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Add OLED library - update tiny wire libraries - add support for all PWM channels and PWM on pin 8
This commit is contained in:
Erik Tylek Kettenburg
@@ -17,7 +17,7 @@ This sequence uses:
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IMPORTANT:
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=========
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For this sketch, which is using <DigiUSB> library:
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1) Comment "#define RC_SEQ_WITH_SOFT_RC_PULSE_IN_SUPPORT" in "arduino-1.xx\libraries\RcSeq.h".
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1) Comment "#define RC_SEQ_WITH_SOFT_RC_PULSE_IN_SUPPORT" AND #define RC_SEQ_CONTROL_SUPPORT in "arduino-1.xx\libraries\RcSeq.h".
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This will disable the code to manage incoming RC pulses and save some flash memory.
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RC_SEQ_WITH_SHORT_ACTION_SUPPORT and RC_SEQ_WITH_SOFT_RC_PULSE_OUT_SUPPORT shall be defined
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2) Replace #define RING_BUFFER_SIZE 128 with #define RING_BUFFER_SIZE 32 in "arduino-1.xx\libraries\DigisparkUSB\DigiUSB.h".
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@@ -38,17 +38,17 @@ static void ToggleLed(void); /* Declare Short Action: Toggle a LED */
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#include <RcSeq.h>
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#include <SoftRcPulseOut.h>
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#define LED_PIN 1
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#define LED_PIN 1
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/*****************************************************************/
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/* STEP #2: Enumeration of the servos used in the sequence */
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/*****************************************************************/
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enum {ROTATION_SERVO=0, UP_DOWN_SERVO , SERVO_NB};
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enum {ROTATION_SERVO=0, UP_DOWN_SERVO, SERVO_NB};
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/*****************************************************************/
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/* STEP #3: Servos Digital Pins assignment */
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/*****************************************************************/
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#define UP_DOWN_SERVO_PIN 2
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#define UP_DOWN_SERVO_PIN 2
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/* /!\ Do not use Pin 3 (used by USB) /!\ */
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/* /!\ Do not use Pin 4 (used by USB) /!\ */
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#define ROTATION_SERVO_PIN 5
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@@ -56,12 +56,12 @@ enum {ROTATION_SERVO=0, UP_DOWN_SERVO , SERVO_NB};
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/**************************************************************************************/
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/* STEP #4: Declaration of the angles of the servos for the different motions (in °) */
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/**************************************************************************************/
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#define UP_DOWN_ON_DECK_POS 120 /* Zodiac on the deck */
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#define UP_DOWN_ON_AIR_POS 180 /* Zodiac in the air */
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#define UP_DOWN_ON_SEA_POS 0 /* Zodiac at sea level */
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#define UP_DOWN_ON_DECK_POS 120 /* Zodiac on the deck */
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#define UP_DOWN_ON_AIR_POS 180 /* Zodiac in the air */
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#define UP_DOWN_ON_SEA_POS 0 /* Zodiac at sea level */
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#define ROTATION_ABOVE_DECK_POS 90 /* crane at deck side */
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#define ROTATION_ABOVE_SEA_POS 0 /* crane at sea side */
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#define ROTATION_ABOVE_DECK_POS 90 /* crane at deck side */
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#define ROTATION_ABOVE_SEA_POS 0 /* crane at sea side */
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/***************************************************************************************************************************************/
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@@ -80,26 +80,26 @@ Order <--DECK_TO_AIR_DURATION_MS--> <--DECK_TO_SEA_ROTATION_DUR
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/* STEP #6: With the help of the temporal diagram, declare start up time, the motion duration of servo and optional delay */
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/**************************************************************************************************************************************************/
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/* Tune below all the motion duration. Do not forget to add a trailer 'UL' for each value to force them in Unsigned Long type */
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#define START_UP_DECK_TO_AIR_MS 0UL /* 0 for immediate start up, but you can put a delay here. Ex: 2000UL, will delay the startup of the whole sequence after 2 seconds */
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#define DECK_TO_AIR_DURATION_MS 3000UL
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#define START_UP_DECK_TO_AIR_MS 0UL /* 0 for immediate start up, but you can put a delay here. Ex: 2000UL, will delay the startup of the whole sequence after 2 seconds */
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#define DECK_TO_AIR_DURATION_MS 3000UL
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#define START_UP_DECK_TO_SEA_ROTATION_MS (START_UP_DECK_TO_AIR_MS + DECK_TO_AIR_DURATION_MS)
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#define DECK_TO_SEA_ROTATION_DURATION_MS 3000UL
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#define START_UP_DECK_TO_SEA_ROTATION_MS (START_UP_DECK_TO_AIR_MS + DECK_TO_AIR_DURATION_MS)
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#define DECK_TO_SEA_ROTATION_DURATION_MS 3000UL
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#define START_UP_AIR_TO_SEA_FALLING_MS (START_UP_DECK_TO_SEA_ROTATION_MS + DECK_TO_SEA_ROTATION_DURATION_MS)
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#define AIR_TO_SEA_FALLING_DURATION_MS 9000UL
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#define START_UP_AIR_TO_SEA_FALLING_MS (START_UP_DECK_TO_SEA_ROTATION_MS + DECK_TO_SEA_ROTATION_DURATION_MS)
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#define AIR_TO_SEA_FALLING_DURATION_MS 9000UL
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#define DELAY_BEFORE_RISING_UP_MS 6000UL
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#define DELAY_BEFORE_RISING_UP_MS 6000UL
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#define START_UP_SEA_TO_AIR_RISING_MS (START_UP_AIR_TO_SEA_FALLING_MS + AIR_TO_SEA_FALLING_DURATION_MS + DELAY_BEFORE_RISING_UP_MS)
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#define SEA_TO_AIR_RISING_DURATION_MS 9000UL
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#define START_UP_SEA_TO_AIR_RISING_MS (START_UP_AIR_TO_SEA_FALLING_MS + AIR_TO_SEA_FALLING_DURATION_MS + DELAY_BEFORE_RISING_UP_MS)
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#define SEA_TO_AIR_RISING_DURATION_MS 9000UL
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#define START_UP_SEA_TO_DECK_ROTATION_MS (START_UP_SEA_TO_AIR_RISING_MS + SEA_TO_AIR_RISING_DURATION_MS)
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#define SEA_TO_DECK_ROTATION_DURATION_MS 3000UL
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#define START_UP_SEA_TO_DECK_ROTATION_MS (START_UP_SEA_TO_AIR_RISING_MS + SEA_TO_AIR_RISING_DURATION_MS)
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#define SEA_TO_DECK_ROTATION_DURATION_MS 3000UL
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#define START_UP_AIR_TO_DECK_FALLING_MS (START_UP_SEA_TO_DECK_ROTATION_MS + SEA_TO_DECK_ROTATION_DURATION_MS)
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#define AIR_TO_DECK_FALLING_DURATION_MS 3000UL
