static int boot_main(int argc, char *argv[] ) {
neko_vm *vm;
value args[2];
value mload, exc = NULL;
char* root = getSwitch(argc,argv,"swroot");
char* rootFromBundle = root ? NULL : getSwitchFromBundle("swroot");
char* index = getSwitch(argc,argv,"swindex");
if(!index) index = getSwitchFromBundle("swindex");
#if OSX
char* tmpRootBuffer = NULL;
if (rootFromBundle) {
if (stricmp("SW_BUNDLE_PARENT",rootFromBundle)==0) {
// folder containing bundle is path:
root = getBundleRoot();
strcat(root,"/..");
} else {
// path is relative to bundle:
root = tmpRootBuffer = malloc(FILENAME_MAX);
sprintf(root,"%s/%s",getBundleRoot(),rootFromBundle);
}
}
#endif
// if root folder is specified, change the current directory:
if( root ) {
chdir(root);
# if OSX
if (tmpRootBuffer)
free(tmpRootBuffer);
# endif
}
// printf("boot-loader computed working folder: %s\n",root);
// printf("boot-loader set working folder: %s\n",getcwd(NULL));
// initialize Neko Virtual Machine
neko_global_init(&vm);
vm = neko_vm_alloc(NULL);
neko_vm_jit(vm,1);
neko_vm_select(vm);
mload = neko_default_loader(argv, argc);
args[0] = alloc_string(index ? index : DEFAULT_INDEX);
args[1] = mload;
val_callEx(mload,val_field(mload,val_id("loadmodule")),args,2,&exc);
if( exc != NULL )
report(vm,exc);
vm = NULL;
neko_global_free();
while(switches_count--) {
free(switches[switches_count]);
}
if (switches) free(switches);
return( exc != NULL );
}
void displayInfo() {
Switch_t *swtch;
unsigned int i, count, lines;
SENSORS_PER_LINE = RIGHT_HALF / 10;
lines = SENSORS_PER_LINE;
lines = (TRAIN_SWITCH_COUNT / lines) + (TRAIN_SWITCH_COUNT % lines);
count = TRAIN_SWITCH_COUNT;
kdebug("Debugging Enabled...\r\nNumber of Debug Lines: %d", lines);
kprintf("====Switches===" MOVE_TO_COL CHANGE_COLOR "Train Calibration:" CHANGE_COLOR "\r\n" MOVE_TO_COL
"| Train | Velocity | Landmark | Distance (mm) | Next Landmark | ETA (ticks) | ATA (ticks) | Resv | "
MOVE_TO_COL, RIGHT_HALF + 5, YELLOW, 0, RIGHT_HALF + 5, 0);
while (count > 0) {
for (i = 0; i < MIN(count, SENSORS_PER_LINE); ++i) {
if (count <= 4) {
swtch = getSwitch(MULTI_SWITCH_OFFSET + (TRAIN_SWITCH_COUNT - count + i + 1));
} else {
swtch = getSwitch(TRAIN_SWITCH_COUNT - count + i + 1);
if (swtch->id < 10) {
kputstr("00");
} else if (swtch->id < 100) {
kputstr("0");
}
}
kprintf("%d: %c ", swtch->id, SWITCH_CHAR(swtch->state));
}
count -= MIN(SENSORS_PER_LINE, count);
kputstr(NEW_LINE);
}
kputstr("\r\n====Sensors====\r\n\r\n\r\n");
kprintf(SAVE_CURSOR SET_SCROLL RESTORE_CURSOR, TERM_OFFSET + lines + 4, TERMINAL_HEIGHT);
TERM_BOTTOM = TERM_OFFSET + lines + 4;
}
TEST(getSwitch, circularCSW)
{
MODEL_RESET();
MIXER_RESET();
g_model.logicalSw[0] = { SWSRC_SW1, SWSRC_SW1, LS_FUNC_OR };
g_model.logicalSw[1] = { SWSRC_SW1, SWSRC_SW1, LS_FUNC_AND };
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), false);
EXPECT_EQ(getSwitch(-SWSRC_SW1), true);
EXPECT_EQ(getSwitch(SWSRC_SW2), false);
EXPECT_EQ(getSwitch(-SWSRC_SW2), true);
}
TEST(getSwitch, OldTypeStickyCSW)
{
RADIO_RESET();
MODEL_RESET();
MIXER_RESET();
SET_LOGICAL_SWITCH(0, LS_FUNC_AND, SWSRC_SA0, SWSRC_NONE);
SET_LOGICAL_SWITCH(1, LS_FUNC_OR, SWSRC_SW1, SWSRC_SW2);
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), false);
EXPECT_EQ(getSwitch(SWSRC_SW2), false);
// now trigger SA0, both switches should become true
simuSetSwitch(0, -1);
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), true);
EXPECT_EQ(getSwitch(SWSRC_SW2), true);
// now release SA0 and SW2 should stay true
simuSetSwitch(0, 0);
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), false);
EXPECT_EQ(getSwitch(SWSRC_SW2), true);
// now reset logical switches
logicalSwitchesReset();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), false);
EXPECT_EQ(getSwitch(SWSRC_SW2), false);
}
TEST(getSwitch, recursiveSW)
{
MODEL_RESET();
MIXER_RESET();
g_model.logicalSw[0] = { SWSRC_RUD, -SWSRC_SW2, LS_FUNC_OR };
g_model.logicalSw[1] = { SWSRC_ELE, -SWSRC_SW1, LS_FUNC_OR };
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), false);
EXPECT_EQ(getSwitch(SWSRC_SW2), true);
LS_RECURSIVE_EVALUATION_RESET();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), false);
EXPECT_EQ(getSwitch(SWSRC_SW2), true);
simuSetSwitch(1, 1);
LS_RECURSIVE_EVALUATION_RESET();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), true);
EXPECT_EQ(getSwitch(SWSRC_SW2), true);
LS_RECURSIVE_EVALUATION_RESET();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), true);
EXPECT_EQ(getSwitch(SWSRC_SW2), false);
}
TEST(getSwitch, OldTypeStickyCSW)
{
MODEL_RESET();
MIXER_RESET();
g_model.logicalSw[0] = { SWSRC_SA0, 0, 0, LS_FUNC_AND };
g_model.logicalSw[1] = { SWSRC_SW1, SWSRC_SW2, 0, LS_FUNC_OR };
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), false);
EXPECT_EQ(getSwitch(SWSRC_SW2), false);
// now trigger SA0, both switches should become true
simuSetSwitch(0, -1);
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), true);
EXPECT_EQ(getSwitch(SWSRC_SW2), true);
// now release SA0 and SW2 should stay true
simuSetSwitch(0, 0);
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), false);
EXPECT_EQ(getSwitch(SWSRC_SW2), true);
// now reset logical switches
logicalSwitchesReset();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), false);
EXPECT_EQ(getSwitch(SWSRC_SW2), false);
}
void main(void)
{
unsigned char light=0;
unsigned char lastkey=0; // Mark key to be off
P0=~0x00; // Light off
for (;;)
{
if (getSwitch() == 1)
{
if (lastkey == 0) // Switch is from Off to On
{
lastkey = 1; // Mark switch is on now
if (light == 0) // Light is Off
{
setLight(1); // Turn on the light now
light = 1; // Mark light to On
}
else // Light is on
{
setLight(0); // Turn off the light now
light = 0; // Mark light to Off
}
}
}
else
{
lastkey = 0; // Switch is off
}
// delay(30000); // for debug use
}
} /* main */
int trainSwitch(unsigned int sw, char ch) {
char buf[2];
unsigned int ss;
Switch_t *swtch;
buf[0] = 0;
switch (ch) {
case 'C':
case 'c':
buf[0] = TRAIN_AUX_CURVE;
ss = DIR_CURVED;
break;
case 'S':
case 's':
buf[0] = TRAIN_AUX_STRAIGHT;
ss = DIR_STRAIGHT;
break;
default:
kerror("Invalid switch character: %c", ch);
return INVALID_SWITCH_STATE;
}
swtch = getSwitch(sw);
if (buf[0] != 0 && sw >= 0 && sw <= 255) {
buf[1] = sw;
trnputs(buf, 2);
swtch->state = ss;
printSwitch(swtch->id, (toUpperCase(ch)));
return 0;
}
return INVALID_SWITCH_ID;
}
void CSwitchMgr::delSwitch(INT4 sockfd)
{
LOG_INFO_FMT("before delete switch with sockfd[%d], switch map size[%lu] ...",
sockfd, m_sws.size());
m_rwlock.wlock();
CSmartPtr<CSwitch> sw = getSwitch(sockfd);
if (sw.isNotNull())
{
sw->setState(SW_STATE_CLOSED);
CControl::getInstance()->getTopoMgr().deleteSwitch(sw->getDpid());
CHostMgr::getInstance()->delHostBySw(sw);
delTagMap(sw->getTag());
CControl::getInstance()->getTagMgr().release(sw->getTag());
if (isValidMac(sw->getSwMac()))
{
delMacMap(sw->getSwMac());
delIpMap(sw->getSwIp());
}
delDpidMap(sw->getDpid());
delSwitchMap(sockfd);
}
m_rwlock.unlock();
LOG_INFO_FMT("after delete switch with sockfd[%d], switch map size[%lu] ...",
sockfd, m_sws.size());
}
TEST(getSwitch, inputWithTrim)
{
MODEL_RESET();
modelDefault(0);
MIXER_RESET();
g_model.logicalSw[0] = { LS_FUNC_VPOS, MIXSRC_FIRST_INPUT, 0, 0 };
doMixerCalculations();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), false);
setTrimValue(0, 0, 32);
doMixerCalculations();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), true);
}
bool QikFlat::Disconnect()
{
sf->closePort();
delete sf;
DEBUG(INDI::Logger::DBG_SESSION, "ARDUINO BOARD DISCONNECTED.");
IDSetSwitch (getSwitch("CONNECTION"),"DISCONNECTED\n");
return true;
}
void LapsusDaemon::emitSwitch()
{
while(switchesToEmit.size() > 0)
{
QValueList<QDBusData> params;
QString name = switchesToEmit.first();
switchesToEmit.pop_front();
params.append(QDBusData::fromString(name));
params.append(QDBusData::fromBool(getSwitch(name)));
sendSignal("switchChanged", params);
}
}
/*
* * Fonction de decodage d un appui sur un interrupteur
** Si la nouvelle valeur est differente de l ancienne, elle est mise a jour, et celle-ci est reporte dans un fichier de log.
