bool TestSuite::TestBTree1()
{
printf("\n Running TestBTree Case1...") ;
{
BTree tree ;
BTree::DestroyKeyValue d ;
tree.SetDestoryKeyValueCallBack(&d) ;
int k[102], v[102] ;
for(int i = 0; i < 102; i++)
{
TestKey* pKey = new TestKey(i) ;
TestValue* pValue = new TestValue(i * 10) ;
k[i] = i ;
v[i] = i * 10 ;
ASSERT(tree.Insert(pKey, pValue), ==, true) ;
}
int key = 63 ;
TestValue* pValue = (TestValue*)tree.Find(TestKey(key)) ;
ASSERT(pValue, !=, NULL) ;
ASSERT(pValue->m_value, ==, 630) ;
TestInOrderVisitor t(102, k, v) ;
tree.InOrderTraverse(t) ;
}
return true ;
}
// ReadKey():
// Finds and reads a FreeKey license, returning false if the
// key cannot be found. Returns a pointer to the matching
// key if the found; otherwise, it returns NULL.
const char * FreeKeyDongle::ReadKey( const char *path ) {
char filename[ MAX_PATH_LENGTH ];
if( path == NULL ) {
// Get the Plug-in's Path
#ifdef WIN32
GetModuleFileName( hinst, filename, MAX_PATH_LENGTH );
#endif
DirStrings::ChangeFile( filename, "freekey.key" );
} else
strcpy( filename, path );
if( !DirInfo::Exists( filename ) )
return NULL;
pifstream in( filename );
if( !in )
return NULL;
in.GuessEOLType();
static char buffer[ 64 ];
do {
in.getline( buffer, 64 );
if( TestKey( buffer, GetDongleID() ) )
return buffer;
} while( !in.eof() );
return NULL;
}
void WaitEnter()
{
while(1)
{
HandlePS2RawCodes();
if(TestKey(KEY_ENTER)&2)
return;
}
}
bool CKey::EventProcess(const Event &event)
{
if (m_state & STATE_DEAD)
return true;
CControl::EventProcess(event);
if (event.type == EVENT_MOUSE_BUTTON_DOWN)
{
if (event.mouseButton.button == MOUSE_BUTTON_LEFT) // left
m_catch = Detect(event.mousePos);
}
if (event.type == EVENT_KEY_DOWN && m_catch)
{
m_catch = false;
if (TestKey(event.key.key)) // impossible ?
{
m_sound->Play(SOUND_TZOING);
}
else
{
if (event.key.key == m_binding.primary || event.key.key == m_binding.secondary)
{
m_binding.secondary = KEY_INVALID;
m_binding.primary = event.key.key;
}
else
{
m_binding.secondary = m_binding.primary;
m_binding.primary = event.key.key;
}
m_sound->Play(SOUND_CLICK);
Event newEvent = event;
newEvent.type = m_eventType;
m_event->AddEvent(newEvent);
}
return false;
}
return true;
}
int main(void)
{
uint16_t U_Bat; /* voltage of power supply */
uint8_t Test; /* test value */
/*
* init
*/
/* switch on power to keep me alive */
CONTROL_DDR = (1 << POWER_CTRL); /* set pin as output */
CONTROL_PORT = (1 << POWER_CTRL); /* set pin to drive power management transistor */
/* setup MCU */
MCUCR = (1 << PUD); /* disable pull-up resistors globally */
ADCSRA = (1 << ADEN) | ADC_CLOCK_DIV; /* enable ADC and set clock divider */
#ifdef HW_RELAY
/* init relay (safe mode) */
/* ADC_PORT should be 0 */
ADC_DDR = (1 << TP_REF); /* short circuit probes */
#endif
/* catch watchdog */
Test = (MCUSR & (1 << WDRF)); /* save watchdog flag */
MCUSR &= ~(1 << WDRF); /* reset watchdog flag */
wdt_disable(); /* disable watchdog */
/* init LCD module */
LCD_BusSetup(); /* setup bus */
LCD_Init(); /* initialize LCD */
LCD_NextLine_Mode(MODE_NONE); /* reset line mode */
/*
* watchdog was triggered (timeout 2s)
* - This is after the MCU done a reset driven by the watchdog.