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#define START_UP_AIR_TO_DECK_FALLING_MS (START_UP_SEA_TO_DECK_ROTATION_MS + SEA_TO_DECK_ROTATION_DURATION_MS)
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#define AIR_TO_DECK_FALLING_DURATION_MS 3000UL
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/********************************************************************************************************************/
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/* STEP #7: Declare here the percentage of motion to be performed at half speed for servo start up and stop */
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@@ -118,7 +118,7 @@ Order <--DECK_TO_AIR_DURATION_MS--> <--DECK_TO_SEA_ROTATION_DUR
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/* - Percentage of motion performed at half speed for servo start and servo stop (Soft start and Soft stop) */
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/* Note: START_STOP_PER_CENT not used (MOTION_WITHOUT_SOFT_START_AND_STOP() macro used) */
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/************************************************************************************************************/
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SequenceSt_t ZodiacSequence[] PROGMEM = {
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const SequenceSt_t ZodiacSequence[] PROGMEM = {
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SHORT_ACTION_TO_PERFORM(ToggleLed, START_UP_DECK_TO_AIR_MS) /* Switch ON the Led at the beginning of the sequence */
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SHORT_ACTION_TO_PERFORM(ToggleLed, START_UP_AIR_TO_DECK_FALLING_MS+AIR_TO_DECK_FALLING_DURATION_MS) /* Switch OFF the Led at the beginning of the sequence: You are not obliged to put this line at the end of the table */
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/* 1) The crane lifts the pneumatic Zodiac from the deck to the air and stops */
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@@ -155,7 +155,7 @@ void setup()
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/**************************************************************************************************************************/
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/* STEP #11: declare the sequence command signal (0), the stick level (0), and the sequence to call */
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/**************************************************************************************************************************/
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RcSeq_DeclareCommandAndSequence(0, 0, RC_SEQUENCE(ZodiacSequence)); /* 0,0 since there's no RC command */
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RcSeq_DeclareCommandAndSequence(0, 0, RC_SEQUENCE(ZodiacSequence)); /* 0, 0 since there's no RC command */
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}
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void loop()
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@@ -172,12 +172,12 @@ char RxChar;
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/****************************************************************************************************************/
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if(DigiUSB.available())
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{
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RxChar=DigiUSB.read();
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if(RxChar=='g') /* Go ! */
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RxChar = DigiUSB.read();
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if(RxChar == 'g') /* Go ! */
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{
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RcSeq_LaunchSequence(ZodiacSequence);
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}
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if(RxChar=='t') /* Toggle LED ! */
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if(RxChar == 't') /* Toggle LED ! */
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{
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RcSeq_LaunchShortAction(ToggleLed); /* You can toggle LED during Servo Motion! */
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}
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@@ -187,7 +187,7 @@ char RxChar;
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static void ToggleLed(void)
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{
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static boolean Status=LOW;
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Status=!Status; /* Toggle Status */
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static boolean Status = LOW;
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Status = !Status; /* Toggle Status */
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digitalWrite(LED_PIN, Status);
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}
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}
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@@ -81,11 +81,11 @@ enum {RC_CHANNEL, RC_CHANNEL_NB}; /* Here, as there is a single channel, we coul
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/* Declaration of the custom keyboard": the pulse width of the push buttons do not need to be equidistant */
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enum {PUSH_BUTTON1, PUSH_BUTTON2, PUSH_BUTTON3, PUSH_BUTTON4, PUSH_BUTTON5, PUSH_BUTTON_NBR};
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#define TOLERANCE 40 /* Tolerance +/- (in microseconds): CAUTION, no overlap allowed between 2 adjacent active areas . active area width = 2 x TOLERANCE (us) */
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KeyMap_t CustomKeyboard[] PROGMEM ={ {CENTER_VALUE_US(1100,TOLERANCE)}, /* PUSH_BUTTON1: +/-40 us */
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{CENTER_VALUE_US(1300,TOLERANCE)}, /* PUSH_BUTTON2: +/-40 us */
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{CENTER_VALUE_US(1500,TOLERANCE)}, /* PUSH_BUTTON3: +/-40 us */
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{CENTER_VALUE_US(1700,TOLERANCE)}, /* PUSH_BUTTON4: +/-40 us */
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{CENTER_VALUE_US(1900,TOLERANCE)}, /* PUSH_BUTTON5: +/-40 us */
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const KeyMap_t CustomKeyboard[] PROGMEM ={ {CENTER_VALUE_US(1100,TOLERANCE)}, /* PUSH_BUTTON1: +/-40 us */
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{CENTER_VALUE_US(1300,TOLERANCE)}, /* PUSH_BUTTON2: +/-40 us */
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{CENTER_VALUE_US(1500,TOLERANCE)}, /* PUSH_BUTTON3: +/-40 us */
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{CENTER_VALUE_US(1700,TOLERANCE)}, /* PUSH_BUTTON4: +/-40 us */
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{CENTER_VALUE_US(1900,TOLERANCE)}, /* PUSH_BUTTON5: +/-40 us */
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};
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//==============================================================================================
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@@ -0,0 +1,307 @@
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/*
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This sketch illustrates 2 new features of the <RcSeq> library (since the V2.1 version):
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1) the "control" capability: it's a function passed as argument to the RcSeq_DeclareCommandAndSequence() method.
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It is used to check if a sequence can be launched or not, depending of specific condition
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It is also used to inform the sequence is finished: this can be used to memorize in EEPROM the sequence id.
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Like that, at the next start-up the position of the servos can be restored according to the last position of the sequence.
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2) the "timeout" capability:
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The RcSeq_Timeout() method can be used to check if the command signal remains constant (HIGH or LOW).
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It's then possible to launch the sequence based on the static state of the command pin rather than a Rc Pulse width.
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In practice, it's possible to use both manners to launch a sequence as done in the sketch below.