** Renvoie 0 si un changement de valeur a eu lieu, 1 sinon.
*/
int decodeMessageSwitch(char* message, struct Sensor * p_sensor) {
int switch_button = getSwitch(message);
if (switch_button != NO_BUTTON) {
/* Si la nouvelle valeur est differente de l ancienne */
if (switch_button != p_sensor->value) {
p_sensor->value = switch_button;
printf("[ComponentInterface] Nouvelle valeur pour l'interrupteur, ID : %s; valeur : %f \n", p_sensor->id, p_sensor->value);
gLogsLog(p_sensor->id, p_sensor->value);
return VALUE_CHANGE;
} else {
return NO_CHANGE;
}
}
return NO_BUTTON;
}
track_edge *getNextEdge(track_node *node) {
Switch_t *swtch;
switch (d(node).type) {
case NODE_SENSOR:
case NODE_MERGE:
case NODE_ENTER:
return &(d(node).edge[DIR_AHEAD]);
case NODE_BRANCH:
swtch = getSwitch(node->num);
return &(d(node).edge[d(swtch).state]);
case NODE_EXIT:
return NULL;
case NODE_NONE:
default:
return NULL;
}
}
bool AAGCloudWatcher::isWetRain() {
ISwitchVectorProperty *svpRC = getSwitch("rainConditions");
for (int i = 0 ; i < svpRC->nsp ; i++) {
if (strcmp("wet", svpRC->sp[i].name) == 0) {
if (svpRC->sp[i].s == ISS_ON) {
return true;
}
}
if (strcmp("rain", svpRC->sp[i].name) == 0) {
if (svpRC->sp[i].s == ISS_ON) {
return true;
}
}
}
return false;
}
MainForm::MainForm(QWidget *parent) :
QWidget(parent),
ui(new Ui::MainForm)
{
ui->setupUi(this);
q = QApplication::clipboard();
q->clear(QClipboard::Selection);
st = new ShowText(0);
//st->setWindowFlags(Qt::Dialog);
trayIcon = new QSystemTrayIcon(QIcon("ScreenCatch64.png"),this);
quitAction = new QAction("Quit",this);
//connect(quitAction,SIGNAL(triggered()),qApp,SLOT(quit()));
connect(quitAction,SIGNAL(triggered()),this,SLOT(aquit()));
catchSwitch = new QAction("on/off",this);
catchSwitch->setCheckable(true);
catchSwitch->setChecked(true);
connect(catchSwitch,SIGNAL(triggered()),this,SLOT(getSwitch()));
tiMenu = new QMenu(this);
tiMenu->addAction(catchSwitch);
tiMenu->addAction(quitAction);
trayIcon->setContextMenu(tiMenu);
timer = new QTimer(this);
connect(timer, SIGNAL(timeout()),this, SLOT(checkClipBoard()));
timer->start(500);
stimer = new QTimer(this);
connect(stimer, SIGNAL(timeout()),this, SLOT(screenShot()));
//stimer->start(5000);
connect(this,SIGNAL(emitShow(QString)),st,SLOT(showMe(QString)));
trayIcon->show();
}
int parse(const MyString& cmd, MyString* name, Vector<MyString>* pathes, Vector<MyString>* switches)
{
if (name == nullptr || pathes == nullptr || switches == nullptr)
{
return -1;
}
pathes->clear();
switches->clear();
int i = getCmd(cmd, 0, name);
if (i == cmd.size())
{
return 0;
}
if (*name == _T("mkdir"))
{
while (_istspace(cmd[i]))
++i;
int j = cmd.size() - 1;
while (_istspace(cmd[j]))
--j;
MyString path = cmd.substr(i, j - i + 1);
pathes->append(path);
return 0;
}
for (; i < cmd.size();)
{
if (_istspace(cmd[i]))
{
++i;
}
else if (cmd[i] != _T('/'))
{
MyString path;
i = getPath(cmd, i, &path);
if (!isPath(path) && !hasWildcard(path))
{
printf("文件名、目录名或卷标语法不正确\n");
*name = _T("");
pathes->clear();
switches->clear();
return -1;
}
pathes->append(path);
}
else if (cmd[i] == _T('/'))
{
MyString s;
i = getSwitch(cmd, i, &s);
switches->append(s);
}
else
{
assert(0);
return -1;
}
}
return 0;
}
void menuModelLogicalSwitches(uint8_t event)
{
INCDEC_DECLARE_VARS(EE_MODEL);
MENU(STR_MENULOGICALSWITCHES, menuTabModel, e_LogicalSwitches, NUM_LOGICAL_SWITCH+1, {0, NAVIGATION_LINE_BY_LINE|LS_FIELD_LAST/*repeated...*/});
uint8_t k = 0;
int8_t sub = m_posVert - 1;
horzpos_t horz = m_posHorz;
for (uint8_t i=0; i<LCD_LINES-1; i++) {
coord_t y = MENU_HEADER_HEIGHT + 1 + i*FH;
k = i+s_pgOfs;
uint8_t attr = (sub==k ? ((s_editMode>0) ? BLINK|INVERS : INVERS) : 0);
uint8_t attr1 = (horz==1 ? attr : 0);
uint8_t attr2 = (horz==2 ? attr : 0);
LogicalSwitchData * cs = lswAddress(k);
// CSW name
uint8_t sw = SWSRC_SW1+k;
putsSwitches(0, y, sw, (getSwitch(sw) ? BOLD : 0) | ((sub==k && CURSOR_ON_LINE()) ? INVERS : 0));
// CSW func
lcd_putsiAtt(CSW_1ST_COLUMN, y, STR_VCSWFUNC, cs->func, horz==0 ? attr : 0);
// CSW params
uint8_t cstate = lswFamily(cs->func);
#if defined(CPUARM)
int16_t v1_val=cs->v1, v1_min=0, v1_max=MIXSRC_LAST_TELEM, v2_min=0, v2_max=MIXSRC_LAST_TELEM;
int16_t v3_min=-1, v3_max=100;
#else
int8_t v1_min=0, v1_max=MIXSRC_LAST_TELEM, v2_min=0, v2_max=MIXSRC_LAST_TELEM;
#define v1_val cs->v1
#endif
if (cstate == LS_FAMILY_BOOL || cstate == LS_FAMILY_STICKY) {
putsSwitches(CSW_2ND_COLUMN, y, cs->v1, attr1);
putsSwitches(CSW_3RD_COLUMN, y, cs->v2, attr2);
v1_min = SWSRC_FIRST_IN_LOGICAL_SWITCHES; v1_max = SWSRC_LAST_IN_LOGICAL_SWITCHES;
v2_min = SWSRC_FIRST_IN_LOGICAL_SWITCHES; v2_max = SWSRC_LAST_IN_LOGICAL_SWITCHES;
INCDEC_SET_FLAG(EE_MODEL | INCDEC_SWITCH);
INCDEC_ENABLE_CHECK(isSwitchAvailableInLogicalSwitches);
}
#if defined(CPUARM)
else if (cstate == LS_FAMILY_EDGE) {
putsSwitches(CSW_2ND_COLUMN, y, cs->v1, attr1);
putsEdgeDelayParam(CSW_3RD_COLUMN, y, cs, attr2, horz==LS_FIELD_V3 ? attr : 0);
v1_min = SWSRC_FIRST_IN_LOGICAL_SWITCHES; v1_max = SWSRC_LAST_IN_LOGICAL_SWITCHES;
v2_min=-129; v2_max = 122;
v3_max = 222 - cs->v2;
if (horz == 1) {
INCDEC_SET_FLAG(EE_MODEL | INCDEC_SWITCH);
INCDEC_ENABLE_CHECK(isSwitchAvailableInLogicalSwitches);
}
else {
INCDEC_SET_FLAG(EE_MODEL);
INCDEC_ENABLE_CHECK(NULL);
}
}
#endif
else if (cstate == LS_FAMILY_COMP) {
#if defined(CPUARM)
v1_val = (uint8_t)cs->v1;
#endif
putsMixerSource(CSW_2ND_COLUMN, y, v1_val, attr1);
putsMixerSource(CSW_3RD_COLUMN, y, cs->v2, attr2);
INCDEC_SET_FLAG(EE_MODEL | INCDEC_SOURCE);
INCDEC_ENABLE_CHECK(isSourceAvailable);
}
else if (cstate == LS_FAMILY_TIMER) {
lcd_outdezAtt(CSW_2ND_COLUMN, y, lswTimerValue(cs->v1), LEFT|PREC1|attr1);
lcd_outdezAtt(CSW_3RD_COLUMN, y, lswTimerValue(cs->v2), LEFT|PREC1|attr2);
v1_min = v2_min = -128;
v1_max = v2_max = 122;
INCDEC_SET_FLAG(EE_MODEL);
INCDEC_ENABLE_CHECK(NULL);
}
else {
#if defined(CPUARM)
v1_val = (uint8_t)cs->v1;
#endif
putsMixerSource(CSW_2ND_COLUMN, y, v1_val, attr1);
if (horz == 1) {
INCDEC_SET_FLAG(EE_MODEL | INCDEC_SOURCE);
INCDEC_ENABLE_CHECK(isSourceAvailableInCustomSwitches);
}
else {
INCDEC_SET_FLAG(EE_MODEL);
INCDEC_ENABLE_CHECK(NULL);
}
#if defined(CPUARM)
putsChannelValue(CSW_3RD_COLUMN, y, v1_val, calc100toRESX(cs->v2), LEFT|attr2);
v2_min = -30000;
v2_max = 30000;
#elif defined(FRSKY)
if (v1_val >= MIXSRC_FIRST_TELEM) {
putsTelemetryChannelValue(CSW_3RD_COLUMN, y, v1_val - MIXSRC_FIRST_TELEM, convertLswTelemValue(cs), LEFT|attr2);
v2_max = maxTelemValue(v1_val - MIXSRC_FIRST_TELEM + 1);
#if defined(CPUARM)
if (cs->func == LS_FUNC_DIFFEGREATER)
v2_min = -v2_max;
else if (cs->func == LS_FUNC_ADIFFEGREATER)
v2_min = 0;
else
v2_min = minTelemValue(v1_val - MIXSRC_FIRST_TELEM + 1);
if (horz == 2 && v2_max-v2_min > 1000)
INCDEC_SET_FLAG(EE_MODEL | INCDEC_REP10 | NO_INCDEC_MARKS);
if (cs->v2 < v2_min || cs->v2 > v2_max) {
cs->v2 = 0;
eeDirty(EE_MODEL);
}
#else
if (cstate == LS_FAMILY_OFS) {
v2_min = -128;
v2_max -= 128;
}
else {
v2_max = min((uint8_t)127, (uint8_t)v2_max);
v2_min = -v2_max;
}
if (cs->v2 > v2_max) {
cs->v2 = v2_max;
eeDirty(EE_MODEL);
}
#endif
}
else {
lcd_outdezAtt(CSW_3RD_COLUMN, y, cs->v2, LEFT|attr2);
