //(p_tb1 + COOL)->DisplayButton(YELLOW, 0x071f, "Co");// BRIGHT_BLUE
// tempControl.setSysMode(SYS_COOL);
// break;
//case OFF:
//// (p_tb1 + OFF)->DisplayButton(YELLOW, 0x071f, "Of");// BRIGHT_BLUE
// tempControl.setSysMode(SYS_OFF);
// break;
////case FAN:
//// //(p_tb1 + FAN)->DisplayButton(YELLOW, 0x071f, "Fa");// BRIGHT_BLUE
//// tempControl.toggleSysFan();
//// break;
//case EM_HEAT:
// //(p_tb1 + EM_HEAT)->DisplayButton(YELLOW, 0x071f, "EH");// BRIGHT_BLUE
// tempControl.setSysMode(SYS_EMR_HEAT);
// break;
}
switch (ReleaseButtonIndex){
case END_BUT:
default:
ReleaseButtonIndex = END_BUT;
break;
case COOL_UP:
(p_tb1+COOL_UP)->DisplayButton(WHITE, RED, "+");
break;
case COOL_DN:
(p_tb1 + COOL_DN)->DisplayButton(WHITE, BLUE, "-");
break;
case HEAT_UP:
(p_tb1 + HEAT_UP)->DisplayButton(WHITE, RED, "+");
break;
case HEAT_DN:
(p_tb1 + HEAT_DN)->DisplayButton(WHITE, BLUE, "-");
break;
}
if (ReleaseButtonIndex == END_BUT) {
// ??? is this needed
}
}
void CIwGameInput::Update()
{
// Update the pointer if it is available
if (PointerAvailable)
s3ePointerUpdate();
// Update key system if it is available
s3eKeyboardUpdate();
Tapped = false;
int num_touches = getTouchCount();
DragDelta.x = 0;
DragDelta.y = 0;
if (num_touches == 0)
Dragging = false;
else
Dragging = true;
// User has just pressed screen so start timer
if (PreviousNumTouches == 0 && num_touches == 1)
{
TapTimer.setDuration(TAP_TIME_MS);
TouchedPos.x = getTouch(0)->x;
TouchedPos.y = getTouch(0)->y;
}
// User has stopped pressing screen so check to see if press was a short press (a tap)
if (PreviousNumTouches == 1 && num_touches == 0)
{
// Only check if touch hasnt moved much
int dx = getTouch(0)->x - TouchedPos.x;
int dy = getTouch(0)->y - TouchedPos.y;
int d = dx * dx + dy * dy;
DragDelta.x = dx;
DragDelta.y = dy;
if (d <= TAP_SENSITIVITY)
{
if (TapTimer.HasTimedOut())
{
TapTimer.Stop();
Tapped = true;
}
}
else
{
TapTimer.Stop();
}
}
PreviousNumTouches = num_touches;
// Update buttons
BackPressed = false;
bool back_released = (s3eKeyboardGetState(s3eKeyBack) & S3E_KEY_STATE_RELEASED) == S3E_KEY_STATE_RELEASED || (s3eKeyboardGetState(s3eKeyAbsBSK) & S3E_KEY_STATE_RELEASED) == S3E_KEY_STATE_RELEASED;
if (back_released)
BackPressed = true;
MenuPressed = false;
bool menu_released = (s3eKeyboardGetState(s3eKeyMenu) & S3E_KEY_STATE_RELEASED) == S3E_KEY_STATE_RELEASED || (s3eKeyboardGetState(s3eKeyAbsASK) & S3E_KEY_STATE_RELEASED) == S3E_KEY_STATE_RELEASED;
if (menu_released)
MenuPressed = true;
// Update accelerometer
if (AccelerometerActive)
{
AccelerometerPosition.x = s3eAccelerometerGetX();
AccelerometerPosition.y = s3eAccelerometerGetY();
AccelerometerPosition.z = s3eAccelerometerGetZ();
}
// Update compass
if (CompassActive)
{
CompassDirection = s3eCompassGet();
s3eCompassHeading heading = { 0, 0, 0 };
if (s3eCompassGetHeading(&heading) != S3E_RESULT_SUCCESS)
{
CompassHeading.x = heading.m_X;
CompassHeading.y = heading.m_Y;
CompassHeading.z = heading.m_Z;
}
}
}
static portTASK_FUNCTION( vLcdTask, pvParameters )
{
unsigned int pressure;
unsigned int xPos;
unsigned int yPos;
//portTickType xLastWakeTime;
int step_width = 320/sequence_steps;
int step_height = 240/numNotes;
int left, bottom = 0;
int right = step_width;
int top = step_height;
int i, n, x;
int waiting = 0;
int newlySelectedSequence = 0;
int prevMode = 0;
int prevSeq = 0;
/* Just to stop compiler warnings. */
( void ) pvParameters;
/* Initialise LCD display */
/* NOTE: We needed to delay calling lcd_init() until here because it uses
* xTaskDelay to implement a delay and, as a result, can only be called from
* a task */
lcd_init();
lcd_fillScreen(LIGHT_GRAY);
/* Initial LCD display */
setupScreen(step_width,left, bottom,right,top);
/* Infinite loop blocks waiting for a touch screen interrupt event from
* the queue. */
while(1)
{
/* Clear TS interrupts (EINT3) */
/* Reset and (re-)enable TS interrupts on EINT3 */
EXTINT = 8; /* Reset EINT3 */
/* Enable TS interrupt vector (VIC) (vector 17) */
VICIntEnable = 1 << 17; /* Enable interrupts on vector 17 */
/* Block on a queue waiting for an event from the TS interrupt handler */
xSemaphoreTake(xLcdSemphr, portMAX_DELAY);
/* Disable TS interrupt vector (VIC) (vector 17) */
VICIntEnClr = 1 << 17;
/* Measure next sleep interval from this point */
//xLastWakeTime = xTaskGetTickCount();
// When switching sequences in edit mode.