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THE SKETCH:
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==========
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In this sketch, the first declared sequence opens the 2 doors with the help of 2 servos (1 per door).
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The second declared sequence closes the 2 doors with the help of 2 servos (1 per door).
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The 2 doors cannot open or close simultaneously with the same speed since there is a nosing secured to the right door.
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This nosing forces to open and close the doors using sequences.
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Opening <- -> Opening
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. .
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. .
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. .
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. .
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. .
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. .
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. .
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__ nosing -> .------. __
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/ \----------------'---. '----------------/ \
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\__/-------------------''-------------------\__/
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Left door Right door
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TOP VIEW
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The opening sequence is like hereafter:
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======================================
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1) The servo assigned to the right door starts
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2) Once rigth door slightly opened, the servo assigned to the left door starts, whilst the servo assigned to the right door resumes its travel
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3) Once the 2 servos reached 90°, the 2 doors stop; the opening sequence is finished
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The closing sequence is like hereafter:
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======================================
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1) The 2 servos assigned to the left and right doors start together but the left servo rotates more quickly than the right servo.
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2) As a consequence, the left door is closed berfore the right door
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3) Once the 2 servos reached 90°, the 2 doors stop; the closing sequence is finished
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The sequences of this sketch can be launched either a RC channel either a regular ON/OFF switch:
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===============================================================================================
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A) Command from a RC channel:
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------------------------- _______________
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V _______________ | __ |
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| __________ | ARDUINO: |________| / \ Left |
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| | | | | | \__/ Servo |
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| | RC |CH | UNO | |_______________|
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'-+ Receiver |----| MEGA | _______________
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| | | Digispark | | __ |
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|__________| | Digispark pro |________| / \ Right |
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|_______________| | \__/ Servo |
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|_______________|
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B) Command from a ON/OFF switch:
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---------------------------- _______________
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_______________ | __ |
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| ARDUINO: |________| / \ Left |
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| | | \__/ Servo |
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| UNO | |_______________|
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.----| MEGA | _______________
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| | Digispark | | __ |
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ON/OFF Switch \ | Digispark pro |________| / \ Right |
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| |_______________| | \__/ Servo |
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-+- |_______________|
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GND
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*/
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/*************************************************/
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/* STEP #1: Include the required libraries */
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/*************************************************/
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#include <RcSeq.h>
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#include <TinyPinChange.h>
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#include <SoftRcPulseIn.h>
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#include <SoftRcPulseOut.h>
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#include <EEPROM.h>
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/*****************************************************************/
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/* STEP #2: Enumeration of the RC Signals used in the sequence */
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/*****************************************************************/
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enum {RC_SIGNAL = 0, SIGNAL_NB}; /* Here, a single RC signal is used */
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/******************************************************************/
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/* STEP #3: Enumeration of the different position of the RC stick */
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/******************************************************************/
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enum {RC_PULSE_LEVEL_MINUS_1 = 0, RC_PULSE_LEVEL_PLUS_1, RC_PULSE_NB};
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/*****************************************************************/
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/* STEP #4: Enumeration of the servos used in the sequences */
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/*****************************************************************/
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enum {DOOR_SERVO_LEFT = 0, DOOR_SERVO_RIGHT, SERVO_NB}; /* In this sketch, 2 servos are declared */
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/***************************************************/
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/* STEP #5: Digital pin assignment for Command */
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/***************************************************/
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#define COMMAND_PIN 2 /* This pin can be connected to a channel of a RC Receiver or to a regular ON/OFF switch (switch wired between pin and Ground) */
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/**************************************************/
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/* STEP #6: Digital Pins assignment for Servos */
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/**************************************************/
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#define DOOR_SERVO_LEFT_PIN 3
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#define DOOR_SERVO_RIGHT_PIN 4
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/*************************************************************************************/
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/* STEP #7: Declaration of the angle of the servos for the different motions (in °) */
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/*************************************************************************************/
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#define DOOR_SERVO_OPENED_LEFT_POS 135 /* position of the left Servo when left door is opened */
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#define DOOR_SERVO_CLOSED_LEFT_POS 45 /* position of the left Servo when left door is closed */
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#define DOOR_SERVO_OPENED_RIGHT_POS 45 /* position of the right Servo when right door is opened */
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#define DOOR_SERVO_CLOSED_RIGHT_POS 135 /* position of the right Servo when right door is closed */
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/***************************************************************************************************************************************/
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/* STEP #8: Do a temporal diagram showing the start up and the duration of each motions of each servo */
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/***************************************************************************************************************************************/
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/*
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1) OPENING MOTION OF THE DOORS
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===========================
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All the start up values (time stamp) have as reference the moment of the sequence startup order (t=0).
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1.1 MOTION OF THE LEFT DOOR SERVO FOR OPENING
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=========================================
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Order <---OPENING_DURATION_LEFT_MS--->
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|-----------------------------|--------------------------------|-->Time Axis
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0 OPENING_START_LEFT_MS
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1.2 MOTION OF THE RIGHT DOOR SERVO FOR OPENING
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==========================================
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Order <--------OPENING_DURATION_RIGHT_MS------->
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|-------------------|------------------------------------------|-->Time Axis
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0 OPENING_START_RIGHT_MS
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2) CLOSING MOTION OF THE DOORS
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===========================
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All the start up values (time stamp) have as reference the moment of the sequence startup order (t=0).