* - Does only work if the capacitor at the base of the power management
* transistor is large enough to survive a MCU reset. Otherwise the
* tester simply loses power.
*/
if (Test)
{
LCD_Clear(); /* display was initialized before */
LCD_EEString(Timeout_str); /* display: timeout */
LCD_NextLine_EEString(Error_str); /* display: error */
MilliSleep(2000); /* give user some time to read */
CONTROL_PORT = 0; /* power off myself */
return 0; /* exit program */
}
/*
* operation mode selection
*/
Config.SleepMode = SLEEP_MODE_PWR_SAVE; /* default: power save */
UI.TesterMode = MODE_CONTINOUS; /* set default mode: continous */
Test = 0; /* key press */
/* catch long key press */
if (!(CONTROL_PIN & (1 << TEST_BUTTON))) /* if test button is pressed */
{
RunsMissed = 0;
while (Test == 0)
{
MilliSleep(20);
if (!(CONTROL_PIN & (1 << TEST_BUTTON))) /* if button is still pressed */
{
RunsMissed++;
if (RunsMissed > 100) Test = 3; /* >2000ms */
}
else /* button released */
{
Test = 1; /* <300ms */
if (RunsMissed > 15) Test = 2; /* >300ms */
}
}
}
/* key press >300ms sets autohold mode */
if (Test > 1) UI.TesterMode = MODE_AUTOHOLD;
/*
* load saved offsets and values
*/
if (Test == 3) /* key press >2s resets to defaults */
{
SetAdjustDefaults(); /* set default values */
}
else /* normal mode */
{
LoadAdjust(); /* load adjustment values */
}
/* set extra stuff */
#ifdef SW_CONTRAST
LCD_Contrast(NV.Contrast); /* set LCD contrast */
#endif
/*
* welcome user
*/
LCD_EEString(Tester_str); /* display: Component Tester */
LCD_NextLine_EEString_Space(Edition_str); /* display firmware edition */
LCD_EEString(Version_str); /* display firmware version */
MilliSleep(1500); /* let the user read the display */
/*
* init variables
*/
/* cycling */
RunsMissed = 0;
RunsPassed = 0;
/* default offsets and values */
Config.Samples = ADC_SAMPLES; /* number of ADC samples */
Config.AutoScale = 1; /* enable ADC auto scaling */
Config.RefFlag = 1; /* no ADC reference set yet */
Config.Vcc = UREF_VCC; /* voltage of Vcc */
wdt_enable(WDTO_2S); /* enable watchdog (timeout 2s) */
/*
* main processing cycle
*/
start:
/* reset variabels */
Check.Found = COMP_NONE;
Check.Type = 0;
Check.Done = 0;
Check.Diodes = 0;
Check.Resistors = 0;
Semi.U_1 = 0;
Semi.I_1 = 0;
Semi.F_1 = 0;
/* reset hardware */
ADC_DDR = 0; /* set all pins of ADC port as input */
/* also remove short circuit by relay */
LCD_NextLine_Mode(MODE_KEEP); /* line mode: keep first line */
LCD_Clear(); /* clear LCD */
/*
* voltage reference
*/
#ifdef HW_REF25
/* external 2.5V reference */
Config.Samples = 200; /* do a lot of samples for high accuracy */
U_Bat = ReadU(TP_REF); /* read voltage of reference (mV) */
Config.Samples = ADC_SAMPLES; /* set samples back to default */
if ((U_Bat > 2250) && (U_Bat < 2750)) /* check for valid reference */
{
uint32_t Temp;
/* adjust Vcc (assuming 2.495V typically) */
Temp = ((uint32_t)Config.Vcc * UREF_25) / U_Bat;
Config.Vcc = (uint16_t)Temp;
}
#endif
/* internal bandgap reference */
Config.Bandgap = ReadU(0x0e); /* dummy read for bandgap stabilization */
Config.Samples = 200; /* do a lot of samples for high accuracy */
Config.Bandgap = ReadU(0x0e); /* get voltage of bandgap reference (mV) */
Config.Samples = ADC_SAMPLES; /* set samples back to default */
Config.Bandgap += NV.RefOffset; /* add voltage offset */
/*
* battery check
*/
/*
* ADC pin is connected to a voltage divider Rh = 10k and Rl = 3k3.