if(mode == 2){
setupScreen(step_width,0, 0,step_width,step_height);
mode = 0;
}
// Switching from playback mode to edit mode, screen must be setup.
if((prevMode == 1) && (mode == 0)){
setupScreen(step_width,0, 0,step_width,step_height);
}
// Switching from edit mode to playback mode.
else if((prevMode == 0) && (mode == 1)) {
setupPlaybackMode();
}
prevMode = mode;
/*** EDIT MODE ***/
/*****************/
if(mode != 1) {
/* Start polling the touchscreen pressure and position ( getTouch(...) ) */
/* Keep polling until pressure == 0 */
getTouch(&xPos, &yPos, &pressure);
while (pressure > 0)
{
// Button debounce on screen touch.
waiting = 0;
while(waiting<100000) {
waiting++;
}
// Iterating through each row.
for(i=0; i<numNotes; i++) {
if((xPos < top) && (xPos > bottom)) {
// If touch within bounds of row i, check for the corresponding column.
for(n=0; n<sequence_steps; n++) {
if((yPos < right) && (yPos > left)){
// Render column cells to clear previously selected cell and set up newly selected or change previously selected note time.
for(x=0; x<numNotes;x++){
lcd_fillRect((x*step_height), (n*step_width), (x*step_height)+step_height, ((n*step_width)+step_width), LIGHT_GRAY);
lcd_drawRect((x*step_height), (n*step_width), (x*step_height)+step_height, ((n*step_width)+step_width), DARK_GRAY);
if(x != i){
// Majority of cells will have no note.
timing[x][n] = 0;
}
}
if(timing[i][n]==0 || timing[i][n]==1){
timing[i][n]++;
}
else {
timing[i][n] = timing[i][n] + 2;
}
if (timing[i][n] > 4){
timing[i][n] = 0;
}
final_timing[n] = timing[i][n];
if(timing[i][n] == 1){
// Full note.
lcd_fillRect(bottom + 4, left + 4, top - 4, right - 4, MAROON);
}
else if(timing[i][n] == 2){
// Half note.
lcd_fillRect(bottom + 4, left + 4, top - 4, right - 4, OLIVE);
}
else if(timing[i][n] == 4){
// Quarter note.
lcd_fillRect(bottom + 4, left + 4, top - 4, right - 4, PURPLE);
}
sequence[n] = i;
}
left = left + step_width;
right = right + step_width;
}
}
left = 0;
right = step_width;
top = top + step_height;
bottom = bottom + step_height;
}
step_width = 320/sequence_steps;
bottom = 0;
left = 0;
right = step_width;
top = step_height;
getTouch(&xPos, &yPos, &pressure);
}
}
/*** PLAYBACK MODE ***/
/*********************/
else {
/* Start polling the touchscreen pressure and position ( getTouch(...) ) */
/* Keep polling until pressure == 0 */
getTouch(&xPos, &yPos, &pressure);
while (pressure > 0)
{
// Bound touch area for more efficiency.
if((xPos < 235) && (xPos > 185)){
// Select current sequence.
for(i=0; i<9; i++) {
if(((xPos < 235) && (xPos > 185)) && ((yPos < (35*i) + 35) && (yPos > (35*i) + 5))){
// If a new sequence selected, must save the one that's currently in use to the listOfSequences[][] and listOfTimingSequences[][]
// and then reinitialise the current sequence[] to the relative one in listOfSequences[][] and listOfTimingSequences[][].
newlySelectedSequence = i;
if(newlySelectedSequence != currentlySelectedSequence) {
lcd_fillRect(185, (35*currentlySelectedSequence) + 5, 235, (35*currentlySelectedSequence) + 35, LIGHT_GRAY);
lcd_fillRect(185, (35*newlySelectedSequence) + 5, 235, (35*newlySelectedSequence) + 35, MAGENTA);
for(n=0;n<sequence_steps;n++){
listOfSequences[currentlySelectedSequence][n] = sequence[n];
listOfTimingSequences[currentlySelectedSequence][n] = final_timing[n];
}
currentlySelectedSequence = newlySelectedSequence;
for(n=0;n<sequence_steps;n++){
sequence[n] = listOfSequences[currentlySelectedSequence][n];
final_timing[n] = listOfTimingSequences[currentlySelectedSequence][n];
}
}
}
}
}
getTouch(&xPos, &yPos, &pressure);
}
// Prevent flicker.
if(prevSeq != currentlySelectedSequence){
// Only fill part of screen to reduce flicker.
lcd_fillRect(0, 0, 175, 320, LIGHT_GRAY);
// Setup note bars for current sequence[] and final_timing[].
for(i=0; i<sequence_steps; i++) {
if(sequence[i] != numNotes) {
if(final_timing[i]==1){
lcd_fillRect(0, (i*31)+5, ((sequence[i]+1)*11), (i*31)+31, MAROON);
}
else if(final_timing[i]==2){
lcd_fillRect(0, (i*31)+5, ((sequence[i]+1)*11), (i*31)+31, OLIVE);
}
else if(final_timing[i]==4){
lcd_fillRect(0, (i*31)+5, ((sequence[i]+1)*11), (i*31)+31, PURPLE);
}
}
}
// Setup BPM visual display.
updateBPMVisuals();
// Setup octave visual display.
updateOctaveVisuals();
}
prevSeq = currentlySelectedSequence;
}
}
}