#if defined(CPUARM) && defined(GVARS)
if (v1_val >= MIXSRC_GVAR1) {
v2_min = -1024; v2_max = +1024;
}
else
#endif
{
v2_min = -LIMIT_EXT_PERCENT; v2_max = +LIMIT_EXT_PERCENT;
}
}
#else
if (v1_val >= MIXSRC_FIRST_TELEM) {
putsTelemetryChannelValue(CSW_3RD_COLUMN, y, v1_val - MIXSRC_FIRST_TELEM, convertLswTelemValue(cs), LEFT|attr2);
v2_min = -128; v2_max = 127;
}
else {
lcd_outdezAtt(CSW_3RD_COLUMN, y, cs->v2, LEFT|attr2);
v2_min = -LIMIT_EXT_PERCENT; v2_max = +LIMIT_EXT_PERCENT;
}
#endif
}
// CSW AND switch
#if defined(CPUARM)
putsSwitches(CSW_4TH_COLUMN, y, cs->andsw, horz==LS_FIELD_ANDSW ? attr : 0);
#else
uint8_t andsw = cs->andsw;
if (andsw > SWSRC_LAST_SWITCH) {
andsw += SWSRC_SW1-SWSRC_LAST_SWITCH-1;
}
putsSwitches(CSW_4TH_COLUMN, y, andsw, horz==LS_FIELD_ANDSW ? attr : 0);
#endif
#if defined(CPUARM)
// CSW duration
if (cs->duration > 0)
lcd_outdezAtt(CSW_5TH_COLUMN, y, cs->duration, (horz==LS_FIELD_DURATION ? attr : 0)|PREC1|LEFT);
else
lcd_putsiAtt(CSW_5TH_COLUMN, y, STR_MMMINV, 0, horz==LS_FIELD_DURATION ? attr : 0);
// CSW delay
if (cstate == LS_FAMILY_EDGE) {
lcd_puts(CSW_6TH_COLUMN, y, STR_NA);
if (attr && horz == LS_FIELD_DELAY) {
REPEAT_LAST_CURSOR_MOVE();
}
}
else if (cs->delay > 0) {
lcd_outdezAtt(CSW_6TH_COLUMN, y, cs->delay, (horz==LS_FIELD_DELAY ? attr : 0)|PREC1|LEFT);
}
else {
lcd_putsiAtt(CSW_6TH_COLUMN, y, STR_MMMINV, 0, horz==LS_FIELD_DELAY ? attr : 0);
}
if (attr && horz == LS_FIELD_V3 && cstate != LS_FAMILY_EDGE) {
REPEAT_LAST_CURSOR_MOVE();
}
#endif
if ((s_editMode>0 || p1valdiff) && attr) {
switch (horz) {
case LS_FIELD_FUNCTION:
{
#if defined(CPUARM)
cs->func = checkIncDec(event, cs->func, 0, LS_FUNC_MAX, EE_MODEL, isLogicalSwitchFunctionAvailable);
#else
CHECK_INCDEC_MODELVAR_ZERO(event, cs->func, LS_FUNC_MAX);
#endif
uint8_t new_cstate = lswFamily(cs->func);
if (cstate != new_cstate) {
#if defined(CPUARM)
if (new_cstate == LS_FAMILY_TIMER) {
cs->v1 = cs->v2 = -119;
}
else if (new_cstate == LS_FAMILY_EDGE) {
cs->v1 = 0; cs->v2 = -129; cs->v3 = 0;
}
else {
cs->v1 = cs->v2 = 0;
}
#else
cs->v1 = cs->v2 = (new_cstate==LS_FAMILY_TIMER ? -119/*1.0*/ : 0);
#endif
}
break;
}
case LS_FIELD_V1:
cs->v1 = CHECK_INCDEC_PARAM(event, v1_val, v1_min, v1_max);
break;
case LS_FIELD_V2:
cs->v2 = CHECK_INCDEC_PARAM(event, cs->v2, v2_min, v2_max);
if (checkIncDec_Ret) TRACE("v2=%d", cs->v2);
break;
#if defined(CPUARM)
case LS_FIELD_V3:
cs->v3 = CHECK_INCDEC_PARAM(event, cs->v3, v3_min, v3_max);
break;
#endif
case LS_FIELD_ANDSW:
#if defined(CPUARM)
INCDEC_SET_FLAG(EE_MODEL | INCDEC_SWITCH);
INCDEC_ENABLE_CHECK(isSwitchAvailableInLogicalSwitches);
cs->andsw = CHECK_INCDEC_PARAM(event, cs->andsw, -MAX_LS_ANDSW, MAX_LS_ANDSW);
#else
CHECK_INCDEC_MODELVAR_ZERO(event, cs->andsw, MAX_LS_ANDSW);
#endif
break;
#if defined(CPUARM)
case LS_FIELD_DURATION:
CHECK_INCDEC_MODELVAR_ZERO(event, cs->duration, MAX_LS_DURATION);
break;
case LS_FIELD_DELAY:
CHECK_INCDEC_MODELVAR_ZERO(event, cs->delay, MAX_LS_DELAY);
break;
#endif
}
}
}
}
void menuModelLogicalSwitches(uint8_t event)
{
SIMPLE_MENU(STR_MENULOGICALSWITCHES, menuTabModel, e_LogicalSwitches, NUM_LOGICAL_SWITCH+1);
coord_t y = 0;
uint8_t k = 0;
int8_t sub = m_posVert - 1;
switch (event) {
#if defined(ROTARY_ENCODER_NAVIGATION)
case EVT_ROTARY_BREAK:
#endif
case EVT_KEY_FIRST(KEY_RIGHT):
case EVT_KEY_FIRST(KEY_ENTER):
if (sub >= 0) {
s_currIdx = sub;
pushMenu(menuModelLogicalSwitchOne);
}
break;
}
for (uint8_t i=0; i<LCD_LINES-1; i++) {
y = 1 + (i+1)*FH;
k = i+s_pgOfs;
LogicalSwitchData * cs = lswAddress(k);
// CSW name
uint8_t sw = SWSRC_SW1+k;
putsSwitches(0, y, sw, (sub==k ? INVERS : 0) | (getSwitch(sw) ? BOLD : 0));
if (cs->func > 0) {
// CSW func
lcd_putsiAtt(CSW_1ST_COLUMN, y, STR_VCSWFUNC, cs->func, 0);
// CSW params
uint8_t cstate = lswFamily(cs->func);
if (cstate == LS_FAMILY_BOOL || cstate == LS_FAMILY_STICKY) {
putsSwitches(CSW_2ND_COLUMN, y, cs->v1, 0);
putsSwitches(CSW_3RD_COLUMN, y, cs->v2, 0);
}
else if (cstate == LS_FAMILY_COMP) {
putsMixerSource(CSW_2ND_COLUMN, y, cs->v1, 0);
putsMixerSource(CSW_3RD_COLUMN, y, cs->v2, 0);
}
else if (cstate == LS_FAMILY_EDGE) {
putsSwitches(CSW_2ND_COLUMN, y, cs->v1, 0);
putsEdgeDelayParam(CSW_3RD_COLUMN, y, cs, 0, 0);
}
else if (cstate == LS_FAMILY_TIMER) {
lcd_outdezAtt(CSW_2ND_COLUMN, y, cs->v1+1, LEFT);
lcd_outdezAtt(CSW_3RD_COLUMN, y, cs->v2+1, LEFT);
}
else {
uint8_t v1 = cs->v1;
putsMixerSource(CSW_2ND_COLUMN, y, v1, 0);
if (v1 >= MIXSRC_FIRST_TELEM) {
putsTelemetryChannelValue(CSW_3RD_COLUMN, y, v1 - MIXSRC_FIRST_TELEM, convertLswTelemValue(cs), LEFT);
}
else {
lcd_outdezAtt(CSW_3RD_COLUMN, y, cs->v2, LEFT);
}
}
// CSW and switch
putsSwitches(CSW_4TH_COLUMN, y, cs->andsw, 0);
}
}
}
void menuModelLogicalSwitchOne(uint8_t event)
{
TITLE(STR_MENULOGICALSWITCH);
LogicalSwitchData * cs = lswAddress(s_currIdx);
uint8_t sw = SWSRC_SW1+s_currIdx;
putsSwitches(14*FW, 0, sw, (getSwitch(sw) ? BOLD : 0));
SUBMENU_NOTITLE(LS_FIELD_COUNT, {0, 0, 1, 0 /*, 0...*/});
int8_t sub = m_posVert;
INCDEC_DECLARE_VARS(EE_MODEL);
int v1_val = cs->v1;
for (uint8_t k=0; k<LCD_LINES-1; k++) {
coord_t y = MENU_HEADER_HEIGHT + 1 + k*FH;
uint8_t i = k + s_pgOfs;
uint8_t attr = (sub==i ? (s_editMode>0 ? BLINK|INVERS : INVERS) : 0);
uint8_t cstate = lswFamily(cs->func);
switch(i) {
case LS_FIELD_FUNCTION:
lcd_putsLeft(y, STR_FUNC);
lcd_putsiAtt(CSWONE_2ND_COLUMN, y, STR_VCSWFUNC, cs->func, attr);
if (attr) {
cs->func = checkIncDec(event, cs->func, 0, LS_FUNC_MAX, EE_MODEL, isLogicalSwitchFunctionAvailable);
uint8_t new_cstate = lswFamily(cs->func);
if (cstate != new_cstate) {
if (new_cstate == LS_FAMILY_TIMER) {
cs->v1 = cs->v2 = 0;
}
else if (new_cstate == LS_FAMILY_EDGE) {
cs->v1 = 0; cs->v2 = -129; cs->v3 = 0;
}
else {
cs->v1 = cs->v2 = 0;
}
}
}
break;
case LS_FIELD_V1:
{
lcd_putsLeft(y, STR_V1);
int v1_min=0, v1_max=MIXSRC_LAST_TELEM;
if (cstate == LS_FAMILY_BOOL || cstate == LS_FAMILY_STICKY || cstate == LS_FAMILY_EDGE) {
putsSwitches(CSWONE_2ND_COLUMN, y, v1_val, attr);
v1_min = SWSRC_OFF+1; v1_max = SWSRC_ON-1;
}
else if (cstate == LS_FAMILY_TIMER) {
lcd_outdezAtt(CSWONE_2ND_COLUMN, y, v1_val+1, LEFT|attr);
v1_max = 99;
}
else {
v1_val = (uint8_t)cs->v1;
putsMixerSource(CSWONE_2ND_COLUMN, y, v1_val, attr);
INCDEC_SET_FLAG(EE_MODEL | INCDEC_SOURCE);
INCDEC_ENABLE_CHECK(isSourceAvailable);
}
if (attr) {
cs->v1 = CHECK_INCDEC_PARAM(event, v1_val, v1_min, v1_max);
}
break;
}
case LS_FIELD_V2:
{
lcd_putsLeft(y, STR_V2);
int v2_min=0, v2_max=MIXSRC_LAST_TELEM;
if (cstate == LS_FAMILY_BOOL || cstate == LS_FAMILY_STICKY) {
putsSwitches(CSWONE_2ND_COLUMN, y, cs->v2, attr);
v2_min = SWSRC_OFF+1; v2_max = SWSRC_ON-1;
}
else if (cstate == LS_FAMILY_TIMER) {
lcd_outdezAtt(CSWONE_2ND_COLUMN, y, cs->v2+1, LEFT|attr);
v2_max = 99;
}
else if (cstate == LS_FAMILY_EDGE) {
putsEdgeDelayParam(CSWONE_2ND_COLUMN, y, cs, m_posHorz==0 ? attr : 0, m_posHorz==1 ? attr : 0);
if (s_editMode <= 0) continue;
if (attr && m_posHorz==1) {
CHECK_INCDEC_MODELVAR(event, cs->v3, -1, 222 - cs->v2);
break;
}
v2_min = -129; v2_max = 122;
}
else if (cstate == LS_FAMILY_COMP) {