* Ul = (Uin / (Rh + Rl)) * Rl -> Uin = (Ul * (Rh + Rl)) / Rl
* Uin = (Ul * (10k + 3k3)) / 3k3 = 4 * Ul
*/
/* get current voltage */
U_Bat = ReadU(TP_BAT); /* read voltage (mV) */
U_Bat *= 4; /* calculate U_bat (mV) */
U_Bat += BAT_OFFSET; /* add offset for voltage drop */
/* display battery voltage */
LCD_EEString_Space(Battery_str); /* display: Bat. */
DisplayValue(U_Bat / 10, -2, 'V'); /* display battery voltage */
LCD_Space();
/* check limits */
if (U_Bat < BAT_POOR) /* low level reached */
{
LCD_EEString(Low_str); /* display: low */
MilliSleep(2000); /* let user read info */
goto power_off; /* power off */
}
else if (U_Bat < BAT_POOR + 1000) /* warning level reached */
{
LCD_EEString(Weak_str); /* display: weak */
}
else /* ok */
{
LCD_EEString(OK_str); /* display: ok */
}
/*
* probing
*/
/* display start of probing */
LCD_NextLine_EEString(Running_str); /* display: probing... */
/* try to discharge any connected component */
DischargeProbes();
if (Check.Found == COMP_ERROR) /* discharge failed */
{
goto result; /* skip all other checks */
}
/* enter main menu if requested by short-circuiting all probes */
if (AllProbesShorted() == 3)
{
MainMenu(); /* enter mainmenu */;
goto end; /* new cycle after job is is done */
}
/* check all 6 combinations of the 3 probes */
CheckProbes(TP1, TP2, TP3);
CheckProbes(TP2, TP1, TP3);
CheckProbes(TP1, TP3, TP2);
CheckProbes(TP3, TP1, TP2);
CheckProbes(TP2, TP3, TP1);
CheckProbes(TP3, TP2, TP1);
/* if component might be a capacitor */
if ((Check.Found == COMP_NONE) ||
(Check.Found == COMP_RESISTOR))
{
/* tell user to be patient with large caps :-) */
LCD_Space();
LCD_Char('C');
/* check all possible combinations */
MeasureCap(TP3, TP1, 0);
MeasureCap(TP3, TP2, 1);
MeasureCap(TP2, TP1, 2);
}
/*
* output test results
*/
result:
LCD_Clear(); /* clear LCD */
LCD_NextLine_Mode(MODE_KEEP | MODE_KEY);
/* call output function based on component type */
switch (Check.Found)
{
case COMP_ERROR:
Show_Error();
goto end;
break;
case COMP_DIODE:
Show_Diode();
break;
case COMP_BJT:
Show_BJT();
break;
case COMP_FET:
Show_FET();
break;
case COMP_IGBT:
Show_IGBT();
break;
case COMP_THYRISTOR:
Show_Special();
break;
case COMP_TRIAC:
Show_Special();
break;
case COMP_RESISTOR:
Show_Resistor();
break;
case COMP_CAPACITOR:
Show_Capacitor();
break;
default: /* no component found */
Show_Fail();
goto end;
}
/* component was found */
RunsMissed = 0; /* reset counter */
RunsPassed++; /* increase counter */
/*
* take care about cycling and power-off
*/
end:
#ifdef HW_RELAY
ADC_DDR = (1<<TP_REF); /* short circuit probes */
#endif
LCD_NextLine_Mode(MODE_NONE); /* reset next line mode */
/* get key press or timeout */
Test = TestKey((uint16_t)CYCLE_DELAY, 12);
if (Test == 0) /* timeout (no key press) */
{
/* check if we reached the maximum number of rounds (continious mode only) */
if ((RunsMissed >= CYCLE_MAX) || (RunsPassed >= CYCLE_MAX * 2))
{
goto power_off; /* -> power off */
}
}
else if (Test == 1) /* short key press */
{
/* a second key press triggers extra functions */
MilliSleep(50);
Test = TestKey(300, 0);
if (Test > 0) /* short or long key press */
{