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2.1 MOTION OF THE LEFT DOOR SERVO FOR CLOSING
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=========================================
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Order <---CLOSING_DURATION_LEFT_MS--->
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|-------------------|--------------------------------|------------>Time Axis
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0 CLOSING_START_LEFT_MS
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2.2 MOTION OF THE RIGTH DOOR SERVO FOR CLOSING
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==========================================
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Order <--------CLOSING_DURATION_RIGHT_MS------->
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|-------------------|------------------------------------------|-->Time Axis
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0 CLOSING_START_RIGHT_MS
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*/
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/**************************************************************************************************************************************************/
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/* STEP #9: With the help of the temporal diagram, declare start up time, the motion duration of servo and optional delay */
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/**************************************************************************************************************************************************/
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/* Tune below all the motion duration. Do not forget to add a trailer 'UL' for each value to force them in Unsigned Long type */
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#define OPENING_START_LEFT_MS 500UL //This means the left servo motion will be delayed of 500ms AFTER the order
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#define OPENING_DURATION_LEFT_MS 2500UL //The left door motion ends after 500+2500=3s, as the right door
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#define OPENING_START_RIGHT_MS 0UL //Immediate start
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#define OPENING_DURATION_RIGHT_MS 3000UL //The right door motion ends after 3s
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#define CLOSING_START_LEFT_MS 0UL //Immediate start
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#define CLOSING_DURATION_LEFT_MS 3000UL //The left door will be closed BEFORE the right door
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#define CLOSING_START_RIGHT_MS 0UL //Immediate start
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#define CLOSING_DURATION_RIGHT_MS 4000UL //The right door will be closed AFTER the left door
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/********************************************************************************************************************/
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/* STEP #10: Declare here the percentage of motion to be performed at half speed for servo start up and stop */
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/********************************************************************************************************************/
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#define START_STOP_PER_CENT 5 /* Percentage of motion performed at half-speed for starting and stopping the servos (Soft start et Soft stop) */
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/************************************************************************************************************/
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/* STEP #11: Use a "const SequenceSt_t" structure table to declare the servo sequence */
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/* For each table entry, arguments are: */
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/* - Servo Index */
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/* - Initial Servo Position in ° */
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/* - Final Servo Position in ° */
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/* - Motion Start Time Stamp in ms */
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/* - Motion duration in ms between initial and final position */
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/* - Percentage of motion performed at half speed for servo start and servo stop (Soft start and Soft stop) */
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/************************************************************************************************************/
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/* Table describing the motions of the 2 servos for opening the 2 doors */
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const SequenceSt_t OpeningSequence[] PROGMEM = {/* Servo Id , Initial Angle , Final Angle , Delay after order , Motion Duration , Percentage at half speed */