putsMixerSource(CSWONE_2ND_COLUMN, y, cs->v2, attr);
INCDEC_SET_FLAG(EE_MODEL | INCDEC_SOURCE);
INCDEC_ENABLE_CHECK(isSourceAvailable);
}
else {
#if defined(FRSKY)
if (v1_val >= MIXSRC_FIRST_TELEM) {
putsTelemetryChannelValue(CSWONE_2ND_COLUMN, y, v1_val - MIXSRC_FIRST_TELEM, convertLswTelemValue(cs), attr|LEFT);
v2_max = maxTelemValue(v1_val - MIXSRC_FIRST_TELEM + 1);
if (cs->func == LS_FUNC_DIFFEGREATER)
v2_min = -v2_max;
else if (cs->func == LS_FUNC_ADIFFEGREATER)
v2_min = 0;
else
v2_min = minTelemValue(v1_val - MIXSRC_FIRST_TELEM + 1);
INCDEC_SET_FLAG(EE_MODEL | INCDEC_REP10 | NO_INCDEC_MARKS);
if (cs->v2 < v2_min || cs->v2 > v2_max) {
cs->v2 = 0;
eeDirty(EE_MODEL);
}
}
else
#endif
{
v2_min = -LIMIT_EXT_PERCENT; v2_max = +LIMIT_EXT_PERCENT;
lcd_outdezAtt(CSWONE_2ND_COLUMN, y, cs->v2, LEFT|attr);
}
}
if (attr) {
CHECK_INCDEC_MODELVAR(event, cs->v2, v2_min, v2_max);
}
break;
}
case LS_FIELD_ANDSW:
lcd_putsLeft(y, STR_AND_SWITCH);
putsSwitches(CSWONE_2ND_COLUMN, y, cs->andsw, attr);
if (attr) CHECK_INCDEC_MODELVAR(event, cs->andsw, -MAX_LS_ANDSW, MAX_LS_ANDSW);
break;
case LS_FIELD_DURATION:
lcd_putsLeft(y, STR_DURATION);
if (cs->duration > 0)
lcd_outdezAtt(CSWONE_2ND_COLUMN, y, cs->duration, attr|PREC1|LEFT);
else
lcd_putsiAtt(CSWONE_2ND_COLUMN, y, STR_MMMINV, 0, attr);
if (attr) CHECK_INCDEC_MODELVAR_ZERO(event, cs->duration, MAX_LS_DURATION);
break;
case LS_FIELD_DELAY:
lcd_putsLeft(y, STR_DELAY);
if (cs->delay > 0)
lcd_outdezAtt(CSWONE_2ND_COLUMN, y, cs->delay, attr|PREC1|LEFT);
else
lcd_putsiAtt(CSWONE_2ND_COLUMN, y, STR_MMMINV, 0, attr);
if (attr) CHECK_INCDEC_MODELVAR_ZERO(event, cs->delay, MAX_LS_DELAY);
break;
}
}
}
TEST(getSwitch, undefCSW)
{
MODEL_RESET();
EXPECT_EQ(getSwitch(NUM_PSWITCH), false);
EXPECT_EQ(getSwitch(-NUM_PSWITCH), true); // no good answer there!
}
TEST(getSwitch, VfasWithDelay)
{
MODEL_RESET();
MIXER_RESET();
memclear(&frskyData, sizeof(frskyData));
/*
Test for logical switch:
L1 Vfas < 9.6 Delay (0.5s)
(gdb) print Open9xX9D::g_model.logicalSw[0]
$3 = {v1 = -40 '\330', v2 = 96, v3 = 0, func = 4 '\004', delay = 5 '\005', duration = 0 '\000', andsw = 0 '\000'}
*/
g_model.logicalSw[0] = {-40, 96, 0, 4, 5, 0, 0};
frskyData.hub.vfas = 150; //unit is 100mV
//telemetry streaming is FALSE, so L1 should be FALSE no matter what value Vfas has
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), false);
logicalSwitchesTimerTick();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), false);
logicalSwitchesTimerTick();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), false);
logicalSwitchesTimerTick();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), false);
logicalSwitchesTimerTick();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), false);
//every logicalSwitchesTimerTick() represents 100ms
//so now after 5 ticks we should still have a FALSE value
logicalSwitchesTimerTick();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), false);
//now turn on telemetry
EXPECT_EQ(TELEMETRY_STREAMING(), false);
frskyData.rssi[0].value = 50;
EXPECT_EQ(TELEMETRY_STREAMING(), true);
//vfas is 15.0V so L1 should still be FALSE
logicalSwitchesTimerTick();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), false);
logicalSwitchesTimerTick();
logicalSwitchesTimerTick();
logicalSwitchesTimerTick();
logicalSwitchesTimerTick();
logicalSwitchesTimerTick();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), false);
//now reduce vfas to 9.5V and L1 should become TRUE after 0.5s
frskyData.hub.vfas = 95;
evalLogicalSwitches();
logicalSwitchesTimerTick();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), false);
logicalSwitchesTimerTick();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), false);
logicalSwitchesTimerTick();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), false);
logicalSwitchesTimerTick();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), false);
logicalSwitchesTimerTick();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), true);
logicalSwitchesTimerTick();
logicalSwitchesTimerTick();
logicalSwitchesTimerTick();
logicalSwitchesTimerTick();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), true);
//now stop telemetry, L1 should become FALSE immediatelly
frskyData.rssi[0].value = 0;
EXPECT_EQ(TELEMETRY_STREAMING(), false);
evalLogicalSwitches();
logicalSwitchesTimerTick();
logicalSwitchesTimerTick();
logicalSwitchesTimerTick();
logicalSwitchesTimerTick();
logicalSwitchesTimerTick();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), false);
}
TEST(getSwitch, RssiWithDuration)
{
MODEL_RESET();
MIXER_RESET();
memclear(&frskyData, sizeof(frskyData));
/*
Test for logical switch:
L1 RSSI > 10 Duration (0.5s)
(gdb) print Open9xX9D::g_model.logicalSw[0]
$1 = {v1 = -56 '\310', v2 = 10, v3 = 0, func = 3 '\003', delay = 0 '\000', duration = 5 '\005', andsw = 0 '\000'}
*/
g_model.logicalSw[0] = {-56, 10, 0, 3, 0, 5, 0};
EXPECT_EQ(TELEMETRY_STREAMING(), false);
evalLogicalSwitches();
logicalSwitchesTimerTick();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), false);
logicalSwitchesTimerTick();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), false);
//now set RSSI to 5, L1 should still be FALSE
frskyData.rssi[0].value = 5;
evalLogicalSwitches();
EXPECT_EQ(TELEMETRY_STREAMING(), true);
logicalSwitchesTimerTick();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), false);
logicalSwitchesTimerTick();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), false);
//now set RSSI to 100, L1 should become TRUE for 0.5s
frskyData.rssi[0].value = 100;
evalLogicalSwitches();
EXPECT_EQ(TELEMETRY_STREAMING(), true);
logicalSwitchesTimerTick();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), true);
logicalSwitchesTimerTick();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), true);
logicalSwitchesTimerTick();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), true);
logicalSwitchesTimerTick();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), true);
logicalSwitchesTimerTick();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), false);
logicalSwitchesTimerTick();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), false);
//repeat telemetry streaming OFF and ON to test for duration processing
frskyData.rssi[0].value = 0;
evalLogicalSwitches();
EXPECT_EQ(TELEMETRY_STREAMING(), false);
logicalSwitchesTimerTick();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), false);
//now set RSSI to 100, L1 should become TRUE for 0.5s
frskyData.rssi[0].value = 100;
evalLogicalSwitches();
EXPECT_EQ(TELEMETRY_STREAMING(), true);
logicalSwitchesTimerTick();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), true);
logicalSwitchesTimerTick();
logicalSwitchesTimerTick();
logicalSwitchesTimerTick();
logicalSwitchesTimerTick();
evalLogicalSwitches();
EXPECT_EQ(getSwitch(SWSRC_SW1), false);
}
void menuMainView(uint8_t event)
{
STICK_SCROLL_DISABLE();
uint8_t view = g_eeGeneral.view;
uint8_t view_base = view & 0x0f;
switch(event) {
case EVT_ENTRY:
killEvents(KEY_EXIT);
killEvents(KEY_UP);
killEvents(KEY_DOWN);
break;
/* TODO if timer2 is OFF, it's possible to use this timer2 as in er9x...