#ifdef HW_RELAY
ADC_DDR = 0; /* remove short circuit */
#endif
MainMenu(); /* enter main menu */
goto end; /* re-run cycle control */
}
}
else if (Test == 2) /* long key press */
{
goto power_off; /* -> power off */
}
#ifdef HW_ENCODER
else if (Test == 4) /* rotary encoder: left turn */
{
MainMenu(); /* enter main menu */
goto end; /* re-run cycle control */
}
#endif
/* default action (also for rotary encoder) */
goto start; /* -> next round */
power_off:
/* display feedback (otherwise the user will wait :-) */
LCD_Clear();
LCD_EEString(Bye_str);
wdt_disable(); /* disable watchdog */
CONTROL_PORT &= ~(1 << POWER_CTRL); /* power off myself */
return 0;
}
void SSection::PaintKeys( const FGeometry& AllottedGeometry, const FSlateRect& MyClippingRect, FSlateWindowElementList& OutDrawElements, int32 LayerId, const FWidgetStyle& InWidgetStyle ) const
{
UMovieSceneSection& SectionObject = *SectionInterface->GetSectionObject();
FSequencer& Sequencer = ParentSectionArea->GetSequencer();
static const FName BackgroundBrushName("Sequencer.SectionArea.Background");
static const FName KeyBrushName("Sequencer.Key");
const FSlateBrush* BackgroundBrush = FEditorStyle::GetBrush(BackgroundBrushName);
const FSlateBrush* KeyBrush = FEditorStyle::GetBrush(KeyBrushName);
static const FName SelectionColorName("SelectionColor");
static const FName SelectionInactiveColorName("SelectionColorInactive");
static const FName SelectionColorPressedName("SelectionColor_Pressed");
const FLinearColor PressedKeyColor = FEditorStyle::GetSlateColor(SelectionColorPressedName).GetColor( InWidgetStyle );
const FLinearColor SelectedKeyColor = FEditorStyle::GetSlateColor(SelectionColorName).GetColor( InWidgetStyle );
const FLinearColor SelectedInactiveColor = FEditorStyle::GetSlateColor(SelectionInactiveColorName).GetColor( InWidgetStyle )
* FLinearColor(.25, .25, .25, 1); // Make the color a little darker since it's not very visible next to white keyframes.
// @todo Sequencer temp color, make hovered brighter than selected.
FLinearColor HoveredKeyColor = SelectedKeyColor * FLinearColor(1.5,1.5,1.5,1.0f);
// Draw all keys in each key area
for( int32 KeyAreaIndex = 0; KeyAreaIndex < KeyAreas.Num(); ++KeyAreaIndex )
{
const FKeyAreaElement& Element = KeyAreas[KeyAreaIndex];
// Get the key area at the same index of the section. Each section in this widget has the same layout and the same number of key areas
const TSharedRef<IKeyArea>& KeyArea = Element.KeyAreaNode.GetKeyArea( SectionIndex );
FGeometry KeyAreaGeometry = GetKeyAreaGeometry( Element, AllottedGeometry );
FTimeToPixel TimeToPixelConverter = SectionObject.IsInfinite() ?
FTimeToPixel( ParentGeometry, GetSequencer().GetViewRange()) :
FTimeToPixel( KeyAreaGeometry, TRange<float>( SectionObject.GetStartTime(), SectionObject.GetEndTime() ) );
// Draw a box for the key area
// @todo Sequencer - Allow the IKeyArea to do this
FSlateDrawElement::MakeBox(
OutDrawElements,
LayerId,
KeyAreaGeometry.ToPaintGeometry(),
BackgroundBrush,
MyClippingRect,
ESlateDrawEffect::None,
FLinearColor( .1f, .1f, .1f, 0.7f ) );
int32 KeyLayer = LayerId + 1;