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/* 1st Servo */ MOTION_WITH_SOFT_START_AND_STOP(DOOR_SERVO_LEFT, DOOR_SERVO_CLOSED_LEFT_POS, DOOR_SERVO_OPENED_LEFT_POS, OPENING_START_LEFT_MS, OPENING_DURATION_LEFT_MS, START_STOP_PER_CENT)
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/* 2nd Servo */ MOTION_WITH_SOFT_START_AND_STOP(DOOR_SERVO_RIGHT, DOOR_SERVO_CLOSED_RIGHT_POS, DOOR_SERVO_OPENED_RIGHT_POS, OPENING_START_RIGHT_MS, OPENING_DURATION_RIGHT_MS, START_STOP_PER_CENT)
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};
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/* Table describing the motions of the 2 servos for closing the 2 doors */
|
||||
const SequenceSt_t ClosingSequence[] PROGMEM = {/* Servo Id , Initial Angle , Final Angle , Delai after order , Motion Duration , Percentage at half speed */
|
||||
/* 1st Servo */ MOTION_WITH_SOFT_START_AND_STOP(DOOR_SERVO_LEFT, DOOR_SERVO_OPENED_LEFT_POS, DOOR_SERVO_CLOSED_LEFT_POS, CLOSING_START_LEFT_MS, CLOSING_DURATION_LEFT_MS, START_STOP_PER_CENT)
|
||||
/* 2nd Servo */ MOTION_WITH_SOFT_START_AND_STOP(DOOR_SERVO_RIGHT, DOOR_SERVO_OPENED_RIGHT_POS, DOOR_SERVO_CLOSED_RIGHT_POS, CLOSING_START_RIGHT_MS, CLOSING_DURATION_RIGHT_MS, START_STOP_PER_CENT)
|
||||
};
|
||||
|
||||
enum {COMMAND_OPEN = 0, COMMAND_CLOSE};
|
||||
|
||||
/* GLOBAL VARIABLES */
|
||||
uint8_t LastExecutedSeqIdx;
|
||||
|
||||
void setup()
|
||||
{
|
||||
|
||||
#if !defined(__AVR_ATtiny24__) && !defined(__AVR_ATtiny44__) && !defined(__AVR_ATtiny84__) && !defined(__AVR_ATtiny25__) && !defined(__AVR_ATtiny45__) && !defined(__AVR_ATtiny85__) && !defined(__AVR_ATtiny167__)
|
||||
Serial.begin(9600);
|
||||
Serial.print(F("RcSeq library V"));Serial.print(RcSeq_LibTextVersionRevision());Serial.println(F(" demo: advanced doors sequences"));
|
||||
#endif
|
||||
|
||||
/***************************************************************************/
|
||||
/* STEP #12: Init <RcSeq> library */
|
||||
/***************************************************************************/
|
||||
RcSeq_Init();
|
||||
|
||||
/****************************************************************************************/
|
||||
/* STEP #13: declare the servo command signals with their digital pin number */
|
||||
/****************************************************************************************/
|
||||
RcSeq_DeclareSignal(RC_SIGNAL, COMMAND_PIN);
|
||||
|
||||
/******************************************************************************************/
|
||||
/* STEP #14: declare a stick assigned to the RC signal having RC_PULSE_NB positions */
|
||||
/******************************************************************************************/
|
||||
RcSeq_DeclareStick(RC_SIGNAL, 1000, 2000, RC_PULSE_NB);
|
||||
|
||||
/****************************************************************************************/
|
||||
/* STEP #15: declare the servo command signals with their digital pin number */
|
||||
/****************************************************************************************/
|
||||
RcSeq_DeclareServo(DOOR_SERVO_LEFT, DOOR_SERVO_LEFT_PIN);
|
||||
RcSeq_DeclareServo(DOOR_SERVO_RIGHT, DOOR_SERVO_RIGHT_PIN);
|
||||
|
||||
/*******************************************************************************************************/
|
||||
/* STEP #16: declare the sequence assigned to specific position of the stick assigned to the RC signal */
|
||||
/*******************************************************************************************************/
|
||||
RcSeq_DeclareCommandAndSequence(RC_SIGNAL, RC_PULSE_LEVEL_MINUS_1, RC_SEQUENCE(OpeningSequence), Control); // Declare a sequence triggered by a RC pulse Level Minus 1 (stick at extreme position during at least 250 ms)
|
||||
RcSeq_DeclareCommandAndSequence(RC_SIGNAL, RC_PULSE_LEVEL_PLUS_1, RC_SEQUENCE(ClosingSequence), Control); // Declare a sequence triggered by a RC pulse Level Plus 1 (stick at extreme position during at least 250 ms)
|
||||
|
||||
/*******************************************************************************************/
|
||||
/* STEP #17: Initialize the position of the servos according to the last finished sequence */
|
||||
/*******************************************************************************************/
|
||||
LastExecutedSeqIdx = EEPROM.read(0);
|
||||
if (LastExecutedSeqIdx == COMMAND_OPEN)
|
||||
{
|
||||
RcSeq_ServoWrite(DOOR_SERVO_LEFT, DOOR_SERVO_OPENED_LEFT_POS);
|
||||
RcSeq_ServoWrite(DOOR_SERVO_RIGHT, DOOR_SERVO_OPENED_RIGHT_POS);
|
||||
}
|
||||
else
|
||||
{
|
||||
RcSeq_ServoWrite(DOOR_SERVO_LEFT, DOOR_SERVO_CLOSED_LEFT_POS);
|
||||
RcSeq_ServoWrite(DOOR_SERVO_RIGHT, DOOR_SERVO_CLOSED_RIGHT_POS);
|
||||
}
|
||||
}
|
||||
|
||||
void loop()
|
||||
{
|
||||
uint8_t RcSignalPinState;
|
||||
/****************************************************************************************************************/
|
||||
/* STEP #18: call the refresh function inside the loop() to catch RC commands and to manage the servo positions */
|
||||