case EVT_KEY_BREAK(KEY_MENU):
if (view_base == VIEW_TIMER2) {
Timer2_running = !Timer2_running;
AUDIO_KEYPAD_UP();
}
break;
*/
case EVT_KEY_BREAK(KEY_RIGHT):
case EVT_KEY_BREAK(KEY_LEFT):
if (view_base <= VIEW_INPUTS) {
#if defined(PCBSKY9X)
if (view_base == VIEW_INPUTS)
g_eeGeneral.view ^= ALTERNATE_VIEW;
else
g_eeGeneral.view = (g_eeGeneral.view + (4*ALTERNATE_VIEW) + ((event==EVT_KEY_BREAK(KEY_LEFT)) ? -ALTERNATE_VIEW : ALTERNATE_VIEW)) % (4*ALTERNATE_VIEW);
#else
g_eeGeneral.view ^= ALTERNATE_VIEW;
#endif
eeDirty(EE_GENERAL);
AUDIO_KEYPAD_UP();
}
break;
#if defined(NAVIGATION_MENUS)
case EVT_KEY_CONTEXT_MENU:
killEvents(event);
#if defined(CPUARM)
if (modelHasNotes()) {
MENU_ADD_ITEM(STR_VIEW_NOTES);
}
#endif
#if defined(CPUARM)
MENU_ADD_ITEM(STR_RESET_SUBMENU);
#else
MENU_ADD_ITEM(STR_RESET_TIMER1);
MENU_ADD_ITEM(STR_RESET_TIMER2);
#if defined(FRSKY)
MENU_ADD_ITEM(STR_RESET_TELEMETRY);
#endif
MENU_ADD_ITEM(STR_RESET_FLIGHT);
#endif
MENU_ADD_ITEM(STR_STATISTICS);
#if defined(CPUARM)
MENU_ADD_ITEM(STR_ABOUT_US);
#endif
menuHandler = onMainViewMenu;
break;
#endif
#if MENUS_LOCK != 2 /*no menus*/
case EVT_KEY_LONG(KEY_MENU):// go to last menu
pushMenu(lastPopMenu());
killEvents(event);
break;
CASE_EVT_ROTARY_BREAK
case EVT_KEY_MODEL_MENU:
pushMenu(menuModelSelect);
killEvents(event);
break;
CASE_EVT_ROTARY_LONG
case EVT_KEY_GENERAL_MENU:
pushMenu(menuGeneralSetup);
killEvents(event);
break;
#endif
case EVT_KEY_BREAK(KEY_UP):
case EVT_KEY_BREAK(KEY_DOWN):
g_eeGeneral.view = (event == EVT_KEY_BREAK(KEY_UP) ? (view_base == VIEW_COUNT-1 ? 0 : view_base+1) : (view_base == 0 ? VIEW_COUNT-1 : view_base-1));
eeDirty(EE_GENERAL);
AUDIO_KEYPAD_UP();
break;
case EVT_KEY_STATISTICS:
chainMenu(menuStatisticsView);
killEvents(event);
break;
case EVT_KEY_TELEMETRY:
#if defined(FRSKY)
if (!IS_FAI_ENABLED())
chainMenu(menuTelemetryFrsky);
#elif defined(JETI)
JETI_EnableRXD(); // enable JETI-Telemetry reception
chainMenu(menuTelemetryJeti);
#elif defined(ARDUPILOT)
ARDUPILOT_EnableRXD(); // enable ArduPilot-Telemetry reception
chainMenu(menuTelemetryArduPilot);
#elif defined(NMEA)
NMEA_EnableRXD(); // enable NMEA-Telemetry reception
chainMenu(menuTelemetryNMEA);
#elif defined(MAVLINK)
chainMenu(menuTelemetryMavlink);
#else
chainMenu(menuStatisticsDebug);
#endif
killEvents(event);
break;
case EVT_KEY_FIRST(KEY_EXIT):
#if defined(GVARS) && !defined(PCBSTD)
if (s_gvar_timer > 0) {
s_gvar_timer = 0;
}
#endif
if (view == VIEW_TIMER2) {
timerReset(1);
}
AUDIO_KEYPAD_UP();
break;
#if !defined(NAVIGATION_MENUS)
case EVT_KEY_LONG(KEY_EXIT):
flightReset();
AUDIO_KEYPAD_UP();
break;
#endif
}
{
// Flight Mode Name
uint8_t mode = mixerCurrentFlightMode;
lcd_putsnAtt(PHASE_X, PHASE_Y, g_model.flightModeData[mode].name, sizeof(g_model.flightModeData[mode].name), ZCHAR|PHASE_FLAGS);
// Model Name
putsModelName(MODELNAME_X, MODELNAME_Y, g_model.header.name, g_eeGeneral.currModel, BIGSIZE);
// Main Voltage (or alarm if any)
displayVoltageOrAlarm();
// Timers
displayTimers();
// Trims sliders
displayTrims(mode);
}
if (view_base < VIEW_INPUTS) {
// scroll bar
lcd_hlineStip(38, 34, 54, DOTTED);
#if defined(PCBSKY9X)
lcd_hline(38 + (g_eeGeneral.view / ALTERNATE_VIEW) * 13, 34, 13, SOLID);
#else
lcd_hline((g_eeGeneral.view & ALTERNATE_VIEW) ? 64 : 38, 34, 26, SOLID);
#endif
for (uint8_t i=0; i<8; i++) {
uint8_t x0,y0;
#if defined(PCBSKY9X)
uint8_t chan = 8*(g_eeGeneral.view / ALTERNATE_VIEW) + i;
#else
uint8_t chan = (g_eeGeneral.view & ALTERNATE_VIEW) ? 8+i : i;
#endif
int16_t val = channelOutputs[chan];
switch(view_base)
{
case VIEW_OUTPUTS_VALUES:
x0 = (i%4*9+3)*FW/2;
y0 = i/4*FH+40;
#if defined(PPM_UNIT_US)
lcd_outdezAtt(x0+4*FW , y0, PPM_CH_CENTER(chan)+val/2, 0);
#elif defined(PPM_UNIT_PERCENT_PREC1)
lcd_outdezAtt(x0+4*FW , y0, calcRESXto1000(val), PREC1);
#else
lcd_outdezAtt(x0+4*FW , y0, calcRESXto1000(val)/10, 0); // G: Don't like the decimal part*
#endif
break;
case VIEW_OUTPUTS_BARS:
#define WBAR2 (50/2)
x0 = i<4 ? LCD_W/4+2 : LCD_W*3/4-2;
y0 = 38+(i%4)*5;
uint16_t lim = g_model.extendedLimits ? 640*2 : 512*2;
int8_t len = (abs(val) * WBAR2 + lim/2) / lim;
if(len>WBAR2) len = WBAR2; // prevent bars from going over the end - comment for debugging
lcd_hlineStip(x0-WBAR2, y0, WBAR2*2+1, DOTTED);
lcd_vline(x0,y0-2,5);
if (val>0)
x0+=1;
else
x0-=len;
lcd_hline(x0,y0+1,len);
lcd_hline(x0,y0-1,len);
break;
}
}
}
else if (view_base == VIEW_INPUTS) {
if (view == VIEW_INPUTS) {
// Sticks + Pots
doMainScreenGraphics();
// Switches
for (uint8_t i=SWSRC_THR; i<=SWSRC_TRN; i++) {
int8_t sw = (i == SWSRC_TRN ? (switchState(SW_ID0) ? SWSRC_ID0 : (switchState(SW_ID1) ? SWSRC_ID1 : SWSRC_ID2)) : i);
uint8_t x = 2*FW-2, y = i*FH+1;
if (i>=SWSRC_AIL) {
x = 17*FW-1;
y -= 3*FH;
}
putsSwitches(x, y, sw, getSwitch(i) ? INVERS : 0);
}
}
else {
#if defined(PCBMEGA2560) && defined(ROTARY_ENCODERS)
for (uint8_t i=0; i<NUM_ROTARY_ENCODERS; i++) {
int16_t val = getRotaryEncoder(i);
int8_t len = limit((int16_t)0, (int16_t)(((val+1024) * BAR_HEIGHT) / 2048), (int16_t)BAR_HEIGHT);
#if ROTARY_ENCODERS > 2
#define V_BAR_W 5
V_BAR(LCD_W/2-8+V_BAR_W*i, LCD_H-8, len);
#else
#define V_BAR_W 5
V_BAR(LCD_W/2-3+V_BAR_W*i, LCD_H-8, len);
#endif
}
#endif // PCBGRUVIN9X && ROTARY_ENCODERS
// Logical Switches
#if defined(PCBSKY9X)
for (uint8_t i=0; i<NUM_LOGICAL_SWITCH; i++) {
int8_t len = getSwitch(SWSRC_SW1+i) ? BAR_HEIGHT : 1;
uint8_t x = VSWITCH_X(i);
lcd_vline(x-1, VSWITCH_Y-len, len);
lcd_vline(x, VSWITCH_Y-len, len);
}
#elif defined(CPUM2560)
for (uint8_t i=0; i<NUM_LOGICAL_SWITCH; i++)
putsSwitches(2*FW-3 + (i/3)*(i/3>2 ? 3*FW+2 : (3*FW-1)) + (i/3>2 ? 2*FW : 0), 4*FH+1 + (i%3)*FH, SWSRC_SW1+i, getSwitch(SWSRC_SW1+i) ? INVERS : 0);
#elif !defined(PCBSTD)
for (uint8_t i=0; i<NUM_LOGICAL_SWITCH; i++)
putsSwitches(2*FW-2 + (i/3)*(4*FW-1), 4*FH+1 + (i%3)*FH, SWSRC_SW1+i, getSwitch(SWSRC_SW1+i) ? INVERS : 0);
#else
for (uint8_t i=0; i<NUM_LOGICAL_SWITCH; i++)
putsSwitches(2*FW-3 + (i/3)*(4*FW), 4*FH+1 + (i%3)*FH, SWSRC_SW1+i, getSwitch(SWSRC_SW1+i) ? INVERS : 0);
#endif
}
}
else { // timer2
#if defined(TRANSLATIONS_CZ)
#define TMR2_LBL_COL (20-FW/2+1)
#else
#define TMR2_LBL_COL (20-FW/2+5)
#endif