TArray<FKeyHandle> KeyHandles = KeyArea->GetUnsortedKeyHandles();
for( int32 KeyIndex = 0; KeyIndex < KeyHandles.Num(); ++KeyIndex )
{
FKeyHandle KeyHandle = KeyHandles[KeyIndex];
float KeyTime = KeyArea->GetKeyTime(KeyHandle);
// Omit keys which would not be visible
if( SectionObject.IsTimeWithinSection( KeyTime ) )
{
FLinearColor KeyColor( 1.0f, 1.0f, 1.0f, 1.0f );
// Where to start drawing the key (relative to the section)
float KeyPosition = TimeToPixelConverter.TimeToPixel( KeyTime );
FSelectedKey TestKey( SectionObject, KeyArea, KeyHandle );
bool bSelected = Sequencer.GetSelection().IsSelected( TestKey );
bool bActive = Sequencer.GetSelection().GetActiveSelection() == FSequencerSelection::EActiveSelection::KeyAndSection;
if( TestKey == PressedKey )
{
KeyColor = PressedKeyColor;
}
else if( TestKey == HoveredKey )
{
KeyColor = HoveredKeyColor;
}
else if( bSelected )
{
if (bActive)
{
KeyColor = SelectedKeyColor;
}
else
{
KeyColor = SelectedInactiveColor;
}
}
// Draw the key
FSlateDrawElement::MakeBox(
OutDrawElements,
// always draw selected keys on top of other keys
bSelected ? KeyLayer+1 : KeyLayer,
// Center the key along Y. Ensure the middle of the key is at the actual key time
KeyAreaGeometry.ToPaintGeometry( FVector2D( KeyPosition - FMath::CeilToFloat(SequencerSectionConstants::KeySize.X/2.0f), ((KeyAreaGeometry.Size.Y*.5f)-(SequencerSectionConstants::KeySize.Y*.5f)) ), SequencerSectionConstants::KeySize ),
KeyBrush,
MyClippingRect,
ESlateDrawEffect::None,
KeyColor
);
}
}
}
}
uint8_t SelfTest(void)
{
uint8_t Flag = 0; /* return value */
uint8_t Test = 1; /* test counter */
uint8_t Counter; /* loop counter */
uint8_t DisplayFlag; /* display flag */
uint16_t Val0; /* voltage/value */
int16_t Val1 = 0, Val2 = 0, Val3 = 0; /* voltages/values */
/* make sure all probes are shorted */
Counter = ShortCircuit(1);
if (Counter == 0) Test = 10; /* skip selftest */
/* loop through all tests */
while (Test <= 6)
{
Counter = 1;
/* repeat each test 5 times */
while (Counter <= 5)
{
/* display test number */
LCD_Clear();
LCD_Char('T'); /* display: T */
LCD_Char('0' + Test); /* display test number */
LCD_Space();
DisplayFlag = 1; /* display values by default */
/*
* tests
*/
switch (Test)
{
case 1: /* reference voltage */
Val0 = ReadU(0x0e); /* dummy read for bandgap stabilization */
Val0 = ReadU(0x0e); /* read bandgap reference voltage */
LCD_EEString(URef_str); /* display: Vref */
LCD_NextLine();
DisplayValue(Val0, -3, 'V'); /* display voltage in mV */
DisplayFlag = 0; /* reset flag */
break;
case 2: /* compare Rl resistors (probes still shorted) */
LCD_EEString_Space(Rl_str); /* display: +Rl- */
LCD_EEString(ProbeComb_str); /* display: 12 13 23 */
/* set up a voltage divider with the Rl's */
/* substract theoretical voltage of voltage divider */
/* TP1: Gnd -- Rl -- probe-2 -- probe-1 -- Rl -- Vcc */
R_PORT = 1 << (TP1 * 2);
R_DDR = (1 << (TP1 * 2)) | (1 << (TP2 * 2));
Val1 = ReadU_20ms(TP3);
Val1 -= ((int32_t)Config.Vcc * (R_MCU_LOW + R_LOW)) / (R_MCU_LOW + R_LOW + R_LOW + R_MCU_HIGH);
/* TP1: Gnd -- Rl -- probe-3 -- probe-1 -- Rl -- Vcc */
R_DDR = (1 << (TP1 * 2)) | (1 << (TP3 * 2));
Val2 = ReadU_20ms(TP2);