/****************************************************************************************************************/
|
||||
RcSeq_Refresh();
|
||||
|
||||
/*********************************************************************************************************/
|
||||
/* STEP #19: optionally, allow launching the Sequences ou Actions on Timeout (cmd with a regular switch) */
|
||||
/*********************************************************************************************************/
|
||||
if (RcSeq_SignalTimeout(RC_SIGNAL, 250, &RcSignalPinState))
|
||||
{
|
||||
/* Launch the"OpeningSequence" sequence if a LOW level is present during at least 250ms: this allows testing the sequence of servo without using a RC set, just using a regular switch */
|
||||
if((LastExecutedSeqIdx == COMMAND_CLOSE) && (RcSignalPinState == LOW))
|
||||
{
|
||||
RcSeq_LaunchSequence(OpeningSequence);
|
||||
}
|
||||
/* Launch the"ClosingSequence" sequence if a HIGH level is present during at least 250ms: this allows testing the sequence of servo without using a RC set, just using a regular switch */
|
||||
if((LastExecutedSeqIdx == COMMAND_OPEN) && (RcSignalPinState == HIGH))
|
||||
{
|
||||
RcSeq_LaunchSequence(ClosingSequence);
|
||||
}
|
||||
}
|
||||
}
|
||||
|
||||
/* The Control() fonction is automatically called by the RcSeq library */
|
||||
uint8_t Control(uint8_t Action, uint8_t SeqIdx)
|
||||
{
|
||||
uint8_t Ret = 0;
|
||||
#if !defined(__AVR_ATtiny24__) && !defined(__AVR_ATtiny44__) && !defined(__AVR_ATtiny84__) && !defined(__AVR_ATtiny25__) && !defined(__AVR_ATtiny45__) && !defined(__AVR_ATtiny85__) && !defined(__AVR_ATtiny167__)
|
||||
Serial.print("Action=");Serial.print(Action);Serial.print(" SeqIdx=");Serial.println(SeqIdx);
|
||||
#endif
|
||||
switch(Action)
|
||||
{
|
||||
case RC_SEQ_START_CONDITION: /* RcSeq asks if the conditions are met to launch the sequence SeqIdx */
|
||||
/* Put here a condition to allow RcSeq launching the sequence SeqIdx (Put Ret=1 if no specific condition) */
|
||||
Ret = (SeqIdx != LastExecutedSeqIdx); /* Allows RcSeq launching the sequence if the sequence to launch is different from the last one */
|
||||
break;
|
||||
|
||||
case RC_SEQ_END_OF_SEQ: /* RcSeq informs the sequence SeqIdx is finished */
|
||||
/* We memorize the last finished sequence id in EEPROM memory. Like that, at next power-up, we will know how to position the servos ( done in the Setup() ) */
|
||||
EEPROM.write(0, SeqIdx);
|
||||
LastExecutedSeqIdx = SeqIdx;
|
||||
break;
|
||||
}
|
||||
return(Ret);
|
||||
}
|
||||
|
||||
@@ -1,7 +1,7 @@
|
||||
#include <RcSeq.h>
|
||||
#include <TinyPinChange.h> /* Ne pas oublier d'inclure la librairie <TinyPinChange> qui est utilisee par la librairie <RcSeq> */
|
||||
#include <SoftRcPulseIn.h> /* Ne pas oublier d'inclure la librairie <SoftRcPulseIn> qui est utilisee par la librairie <RcSeq> */
|
||||
#include <SoftRcPulseOut.h> /* Ne pas oublier d'inclure la librairie <SoftRcPulseOut> qui est utilisee par la librairie <RcSeq> */
|
||||
#include <TinyPinChange.h>
|
||||
#include <SoftRcPulseIn.h>
|
||||
#include <SoftRcPulseOut.h>
|
||||
|
||||
/*
|
||||
IMPORTANT:
|
||||
@@ -25,16 +25,16 @@ enum {RC_VOIE1, RC_VOIE2, RC_VOIE3, NBR_VOIES_RC}; /* Declaration des voies */
|
||||
|
||||
enum {BP1, BP2, NBR_BP}; /* Declaration des Boutons-Poussoirs (On peut aller jusqu'à BP8) */
|
||||
|
||||
enum {POS_MINUS1, POS_PLUS1,NBR_POS}; /* Declaration des positions du Manche on peut aller de POS_MOINS2 à POS_PLUS2 (4 Positions actives Max)*/
|
||||
enum {POS_MINUS1, POS_PLUS1, NBR_POS}; /* Declaration des positions du Manche on peut aller de POS_MOINS2 à POS_PLUS2 (4 Positions actives Max)*/
|
||||
|
||||
|
||||
/* Declaration d'un clavier "Maison": les impulsions des Boutons-Poussoirs n'ont pas besoin d'etre equidistantes */
|
||||
enum {BP_MAISON1, BP_MAISON2, BP_MAISON3, NBR_BP_MAISON};
|
||||
#define TOLERANCE 40 /* Tolerance en + ou en - (en micro-seconde) */
|
||||
KeyMap_t ClavierMaison[] PROGMEM ={ {VALEUR_CENTRALE_US(1100,TOLERANCE)}, /* BP_MAISON1: 1100 +/-40 us */
|
||||
{VALEUR_CENTRALE_US(1300,TOLERANCE)}, /* BP_MAISON2: 1300 +/-40 us */
|
||||
{VALEUR_CENTRALE_US(1700,TOLERANCE)}, /* BP_MAISON3: 1700 +/-40 us */
|
||||
};
|
||||
const KeyMap_t ClavierMaison[] PROGMEM ={ {VALEUR_CENTRALE_US(1100, TOLERANCE)}, /* BP_MAISON1: 1100 +/-40 us */
|
||||
{VALEUR_CENTRALE_US(1300, TOLERANCE)}, /* BP_MAISON2: 1300 +/-40 us */
|
||||
{VALEUR_CENTRALE_US(1700, TOLERANCE)}, /* BP_MAISON3: 1700 +/-40 us */
|
||||
};
|
||||
|
||||
enum {AZIMUT=0, ELEVATION , NBR_SERVO}; /* Delaration de tous les servos, 2 dans cet exemple (On peut déclaer jusqu'à 8 servos) */
|
||||
|
||||
@@ -80,23 +80,23 @@ enum {AZIMUT=0, ELEVATION , NBR_SERVO}; /* Delaration de tous les servos, 2 dans
|
||||
#define DEM_ARRET_POUR_CENT 5 /* Pourcentage du mouvement devant etre effectue a mi-vitesse pour demarrage servo et arret servo (Soft start et Soft stop) */
|
||||
|
||||
/* Declaration de la table de sequence des mouvements des servo et des actions courtes */
|
||||
SequenceSt_t SequenceServoEtActionCourte[] PROGMEM = {
|
||||