putsTimer(33+FW+2+10*FWNUM-4, FH*5, timersStates[1].val, DBLSIZE, DBLSIZE);
putsTimerMode(timersStates[1].val >= 0 ? TMR2_LBL_COL : TMR2_LBL_COL-7, FH*6, g_model.timers[1].mode);
// lcd_outdezNAtt(33+11*FW, FH*6, s_timerVal_10ms[1], LEADING0, 2); // 1/100s
}
// And ! in case of unexpected shutdown
if (unexpectedShutdown) {
lcd_putcAtt(REBOOT_X, 0*FH, '!', INVERS);
}
#if defined(GVARS) && !defined(PCBSTD)
if (s_gvar_timer > 0) {
s_gvar_timer--;
s_warning = STR_GLOBAL_VAR;
displayBox();
lcd_putsnAtt(16, 5*FH, g_model.gvars[s_gvar_last].name, LEN_GVAR_NAME, ZCHAR);
lcd_putsAtt(16+7*FW, 5*FH, PSTR("[\010]"), BOLD);
lcd_outdezAtt(16+7*FW+4*FW+FW/2, 5*FH, GVAR_VALUE(s_gvar_last, getGVarFlightPhase(mixerCurrentFlightMode, s_gvar_last)), BOLD);
s_warning = NULL;
}
#endif
#if defined(DSM2)
if (moduleFlag[0] == MODULE_BIND) {
// Issue 98
lcd_putsAtt(15*FW, 0, PSTR("BIND"), 0);
}
#endif
}
TEST(getSwitch, nullSW)
{
MODEL_RESET();
EXPECT_EQ(getSwitch(0), true);
}
void applyExpos(int16_t *anas, uint8_t mode APPLY_EXPOS_EXTRA_PARAMS)
{
#if defined(PCBTARANIS)
#if defined(HELI)
int16_t heliAnasCopy[4];
memcpy(heliAnasCopy, heliAnas, sizeof(heliAnasCopy));
#endif
#else
int16_t anas2[NUM_INPUTS]; // values before expo, to ensure same expo base when multiple expo lines are used
memcpy(anas2, anas, sizeof(anas2));
#endif
int8_t cur_chn = -1;
for (uint8_t i=0; i<MAX_EXPOS; i++) {
#if defined(BOLD_FONT)
if (mode==e_perout_mode_normal) swOn[i].activeExpo = false;
#endif
ExpoData * ed = expoAddress(i);
if (!EXPO_VALID(ed)) break; // end of list
if (ed->chn == cur_chn)
continue;
if (ed->flightModes & (1<<mixerCurrentFlightMode))
continue;
if (getSwitch(ed->swtch)) {
#if defined(PCBTARANIS)
int v;
if (ed->srcRaw == ovwrIdx)
v = ovwrValue;
#if defined(HELI)
else if (ed->srcRaw == MIXSRC_Ele)
v = heliAnasCopy[ELE_STICK];
else if (ed->srcRaw == MIXSRC_Ail)
v = heliAnasCopy[AIL_STICK];
#endif
else {
v = getValue(ed->srcRaw);
if (ed->srcRaw >= MIXSRC_FIRST_TELEM && ed->scale > 0) {
v = (v * 1024) / convertTelemValue(ed->srcRaw-MIXSRC_FIRST_TELEM+1, ed->scale);
}
v = limit(-1024, v, 1024);
}
#else
int16_t v = anas2[ed->chn];
#endif
if (EXPO_MODE_ENABLE(ed, v)) {
#if defined(BOLD_FONT)
if (mode==e_perout_mode_normal) swOn[i].activeExpo = true;
#endif
cur_chn = ed->chn;
//========== CURVE=================
#if defined(PCBTARANIS)
if (ed->curve.value) {
v = applyCurve(v, ed->curve);
}
#else
int8_t curveParam = ed->curveParam;
if (curveParam) {
if (ed->curveMode == MODE_CURVE)
v = applyCurve(v, curveParam);
else
v = expo(v, GET_GVAR(curveParam, -100, 100, mixerCurrentFlightMode));
}
#endif
//========== WEIGHT ===============
int16_t weight = GET_GVAR(ed->weight, MIN_EXPO_WEIGHT, 100, mixerCurrentFlightMode);
weight = calc100to256(weight);
v = ((int32_t)v * weight) >> 8;
#if defined(PCBTARANIS)
//========== OFFSET ===============
int16_t offset = GET_GVAR(ed->offset, -100, 100, mixerCurrentFlightMode);
if (offset) v += calc100toRESX(offset);
//========== TRIMS ================
if (ed->carryTrim < TRIM_ON)
virtualInputsTrims[cur_chn] = -ed->carryTrim - 1;
else if (ed->carryTrim == TRIM_ON && ed->srcRaw >= MIXSRC_Rud && ed->srcRaw <= MIXSRC_Ail)
virtualInputsTrims[cur_chn] = ed->srcRaw - MIXSRC_Rud;
else
virtualInputsTrims[cur_chn] = -1;
#if defined(HELI)
if (ed->srcRaw == MIXSRC_Ele) {
heliAnas[ELE_STICK] = v;
heliTrims[ELE_STICK] = virtualInputsTrims[cur_chn];
}
else if (ed->srcRaw == MIXSRC_Ail) {
heliAnas[AIL_STICK] = v;
heliTrims[AIL_STICK] = virtualInputsTrims[cur_chn];
}
#endif
#endif
anas[cur_chn] = v;
}
}
}
// QT3 DBus message handler:
bool LapsusDaemon::handleMethodCall(const QDBusMessage& message)
{
if (message.interface() != LAPSUS_INTERFACE) return false;
if (message.type() != QDBusMessage::MethodCallMessage) return false;
if (message.member() == "listFeatures"
|| message.member() == "listSwitches"
|| message.member() == "listDisplayTypes"
|| message.member() == "getMaxBacklight"
|| message.member() == "getBacklight")
{
if (message.count() != 0)
{
return returnDBusError("org.freedesktop.DBus.Error"
".InvalidSignature", "Expected no arguments",
message);
}
QDBusMessage reply = QDBusMessage::methodReply(message);
if (message.member() == "listFeatures")
{
reply << QDBusData::fromList(listFeatures());
}
else if (message.member() == "listSwitches")
{
reply << QDBusData::fromList(listSwitches());
}
else if (message.member() == "listDisplayTypes")
{
reply << QDBusData::fromList(listDisplayTypes());
}
else if (message.member() == "getMaxBacklight")
{
reply << QDBusData::fromUInt32(getMaxBacklight());
}
else if (message.member() == "getBacklight")
{
reply << QDBusData::fromUInt32(getBacklight());
}
else
{
// Should not happen...
// TODO - some kind of error? to syslog? using dbus?
reply << QDBusData::fromUInt32(0);
}
myConnection->send(reply);
return true;
}
else if (message.member() == "getSwitch"
|| message.member() == "getDisplay")
{
if (message.count() != 1 || message[0].type() != QDBusData::String)
{
return returnDBusError("org.freedesktop.DBus.Error"
".InvalidSignature",
"Expected one string argument",
message);
}
QDBusMessage reply = QDBusMessage::methodReply(message);
if (message.member() == "getSwitch")
{
reply << QDBusData::fromBool(
getSwitch(message[0].toString()));
}
else if (message.member() == "getDisplay")
{
reply << QDBusData::fromBool(
getDisplay(message[0].toString()));
}
else
{
// Should not happen...
// TODO - some kind of error? to syslog? using dbus?
reply << QDBusData::fromBool(false);
}
myConnection->send(reply);
return true;
}
else if (message.member() == "setSwitch"
|| message.member() == "setDisplay")
{
if (message.count() != 2
|| message[0].type() != QDBusData::String
|| message[1].type() != QDBusData::Bool)
{
return returnDBusError("org.freedesktop.DBus.Error"
".InvalidSignature",
"Expected two arguments: string and bool",
message);
}
QDBusMessage reply = QDBusMessage::methodReply(message);
if (message.member() == "setSwitch")
{
reply << QDBusData::fromBool(
setSwitch(message[0].toString(),
message[1].toBool()));
}
else if (message.member() == "setDisplay")
{
reply << QDBusData::fromBool(
setDisplay(message[0].toString(),
message[1].toBool()));
}
else
{
// Should not happen...