Val2 -= ((int32_t)Config.Vcc * (R_MCU_LOW + R_LOW)) / (R_MCU_LOW + R_LOW + R_LOW + R_MCU_HIGH);
/* TP1: Gnd -- Rl -- probe-3 -- probe-2 -- Rl -- Vcc */
R_PORT = 1 << (TP2 * 2);
R_DDR = (1 << (TP2 * 2)) | (1 << (TP3 * 2));
Val3 = ReadU_20ms(TP2);
Val3 -= ((int32_t)Config.Vcc * (R_MCU_LOW + R_LOW)) / (R_MCU_LOW + R_LOW + R_LOW + R_MCU_HIGH);
break;
case 3: /* compare Rh resistors (probes still shorted) */
LCD_EEString_Space(Rh_str); /* display: +Rh- */
LCD_EEString(ProbeComb_str); /* display: 12 13 23 */
/* set up a voltage divider with the Rh's */
/* TP1: Gnd -- Rh -- probe-2 -- probe-1 -- Rh -- Vcc */
R_PORT = 2 << (TP1 * 2);
R_DDR = (2 << (TP1 * 2)) | (2 << (TP2 * 2));
Val1 = ReadU_20ms(TP3);
Val1 -= (Config.Vcc / 2);
/* TP1: Gnd -- Rh -- probe-3 -- probe-1 -- Rh -- Vcc */
R_DDR = (2 << (TP1 * 2)) | (2 << (TP3 * 2));
Val2 = ReadU_20ms(TP2);
Val2 -= (Config.Vcc / 2);
/* TP1: Gnd -- Rh -- probe-3 -- probe-2 -- Rh -- Vcc */
R_PORT = 2 << (TP2 * 2);
R_DDR = (2 << (TP2 * 2)) | (2 << (TP3 * 2));
Val3 = ReadU_20ms(TP1);
Val3 -= (Config.Vcc / 2);
break;
case 4: /* un-short probes */
ShortCircuit(0); /* make sure probes are not shorted */
Counter = 100; /* skip test */
DisplayFlag = 0; /* reset flag */
break;
case 5: /* Rh resistors pulled down */
LCD_EEString(RhLow_str); /* display: Rh- */
/* TP1: Gnd -- Rh -- probe */
R_PORT = 0;
R_DDR = 2 << (TP1 * 2);
Val1 = ReadU_20ms(TP1);
/* TP1: Gnd -- Rh -- probe */
R_DDR = 2 << (TP2 * 2);
Val2 = ReadU_20ms(TP2);
/* TP1: Gnd -- Rh -- probe */
R_DDR = 2 << (TP3 * 2);
Val3 = ReadU_20ms(TP3);
break;
case 6: /* Rh resistors pulled up */
LCD_EEString(RhHigh_str); /* display: Rh+ */
/* TP1: probe -- Rh -- Vcc */
R_DDR = 2 << (TP1 * 2);
R_PORT = 2 << (TP1 * 2);
Val1 = ReadU_20ms(TP1);
/* TP1: probe -- Rh -- Vcc */
R_DDR = 2 << (TP2 * 2);
R_PORT = 2 << (TP2 * 2);
Val2 = ReadU_20ms(TP2);
/* TP1: probe -- Rh -- Vcc */
R_DDR = 2 << (TP3 * 2);
R_PORT = 2 << (TP3 * 2);
Val3 = ReadU_20ms(TP3);
break;
}
/* reset ports to defaults */
R_DDR = 0; /* input mode */
R_PORT = 0; /* all pins low */
/* display voltages/values of all probes */
if (DisplayFlag)
{
LCD_NextLine(); /* move to line #2 */
DisplaySignedValue(Val1, 0 , 0); /* display TP1 */
LCD_Space();
DisplaySignedValue(Val2, 0 , 0); /* display TP2 */
LCD_Space();
DisplaySignedValue(Val3, 0 , 0); /* display TP3 */
}
/* wait and check test push button */
if (Counter < 100) /* when we don't skip this test */
{
DisplayFlag = TestKey(1000, 0); /* catch key press or timeout */
/* short press -> next test / long press -> end selftest */
if (DisplayFlag > 0)
{
Counter = 100; /* skip current test anyway */
if (DisplayFlag == 2) Test = 100; /* also skip selftest */
}
}
Counter++; /* next run */
}
Test++; /* next one */
}
Flag = 1; /* signal success */
return Flag;
}
uint8_t SelfAdjust(void)
{
uint8_t Flag = 0; /* return value */
uint8_t Test = 1; /* test counter */
uint8_t Counter; /* loop counter */
uint8_t DisplayFlag; /* display flag */
uint16_t Val1 = 0, Val2 = 0, Val3 = 0; /* voltages */
uint8_t CapCounter = 0; /* number of C_Zero measurements */
uint16_t CapSum = 0; /* sum of C_Zero values */