ACTION_COURTE_A_EFFECTUER(InverseLed,DEMARRAGE_MONTEE_PONT_HAUT_MS)
|
||||
const SequenceSt_t SequenceServoEtActionCourte[] PROGMEM = {
|
||||
ACTION_COURTE_A_EFFECTUER(InverseLed, DEMARRAGE_MONTEE_PONT_HAUT_MS)
|
||||
/* Montee du Zodiac du pont vers la position haute */
|
||||
MVT_AVEC_DEBUT_ET_FIN_MVT_LENTS(ELEVATION,ELEVATION_POS_PONT,ELEVATION_POS_HAUT,DEMARRAGE_MONTEE_PONT_HAUT_MS,DUREE_MONTEE_PONT_HAUT_MS,DEM_ARRET_POUR_CENT)
|
||||
MVT_AVEC_DEBUT_ET_FIN_MVT_LENTS(ELEVATION, ELEVATION_POS_PONT, ELEVATION_POS_HAUT, DEMARRAGE_MONTEE_PONT_HAUT_MS, DUREE_MONTEE_PONT_HAUT_MS, DEM_ARRET_POUR_CENT)
|
||||
/* Rotation Grue du pont vers la mer */
|
||||
MVT_AVEC_DEBUT_ET_FIN_MVT_LENTS(AZIMUT,AZIMUT_POS_PONT,AZIMUT_POS_MER,DEMARRAGE_ROTATION_PONT_MER_MS,DUREE_ROTATION_PONT_MER_MS,DEM_ARRET_POUR_CENT)
|
||||
MVT_AVEC_DEBUT_ET_FIN_MVT_LENTS(AZIMUT, AZIMUT_POS_PONT, AZIMUT_POS_MER, DEMARRAGE_ROTATION_PONT_MER_MS, DUREE_ROTATION_PONT_MER_MS, DEM_ARRET_POUR_CENT)
|
||||
/* Descente du Zodiac depuis la position haute vers la la mer */
|
||||
MVT_AVEC_DEBUT_ET_FIN_MVT_LENTS(ELEVATION,ELEVATION_POS_HAUT,ELEVATION_POS_MER,DEMARRAGE_DESCENTE_HAUT_MER_MS,DUREE_DESCENTE_HAUT_MER_MS,DEM_ARRET_POUR_CENT)
|
||||
ACTION_COURTE_A_EFFECTUER(InverseLed,DEMARRAGE_DESCENTE_HAUT_MER_MS+DUREE_DESCENTE_HAUT_MER_MS)
|
||||
ACTION_COURTE_A_EFFECTUER(InverseLed,DEMARRAGE_MONTEE_MER_HAUT_MS)
|
||||
MVT_AVEC_DEBUT_ET_FIN_MVT_LENTS(ELEVATION, ELEVATION_POS_HAUT, ELEVATION_POS_MER, DEMARRAGE_DESCENTE_HAUT_MER_MS, DUREE_DESCENTE_HAUT_MER_MS, DEM_ARRET_POUR_CENT)
|
||||
ACTION_COURTE_A_EFFECTUER(InverseLed, DEMARRAGE_DESCENTE_HAUT_MER_MS + DUREE_DESCENTE_HAUT_MER_MS)
|
||||
ACTION_COURTE_A_EFFECTUER(InverseLed, DEMARRAGE_MONTEE_MER_HAUT_MS)
|
||||
/* Montee du Zodiac de la mer vers la position haute */
|
||||
MVT_AVEC_DEBUT_ET_FIN_MVT_LENTS(ELEVATION,ELEVATION_POS_MER,ELEVATION_POS_HAUT,DEMARRAGE_MONTEE_MER_HAUT_MS,DUREE_MONTEE_MER_HAUT_MS,DEM_ARRET_POUR_CENT)
|
||||
MVT_AVEC_DEBUT_ET_FIN_MVT_LENTS(ELEVATION, ELEVATION_POS_MER, ELEVATION_POS_HAUT, DEMARRAGE_MONTEE_MER_HAUT_MS, DUREE_MONTEE_MER_HAUT_MS, DEM_ARRET_POUR_CENT)
|
||||
/* Rotation Grue de la mer vers le pont */
|
||||
MVT_AVEC_DEBUT_ET_FIN_MVT_LENTS(AZIMUT,AZIMUT_POS_MER,AZIMUT_POS_PONT,DEMARRAGE_ROTATION_MER_PONT_MS,DUREE_ROTATION_MER_PONT_MS,DEM_ARRET_POUR_CENT)
|
||||
MVT_AVEC_DEBUT_ET_FIN_MVT_LENTS(AZIMUT, AZIMUT_POS_MER, AZIMUT_POS_PONT, DEMARRAGE_ROTATION_MER_PONT_MS, DUREE_ROTATION_MER_PONT_MS, DEM_ARRET_POUR_CENT)
|
||||
/* Descente du Zodiac de la position haute vers le pont */
|
||||
MVT_AVEC_DEBUT_ET_FIN_MVT_LENTS(ELEVATION,ELEVATION_POS_HAUT,ELEVATION_POS_PONT,DEMARRAGE_DESCENTE_HAUT_PONT_MS,DUREE_DESCENTE_HAUT_PONT_MS,DEM_ARRET_POUR_CENT)
|
||||
ACTION_COURTE_A_EFFECTUER(InverseLed,DEMARRAGE_DESCENTE_HAUT_PONT_MS+DUREE_DESCENTE_HAUT_PONT_MS)
|
||||
MVT_AVEC_DEBUT_ET_FIN_MVT_LENTS(ELEVATION, ELEVATION_POS_HAUT, ELEVATION_POS_PONT, DEMARRAGE_DESCENTE_HAUT_PONT_MS, DUREE_DESCENTE_HAUT_PONT_MS, DEM_ARRET_POUR_CENT)
|
||||
ACTION_COURTE_A_EFFECTUER(InverseLed, DEMARRAGE_DESCENTE_HAUT_PONT_MS + DUREE_DESCENTE_HAUT_PONT_MS)
|
||||
};
|
||||
|
||||
#define LED 13
|
||||
@@ -114,22 +114,22 @@ void setup()
|
||||
RcSeq_DeclareServo(AZIMUT, BROCHE_SIGNAL_SERVO_AZ);
|
||||
|
||||
/* Commande d'une action courte et d'une sequence de servos avec 2 BP du clavier de la VOIE1 */
|
||||
RcSeq_DeclareSignal(RC_VOIE1,BROCHE_SIGNAL_RECEPTEUR_VOIE1);
|
||||
RcSeq_DeclareSignal(RC_VOIE1, BROCHE_SIGNAL_RECEPTEUR_VOIE1);
|
||||
RcSeq_DeclareClavier(RC_VOIE1, 1000, 2000, NBR_BP);
|
||||
RcSeq_DeclareCommandeEtActionCourte(RC_VOIE1, BP1, InverseLed);
|
||||
RcSeq_DeclareCommandeEtSequence(RC_VOIE1, BP2, RC_SEQUENCE(SequenceServoEtActionCourte));
|
||||
RcSeq_DeclareCommandeEtSequence(RC_VOIE1, BP2, RC_SEQUENCE(SequenceServoEtActionCourte), NULL);
|
||||
|
||||
/* Commande d'une action courte et d'une sequence de servos avec le manche de la VOIE2 */
|
||||
RcSeq_DeclareSignal(RC_VOIE2,BROCHE_SIGNAL_RECEPTEUR_VOIE2);
|
||||
RcSeq_DeclareSignal(RC_VOIE2, BROCHE_SIGNAL_RECEPTEUR_VOIE2);
|
||||
RcSeq_DeclareManche(RC_VOIE2, 1000, 2000, NBR_POS);
|
||||
RcSeq_DeclareCommandeEtActionCourte(RC_VOIE2, POS_MINUS1, InverseLed);
|
||||
RcSeq_DeclareCommandeEtSequence(RC_VOIE2, POS_PLUS1, RC_SEQUENCE(SequenceServoEtActionCourte));
|
||||
RcSeq_DeclareCommandeEtSequence(RC_VOIE2, POS_PLUS1, RC_SEQUENCE(SequenceServoEtActionCourte), NULL);
|
||||
|
||||
/* Commande d'une action courte et d'une sequence de servos avec le clavier "maison" de la VOIE3 */
|
||||
RcSeq_DeclareSignal(RC_VOIE3,BROCHE_SIGNAL_RECEPTEUR_VOIE3);
|
||||
RcSeq_DeclareSignal(RC_VOIE3, BROCHE_SIGNAL_RECEPTEUR_VOIE3);
|
||||
RcSeq_DeclareClavierMaison(RC_VOIE3, RC_CLAVIER_MAISON(ClavierMaison));
|
||||
RcSeq_DeclareCommandeEtActionCourte(RC_VOIE3, BP_MAISON1, InverseLed);
|
||||
RcSeq_DeclareCommandeEtSequence(RC_VOIE3, BP_MAISON3, RC_SEQUENCE(SequenceServoEtActionCourte));
|
||||
RcSeq_DeclareCommandeEtSequence(RC_VOIE3, BP_MAISON3, RC_SEQUENCE(SequenceServoEtActionCourte), NULL);
|
||||
|
||||
pinMode(LED, OUTPUT);
|
||||
}
|
||||
@@ -142,13 +142,13 @@ void loop()
|