// TODO - some kind of error? to syslog? using dbus?
reply << QDBusData::fromBool(false);
}
myConnection->send(reply);
return true;
}
else if (message.member() == "setBacklight")
{
if (message.count() != 1
|| message[0].type() != QDBusData::UInt32)
{
return returnDBusError("org.freedesktop.DBus.Error"
".InvalidSignature",
"Expected one uint32 argument",
message);
}
QDBusMessage reply = QDBusMessage::methodReply(message);
if (message.member() == "setBacklight")
{
reply << QDBusData::fromBool(
setBacklight(message[0].toUInt32()));
}
else
{
// Should not happen...
// TODO - some kind of error? to syslog? using dbus?
reply << QDBusData::fromBool(false);
}
myConnection->send(reply);
return true;
}
// TODO - cpufreq
return false;
}
bool TCFS::ISNewSwitch(const char *dev, const char *name, ISState *states, char *names[], int n)
{
//LOGF_DEBUG("%s %s",__FUNCTION__, me);
if (dev != nullptr && strcmp(dev, getDeviceName()) == 0)
{
char response[TCFS_MAX_CMD] = { 0 };
if (!strcmp(FocusPowerSP.name, name))
{
IUUpdateSwitch(&FocusPowerSP, states, names, n);
bool sleep = false;
ISwitch *sp = IUFindOnSwitch(&FocusPowerSP);
// Sleep
if (!strcmp(sp->name, "FOCUS_SLEEP"))
{
dispatch_command(FSLEEP);
sleep = true;
}
// Wake Up
else
dispatch_command(FWAKUP);
if (read_tcfs(response) == false)
{
IUResetSwitch(&FocusPowerSP);
FocusPowerSP.s = IPS_ALERT;
IDSetSwitch(&FocusPowerSP, "Error reading TCF-S reply.");
return true;
}
if (sleep)
{
if (isSimulation())
strncpy(response, "ZZZ", TCFS_MAX_CMD);
if (strcmp(response, "ZZZ") == 0)
{
FocusPowerSP.s = IPS_OK;
IDSetSwitch(&FocusPowerSP, "Focuser is set into sleep mode.");
FocusAbsPosNP.s = IPS_IDLE;
IDSetNumber(&FocusAbsPosNP, nullptr);
// if (FocusTemperatureNP)
{
FocusTemperatureNP.s = IPS_IDLE;
IDSetNumber(&FocusTemperatureNP, nullptr);
}
return true;
}
else
{
FocusPowerSP.s = IPS_ALERT;
IDSetSwitch(&FocusPowerSP, "Focuser sleep mode operation failed. Response: %s.", response);
return true;
}
}
else
{
if (isSimulation())
strncpy(response, "WAKE", TCFS_MAX_CMD);
if (strcmp(response, "WAKE") == 0)
{
FocusPowerSP.s = IPS_OK;
IDSetSwitch(&FocusPowerSP, "Focuser is awake.");
FocusAbsPosNP.s = IPS_OK;
IDSetNumber(&FocusAbsPosNP, nullptr);
// if (FocusTemperatureNP)
{
FocusTemperatureNP.s = IPS_OK;
IDSetNumber(&FocusTemperatureNP, nullptr);
}
return true;
}
else
{
FocusPowerSP.s = IPS_ALERT;
IDSetSwitch(&FocusPowerSP, "Focuser wake up operation failed. Response: %s", response);
return true;
}
}
}
// Do not process any command if focuser is asleep
if (isConnected() && FocusPowerSP.sp[0].s == ISS_ON)
{
ISwitchVectorProperty *svp = getSwitch(name);
if (svp)
{
svp->s = IPS_IDLE;
LOG_WARN("Focuser is still in sleep mode. Wake up in order to issue commands.");
IDSetSwitch(svp, nullptr);
}
return true;
}
if (!strcmp(FocusModeSP.name, name))
{
IUUpdateSwitch(&FocusModeSP, states, names, n);
FocusModeSP.s = IPS_OK;
ISwitch *sp = IUFindOnSwitch(&FocusModeSP);
if (!strcmp(sp->name, "Manual"))
{
if (!isSimulation() && !SetManualMode())
{
IUResetSwitch(&FocusModeSP);
FocusModeSP.s = IPS_ALERT;
IDSetSwitch(&FocusModeSP, "Error switching to manual mode. No reply from TCF-S. Try again.");
return true;
}
}
else if (!strcmp(sp->name, "Auto A"))
{
dispatch_command(FAMODE);
read_tcfs(response);
if (!isSimulation() && strcmp(response, "A") != 0)
{
IUResetSwitch(&FocusModeSP);
FocusModeSP.s = IPS_ALERT;
IDSetSwitch(&FocusModeSP, "Error switching to Auto Mode A. No reply from TCF-S. Try again.");
return true;
}
LOG_INFO("Entered Auto Mode A");
currentMode = MODE_A;
}
else
{
dispatch_command(FBMODE);
read_tcfs(response);
if (!isSimulation() && strcmp(response, "B") != 0)
{
IUResetSwitch(&FocusModeSP);
FocusModeSP.s = IPS_ALERT;
IDSetSwitch(&FocusModeSP, "Error switching to Auto Mode B. No reply from TCF-S. Try again.");
return true;
}
LOG_INFO("Entered Auto Mode B");
currentMode = MODE_B;
}
IDSetSwitch(&FocusModeSP, nullptr);
return true;
}
if (!strcmp(FocusGotoSP.name, name))
{
if (FocusModeSP.sp[0].s != ISS_ON)
{
FocusGotoSP.s = IPS_IDLE;
IDSetSwitch(&FocusGotoSP, nullptr);
LOG_WARN("The focuser can only be moved in Manual mode.");
return false;
}
IUUpdateSwitch(&FocusGotoSP, states, names, n);
FocusGotoSP.s = IPS_BUSY;
ISwitch *sp = IUFindOnSwitch(&FocusGotoSP);
// Min
if (!strcmp(sp->name, "FOCUS_MIN"))
{
targetTicks = currentPosition;
MoveRelFocuser(FOCUS_INWARD, currentPosition);
IDSetSwitch(&FocusGotoSP, "Moving focuser to minimum position...");
}
// Center
else if (!strcmp(sp->name, "FOCUS_CENTER"))
{
dispatch_command(FCENTR);
FocusAbsPosNP.s = FocusRelPosNP.s = IPS_BUSY;
IDSetNumber(&FocusAbsPosNP, nullptr);
IDSetNumber(&FocusRelPosNP, nullptr);
IDSetSwitch(&FocusGotoSP, "Moving focuser to center position %d...", isTCFS3 ? 5000 : 3500);
return true;
}
// Max
else if (!strcmp(sp->name, "FOCUS_MAX"))
{
unsigned int delta = 0;
delta = FocusAbsPosN[0].max - currentPosition;
MoveRelFocuser(FOCUS_OUTWARD, delta);
IDSetSwitch(&FocusGotoSP, "Moving focuser to maximum position %g...", FocusAbsPosN[0].max);
}
// Home
else if (!strcmp(sp->name, "FOCUS_HOME"))
{
dispatch_command(FHOME);
read_tcfs(response);
if (isSimulation())
strncpy(response, "DONE", TCFS_MAX_CMD);
if (strcmp(response, "DONE") == 0)
{
IUResetSwitch(&FocusGotoSP);
FocusGotoSP.s = IPS_OK;
IDSetSwitch(&FocusGotoSP, "Moving focuser to new calculated position based on temperature...");
return true;
}
else
{
IUResetSwitch(&FocusGotoSP);
FocusGotoSP.s = IPS_ALERT;
IDSetSwitch(&FocusGotoSP, "Failed to move focuser to home position!");
return true;
}
}
IDSetSwitch(&FocusGotoSP, nullptr);
return true;
}
// handle quiet mode on/off
if (!strcmp(FocusTelemetrySP.name, name))
{
IUUpdateSwitch(&FocusTelemetrySP, states, names, n);
bool quiet = false;
ISwitch *sp = IUFindOnSwitch(&FocusTelemetrySP);
// Telemetry off
if (!strcmp(sp->name, "FOCUS_TELEMETRY_OFF"))
{
dispatch_command(FQUIET, 1);
quiet = true;
}
// Telemetry On
else
dispatch_command(FQUIET, 0);
if (read_tcfs(response) == false)
{
IUResetSwitch(&FocusTelemetrySP);
FocusTelemetrySP.s = IPS_ALERT;
IDSetSwitch(&FocusTelemetrySP, "Error reading TCF-S reply.");
return true;
}
if (isSimulation())
strncpy(response, "DONE", TCFS_MAX_CMD);
if (strcmp(response, "DONE") == 0)
{
FocusTelemetrySP.s = IPS_OK;
IDSetSwitch(&FocusTelemetrySP,
quiet ? "Focuser Telemetry is off." : "Focuser Telemetry is on.");
// if (FocusTemperatureNP)
{
FocusTemperatureNP.s = quiet?IPS_IDLE:IPS_OK;
IDSetNumber(&FocusTemperatureNP, nullptr);
}
return true;
}
else
{
FocusTelemetrySP.s = IPS_ALERT;
IDSetSwitch(&FocusTelemetrySP, "Focuser telemetry mode failed. Response: %s.", response);
return true;
}
}
}
return INDI::Focuser::ISNewSwitch(dev, name, states, names, n);
}
int main(void) {
LPC_GPIO2->DIR |= (1<<10);
/* PLL is already setup */
SystemCoreClockUpdate();
/* Blue LED Set as output */
/* Relay EN Set as output */
LPC_GPIO1->DIR |= (1<<5);
uartInit(115200);
puts("Sys Initted\n");
puts("uart Initted\n");
initSwitch();
puts("Switches Initted\n");