uint8_t RCounter = 0; /* number of R_Zero measurements */
uint16_t RSum = 0; /* sum of R_Zero values */
uint8_t RiL_Counter = 0; /* number of U_RiL measurements */
uint16_t U_RiL = 0; /* sum of U_RiL values */
uint8_t RiH_Counter = 0; /* number of U_RiH measurements */
uint16_t U_RiH = 0; /* sum of U_RiL values */
uint32_t Val0; /* temp. value */
/*
* measurements
*/
/* make sure all probes are shorted */
Counter = ShortCircuit(1);
if (Counter == 0) Test = 10; /* skip adjustment on error */
while (Test <= 5) /* loop through tests */
{
Counter = 1;
/* repeat each measurement 5 times */
while (Counter <= 5)
{
/* display test number */
LCD_Clear();
LCD_Char('A'); /* display: a */
LCD_Char('0' + Test); /* display number */
LCD_Space();
DisplayFlag = 1; /* display values by default */
/*
* tests
*/
switch (Test)
{
case 1: /* resistance of probe leads (probes shorted) */
LCD_EEString_Space(ROffset_str); /* display: R0 */
LCD_EEString(ProbeComb_str); /* display: 12 13 23 */
/*
* The resistance is for two probes in series and we expect it to be
* smaller than 1.00 Ohms, i.e. 0.50 Ohms for a single probe
*/
UpdateProbes(TP2, TP1, 0);
Val1 = SmallResistor(0);
if (Val1 < 100) /* within limit */
{
RSum += Val1;
RCounter++;
}
UpdateProbes(TP3, TP1, 0);
Val2 = SmallResistor(0);
if (Val2 < 100) /* whithin limit */
{
RSum += Val2;
RCounter++;
}
UpdateProbes(TP3, TP2, 0);
Val3 = SmallResistor(0);
if (Val3 < 100) /* within limit */
{
RSum += Val3;
RCounter++;
}
break;
case 2: /* un-short probes */
ShortCircuit(0); /* make sure probes are not shorted */
Counter = 100; /* skip test */
DisplayFlag = 0; /* reset display flag */
break;
case 3: /* internal resistance of MCU in pull-down mode */
LCD_EEString(RiLow_str); /* display: Ri- */
/* TP1: Gnd -- Ri -- probe -- Rl -- Ri -- Vcc */
ADC_PORT = 0;
ADC_DDR = 1 << TP1;
R_PORT = 1 << (TP1 * 2);
R_DDR = 1 << (TP1 * 2);
Val1 = ReadU_5ms(TP1);
U_RiL += Val1;
/* TP2: Gnd -- Ri -- probe -- Rl -- Ri -- Vcc */
ADC_DDR = 1 << TP2;
R_PORT = 1 << (TP2 * 2);
R_DDR = 1 << (TP2 * 2);
Val2 = ReadU_5ms(TP2);
U_RiL += Val2;
/* TP3: Gnd -- Ri -- probe -- Rl -- Ri -- Vcc */
ADC_DDR = 1 << TP3;
R_PORT = 1 << (TP3 * 2);
R_DDR = 1 << (TP3 * 2);
Val3 = ReadU_5ms(TP3);
U_RiL += Val3;
RiL_Counter += 3;
break;
case 4: /* internal resistance of MCU in pull-up mode */
LCD_EEString(RiHigh_str); /* display: Ri+ */
/* TP1: Gnd -- Ri -- Rl -- probe -- Ri -- Vcc */
R_PORT = 0;
ADC_PORT = 1 << TP1;
ADC_DDR = 1 << TP1;
R_DDR = 1 << (TP1 * 2);
Val1 = Config.Vcc - ReadU_5ms(TP1);
U_RiH += Val1;
/* TP2: Gnd -- Ri -- Rl -- probe -- Ri -- Vcc */
ADC_PORT = 1 << TP2;
ADC_DDR = 1 << TP2;
R_DDR = 1 << (TP2 * 2);
Val2 = Config.Vcc - ReadU_5ms(TP2);
U_RiH += Val2;
/* TP3: Gnd -- Ri -- Rl -- probe -- Ri -- Vcc */
ADC_PORT = 1 << TP3;
ADC_DDR = 1 << TP3;
R_DDR = 1 << (TP3 * 2);
Val3 = Config.Vcc - ReadU_5ms(TP3);
U_RiH += Val3;
RiH_Counter += 3;
break;
case 5: /* capacitance offset (PCB and probe leads) */
LCD_EEString_Space(CapOffset_str); /* display: C0 */
LCD_EEString(ProbeComb_str); /* display: 12 13 23 */
/*
* The capacitance is for two probes and we expect it to be
* less than 100pF.