SysTick_Config(SystemCoreClock/1000);
puts("SysTick Initted\n");
setup_pwm(1000,4092);
puts("PWM Initted\n");
setup_GPIO_INT();
puts("GPIO INT Initted\n");
filt_adc_init(450);
delay_ms(500);
puts("Filt ADC Initted\n");
while(1)
{
while(next_run > msTicks)
__WFI();
next_run= msTicks + 10;
if ((msTicks - last_motion ) >
(MAX(W_POWER_OFF_TIME_MS + RAMP_DOWN_TIME_MS,
RGB_POWER_OFF_TIME_MS + RAMP_DOWN_TIME_MS ) + 2000))
{
shut_off_supply();
transfer_to_sleep();
turn_on_supply();
/* Wait for the power to actually come on before starting the ramp up */
}
// WW_SWITCH_HANDLER
// debounce for 20ms, since we check for the absolute val if the user
// holds the switch forever it will only trigger the service once
if(getSwitch(WW_SWITCH) == 0)
{
if(ww_sw_asserted == 5)
{
puts("WW SWITCH PRESSED\n");
white_on = !white_on;
white_scale = 0;
}
ww_sw_asserted += 1;
}
else
ww_sw_asserted = 0;
// OFF_SWITCH_HANDLER
// debounce for 20ms, since we check for the absolute val if the user
// holds the switch forever it will only trigger the service once
if(getSwitch(OFF_SWITCH) == 0)
{
if(off_sw_asserted == 5)
{
puts("OFF SWITCH PRESSED\n");
white_on = 0;
white_scale = 0;
rgb_on = 0;
rgb_scale = 0;
}
off_sw_asserted += 1;
}
else
off_sw_asserted = 0;
// RGB_SWITCH_HANDLER
// debounce for 20ms, since we check for the absolute val if the user
// holds the switch forever it will only trigger the service once
if(getSwitch(RGB_SWITCH) == 0)
{
if(rgb_sw_asserted == 5)
{
puts("RGB SWITCH PRESSED\n");
rgb_on = !rgb_on;
rgb_scale = 0;
}
if(rgb_sw_asserted == 100)
{
puts("RGB SWITCH HELD\n");
rgb_on = 2;
}
if(rgb_sw_asserted == 500)
{
puts("RGB SWITCH LONG HELD\n");
rgb_on = 3;
}
rgb_sw_asserted += 1;
}
else
rgb_sw_asserted = 0;
/* This handles the WW LEDs */
if (((msTicks - last_motion ) > W_POWER_OFF_TIME_MS) && white_on)
{
white_scale = RAMP_DOWN_TIME_MS - ((msTicks - last_motion) - W_POWER_OFF_TIME_MS);
if ((msTicks - last_motion) > (W_POWER_OFF_TIME_MS + RAMP_DOWN_TIME_MS))
white_scale = 0;
}
if ( white_scale < RAMP_DOWN_TIME_MS && white_on && ((msTicks - last_motion ) < W_POWER_OFF_TIME_MS))
{
white_scale = msTicks - last_motion;
/* Check just in case we get held up and skip the 1000th ms after motion */
if ( white_scale > RAMP_DOWN_TIME_MS)
white_scale = RAMP_DOWN_TIME_MS;
}
if (white_scale != RAMP_DOWN_TIME_MS)
{
setWW( (white_scale * getADCVal(WW_POT)) / RAMP_DOWN_TIME_MS );
setWW2( (white_scale * getADCVal(WW_POT)) / RAMP_DOWN_TIME_MS );
}
else
{
setWW(getADCVal(WW_POT));
setWW2(getADCVal(WW_POT));
}
/* This handles the RGB LEDs */
if (((msTicks - last_motion ) > RGB_POWER_OFF_TIME_MS) && rgb_on)
{
rgb_scale = RAMP_DOWN_TIME_MS - ((msTicks - last_motion) - RGB_POWER_OFF_TIME_MS);
if ((msTicks - last_motion) > (RGB_POWER_OFF_TIME_MS + RAMP_DOWN_TIME_MS))
rgb_scale = 0;
}
if ( rgb_scale < RAMP_DOWN_TIME_MS && rgb_on && ((msTicks - last_motion ) < RGB_POWER_OFF_TIME_MS))
{
rgb_scale = msTicks - last_motion;
/* Check just in case we get held up and skip the 1000th ms after motion */
if ( rgb_scale > RAMP_DOWN_TIME_MS)
rgb_scale = RAMP_DOWN_TIME_MS;
}
if (rgb_on == 1 || rgb_on == 0)
{
if (rgb_scale != RAMP_DOWN_TIME_MS)
setRGB((rgb_scale * getADCVal(RED_POT)) / RAMP_DOWN_TIME_MS,
(rgb_scale * getADCVal(GREEN_POT)) / RAMP_DOWN_TIME_MS,
(rgb_scale * getADCVal(BLUE_POT)) / RAMP_DOWN_TIME_MS );
else
setRGB(getADCVal(RED_POT), getADCVal(GREEN_POT), getADCVal(BLUE_POT));
}
else if (rgb_on == 2)
{
uint32_t R,G,B;
h2rgb((msTicks)%(H2RGB_OUT_RANGE*6), &R, &G, &B);
if (rgb_scale != RAMP_DOWN_TIME_MS)
setRGB((rgb_scale * R) / RAMP_DOWN_TIME_MS,
(rgb_scale * G) / RAMP_DOWN_TIME_MS,
(rgb_scale * B) / RAMP_DOWN_TIME_MS );
else
setRGB(R, G, B);
}
else if (rgb_on == 3)
{
uint32_t R,G,B;
if (rgb_mode_3_next_change < msTicks)
{
rgb_mode_3_next_change = msTicks + (getADCVal(RED_POT)/4);
rgb_mode_3_color += 2;
if(rgb_mode_3_color >=6)
rgb_mode_3_color = 0;
}
h2rgb((H2RGB_OUT_RANGE * rgb_mode_3_color), &R, &G, &B);
if (rgb_scale != RAMP_DOWN_TIME_MS)
setRGB((rgb_scale * R) / RAMP_DOWN_TIME_MS,
(rgb_scale * G) / RAMP_DOWN_TIME_MS,
(rgb_scale * B) / RAMP_DOWN_TIME_MS );
else
setRGB(R, G, B);
}
}
}
bool AAGCloudWatcher::resetData() {
CloudWatcherData data;
int r = cwc->getAllData(&data);
if (!r) {
return false;
}
int N_DATA = 11;
double values[N_DATA];
char *names[N_DATA];
names[0] = const_cast<char *>("supply");
values[0] = 0;
names[1] = const_cast<char *>("sky");
values[1] = 0;
names[2] = const_cast<char *>("sensor");
values[2] = 0;
names[3] = const_cast<char *>("ambient");
values[3] = 0;
names[4] = const_cast<char *>("rain");
values[4] = 0;
names[5] = const_cast<char *>("rainHeater");
values[5] = 0;
names[6] = const_cast<char *>("rainTemp");
values[6] = 0;
names[7] = const_cast<char *>("LDR");
values[7] = 0;
names[8] = const_cast<char *>("readCycle");
values[8] = 0;
names[9] = const_cast<char *>("windSpeed");
values[9] = 0;
names[10] = const_cast<char *>("totalReadings");
values[10] = 0;
INumberVectorProperty *nvp = getNumber("readings");
IUUpdateNumber(nvp, values, names, N_DATA);
nvp->s = IPS_IDLE;
IDSetNumber(nvp, NULL);
int N_ERRORS = 5;
double valuesE[N_ERRORS];
char *namesE[N_ERRORS];
namesE[0] = const_cast<char *>("internalErrors");
valuesE[0] = 0;
namesE[1] = const_cast<char *>("firstAddressByteErrors");
valuesE[1] = 0;
namesE[2] = const_cast<char *>("commandByteErrors");
valuesE[2] = 0;
namesE[3] = const_cast<char *>("secondAddressByteErrors");
valuesE[3] = 0;
namesE[4] = const_cast<char *>("pecByteErrors");
valuesE[4] = 0;
INumberVectorProperty *nvpE = getNumber("unitErrors");
IUUpdateNumber(nvpE, valuesE, namesE, N_ERRORS);
nvpE->s = IPS_IDLE;
IDSetNumber(nvpE, NULL);
int N_SENS = 8;
double valuesS[N_SENS];
char *namesS[N_SENS];
namesS[0] = const_cast<char *>("infraredSky");
valuesS[0] = 0.0;
namesS[1] = const_cast<char *>("infraredSensor");
valuesS[1] = 0.0;
namesS[2] = const_cast<char *>("rainSensor");
valuesS[2] = 0.0;
namesS[3] = const_cast<char *>("rainSensorTemperature");
valuesS[3] = 0.0;
namesS[4] = const_cast<char *>("rainSensorHeater");
valuesS[4] = 0.0;
namesS[5] = const_cast<char *>("brightnessSensor");
valuesS[5] = 0.0;
namesS[6] = const_cast<char *>("ambientTemperatureSensor");
valuesS[6] = 0.0;
namesS[7] = const_cast<char *>("correctedInfraredSky");
valuesS[7] = 0.0;
INumberVectorProperty *nvpS = getNumber("sensors");
IUUpdateNumber(nvpS, valuesS, namesS, N_SENS);
nvpS->s = IPS_IDLE;
IDSetNumber(nvpS, NULL);
ISwitchVectorProperty *svpSw = getSwitch("deviceSwitch");
svpSw->s = IPS_IDLE;
IDSetSwitch(svpSw, NULL);
ISwitchVectorProperty *svpCC = getSwitch("cloudConditions");
svpCC->s = IPS_IDLE;
IDSetSwitch(svpCC, NULL);
ISwitchVectorProperty *svpRC = getSwitch("rainConditions");
svpRC->s = IPS_IDLE;
IDSetSwitch(svpRC, NULL);
ISwitchVectorProperty *svpBC = getSwitch("brightnessConditions");
svpBC->s = IPS_IDLE;
IDSetSwitch(svpBC, NULL);
ISwitchVectorProperty *svp = getSwitch("heaterStatus");
svp->s = IPS_IDLE;
IDSetSwitch(svp, NULL);
}