*/
MeasureCap(TP2, TP1, 0);
Val1 = (uint16_t)Caps[0].Raw;
/* limit offset to 100pF */
if ((Caps[0].Scale == -12) && (Caps[0].Raw <= 100))
{
CapSum += Val1;
CapCounter++;
}
MeasureCap(TP3, TP1, 1);
Val2 = (uint16_t)Caps[1].Raw;
/* limit offset to 100pF */
if ((Caps[1].Scale == -12) && (Caps[1].Raw <= 100))
{
CapSum += Val2;
CapCounter++;
}
MeasureCap(TP3, TP2, 2);
Val3 = (uint16_t)Caps[2].Raw;
/* limit offset to 100pF */
if ((Caps[2].Scale == -12) && (Caps[2].Raw <= 100))
{
CapSum += Val3;
CapCounter++;
}
break;
}
/* reset ports to defaults */
ADC_DDR = 0; /* input mode */
ADC_PORT = 0; /* all pins low */
R_DDR = 0; /* input mode */
R_PORT = 0; /* all pins low */
/* display values */
if (DisplayFlag)
{
LCD_NextLine(); /* move to line #2 */
DisplayValue(Val1, 0 , 0); /* display TP1 */
LCD_Space();
DisplayValue(Val2, 0 , 0); /* display TP2 */
LCD_Space();
DisplayValue(Val3, 0 , 0); /* display TP3 */
}
/* wait and check test push button */
if (Counter < 100) /* when we don't skip this test */
{
DisplayFlag = TestKey(1000, 0); /* catch key press or timeout */
/* short press -> next test / long press -> end selftest */
if (DisplayFlag > 0)
{
Counter = 100; /* skip current test anyway */
if (DisplayFlag == 2) Test = 100; /* also skip selftest */
}
}
Counter++; /* next run */
}
Test++; /* next one */
}
/*
* calculate values and offsets
*/
/* capacitance auto-zero: calculate average value for all probe pairs */
if (CapCounter == 15)
{
/* calculate average offset (pF) */
NV.CapZero = CapSum / CapCounter;
Flag++;
}
/* resistance auto-zero: calculate average value for all probes pairs */
if (RCounter == 15)
{
/* calculate average offset (0.01 Ohms) */
NV.RZero = RSum / RCounter;
Flag++;
}
/* RiL & RiH */
if ((RiL_Counter == 15) && (RiH_Counter == 15))
{
/*
* Calculate RiL and RiH using the voltage divider rule:
* Ri = Rl * (U_Ri / U_Rl)
* - scale up by 100, round up/down and scale down by 10
*/
/* use values multiplied by 3 to increase accuracy */
U_RiL /= 5; /* average sum of 3 U_RiL */
U_RiH /= 5; /* average sum of 3 U_RiH */
Val1 = (Config.Vcc * 3) - U_RiL - U_RiH; /* U_Rl * 3 */
/* RiL */
Val0 = ((uint32_t)R_LOW * 100 * U_RiL) / Val1; /* Rl * U_Ri / U_Rl in 0.01 Ohm */
Val0 += 5; /* for automagic rounding */
Val0 /= 10; /* scale down to 0.1 Ohm */
if (Val0 < 250UL) /* < 25 Ohms */
{
NV.RiL = (uint16_t)Val0;
Flag++;
}
/* RiH */
Val0 = ((uint32_t)R_LOW * 100 * U_RiH) / Val1; /* Rl * U_Ri / U_Rl in 0.01 Ohm */
Val0 += 5; /* for automagic rounding */
Val0 /= 10; /* scale down to 0.1 Ohm */
if (Val0 < 280UL) /* < 29 Ohms */
{
NV.RiH = (uint16_t)Val0;
Flag++;
}
}
/* show values and offsets */
ShowAdjust();
if (Flag == 4) Flag = 1; /* all adjustments done -> success */
else Flag = 0; /* signal error */
return Flag;
}