||||
/* Action associee au BP1 de la VOIE1 ou au manche position basse de la VOIE2 ou au BP_MAISON1 de la VOIE3 */
|
||||
void InverseLed(void)
|
||||
{
|
||||
static uint32_t DebutMs=millis(); /* static, pour conserver l'etat entre 2 appels de la fonction */
|
||||
static boolean Etat=HIGH; /* static, pour conserver l'etat entre 2 appels de la fonction */
|
||||
static uint32_t DebutMs = millis(); /* static, pour conserver l'etat entre 2 appels de la fonction */
|
||||
static boolean Etat = HIGH; /* static, pour conserver l'etat entre 2 appels de la fonction */
|
||||
|
||||
if(millis() - DebutMs >= 500UL) /* Depuis RcSeq V2.0, la tempo inter-commande doit etre geree dans le sketch utilisateur */
|
||||
{
|
||||
DebutMs=millis();
|
||||
DebutMs = millis();
|
||||
digitalWrite(LED, Etat);
|
||||
Etat=!Etat; /* Au prochain appel de InverseLed(), l'etat de la LED sera inverse */
|
||||
Etat = !Etat; /* Au prochain appel de InverseLed(), l'etat de la LED sera inverse */
|
||||
}
|
||||
}
|
||||
|
||||
@@ -32,9 +32,9 @@ Cette sequence utilise:
|
||||
/* ETAPE N°1: Inclure les 4 librairies necessaires */
|
||||
/***************************************************/
|
||||
#include <RcSeq.h>
|
||||
#include <TinyPinChange.h> /* Ne pas oublier d'inclure la librairie <TinyPinChange> qui est utilisee par la librairie <RcSeq> */
|
||||
#include <SoftRcPulseIn.h> /* Ne pas oublier d'inclure la librairie <SoftRcPulseIn> qui est utilisee par la librairie <RcSeq> */
|
||||
#include <SoftRcPulseOut.h> /* Ne pas oublier d'inclure la librairie <SoftRcPulseOut> qui est utilisee par la librairie <RcSeq> */
|
||||
#include <TinyPinChange.h>
|
||||
#include <SoftRcPulseIn.h>
|
||||
#include <SoftRcPulseOut.h>
|
||||
|
||||
/*****************************************************/
|
||||
/* ETAPE N°2: Enumeration des signaux de commande RC */
|
||||
@@ -121,23 +121,23 @@ Ordre <---DUREE_MONTEE_PONT_HAUT_MS--> <--DUREE_ROTATION_PONT_M
|
||||
/* Il est possible d'inclure des actions courtes. Il suffit d'utiliser la macro ACTION_COURTE_A_EFFECTUER() en donnant le nom de la fonction a appeler et le */
|
||||
/* moment ou l'action doit avoir lieu. Dans cet exemple, la LED s'allume pendant que les servos tournent et s'eteint pendant la pause de 6 secondes. */
|
||||
/***************************************************************************************************************************************************************/
|
||||
SequenceSt_t SequencePlus2[] PROGMEM = {
|
||||
ACTION_COURTE_A_EFFECTUER(InverseLed,DEMARRAGE_MONTEE_PONT_HAUT_MS)
|
||||
const SequenceSt_t SequencePlus2[] PROGMEM = {
|
||||
ACTION_COURTE_A_EFFECTUER(InverseLed, DEMARRAGE_MONTEE_PONT_HAUT_MS)
|
||||
/* Montee du Zodiac du pont vers la position haute */
|
||||
MVT_AVEC_DEBUT_ET_FIN_MVT_LENTS(ELEVATION,ELEVATION_POS_PONT,ELEVATION_POS_HAUT,DEMARRAGE_MONTEE_PONT_HAUT_MS,DUREE_MONTEE_PONT_HAUT_MS,DEM_ARRET_POUR_CENT)
|
||||
MVT_AVEC_DEBUT_ET_FIN_MVT_LENTS(ELEVATION, ELEVATION_POS_PONT, ELEVATION_POS_HAUT, DEMARRAGE_MONTEE_PONT_HAUT_MS, DUREE_MONTEE_PONT_HAUT_MS, DEM_ARRET_POUR_CENT)
|
||||
/* Rotation Grue du pont vers la mer */
|
||||
MVT_AVEC_DEBUT_ET_FIN_MVT_LENTS(AZIMUT,AZIMUT_POS_PONT,AZIMUT_POS_MER,DEMARRAGE_ROTATION_PONT_MER_MS,DUREE_ROTATION_PONT_MER_MS,DEM_ARRET_POUR_CENT)
|
||||
MVT_AVEC_DEBUT_ET_FIN_MVT_LENTS(AZIMUT, AZIMUT_POS_PONT, AZIMUT_POS_MER, DEMARRAGE_ROTATION_PONT_MER_MS, DUREE_ROTATION_PONT_MER_MS, DEM_ARRET_POUR_CENT)
|
||||
/* Descente du Zodiac depuis la position haute vers la la mer */
|
||||
MVT_AVEC_DEBUT_ET_FIN_MVT_LENTS(ELEVATION,ELEVATION_POS_HAUT,ELEVATION_POS_MER,DEMARRAGE_DESCENTE_HAUT_MER_MS,DUREE_DESCENTE_HAUT_MER_MS,DEM_ARRET_POUR_CENT)
|
||||
ACTION_COURTE_A_EFFECTUER(InverseLed,DEMARRAGE_DESCENTE_HAUT_MER_MS+DUREE_DESCENTE_HAUT_MER_MS)
|
||||
ACTION_COURTE_A_EFFECTUER(InverseLed,DEMARRAGE_MONTEE_MER_HAUT_MS)
|
||||
MVT_AVEC_DEBUT_ET_FIN_MVT_LENTS(ELEVATION, ELEVATION_POS_HAUT, ELEVATION_POS_MER, DEMARRAGE_DESCENTE_HAUT_MER_MS, DUREE_DESCENTE_HAUT_MER_MS, DEM_ARRET_POUR_CENT)
|
||||
ACTION_COURTE_A_EFFECTUER(InverseLed, DEMARRAGE_DESCENTE_HAUT_MER_MS + DUREE_DESCENTE_HAUT_MER_MS)
|
||||
ACTION_COURTE_A_EFFECTUER(InverseLed, DEMARRAGE_MONTEE_MER_HAUT_MS)
|
||||
/* Montee du Zodiac de la mer vers la position haute */
|
||||
MVT_AVEC_DEBUT_ET_FIN_MVT_LENTS(ELEVATION,ELEVATION_POS_MER,ELEVATION_POS_HAUT,DEMARRAGE_MONTEE_MER_HAUT_MS,DUREE_MONTEE_MER_HAUT_MS,DEM_ARRET_POUR_CENT)
|
||||
MVT_AVEC_DEBUT_ET_FIN_MVT_LENTS(ELEVATION, ELEVATION_POS_MER, ELEVATION_POS_HAUT, DEMARRAGE_MONTEE_MER_HAUT_MS, DUREE_MONTEE_MER_HAUT_MS, DEM_ARRET_POUR_CENT)
|
||||
/* Rotation Grue de la mer vers le pont */
|
||||
MVT_AVEC_DEBUT_ET_FIN_MVT_LENTS(AZIMUT,AZIMUT_POS_MER,AZIMUT_POS_PONT,DEMARRAGE_ROTATION_MER_PONT_MS,DUREE_ROTATION_MER_PONT_MS,DEM_ARRET_POUR_CENT)
|
||||
MVT_AVEC_DEBUT_ET_FIN_MVT_LENTS(AZIMUT, AZIMUT_POS_MER, AZIMUT_POS_PONT, DEMARRAGE_ROTATION_MER_PONT_MS, DUREE_ROTATION_MER_PONT_MS, DEM_ARRET_POUR_CENT)
|
||||
/* Descente du Zodiac de la position haute vers le pont */
|
||||
MVT_AVEC_DEBUT_ET_FIN_MVT_LENTS(ELEVATION,ELEVATION_POS_HAUT,ELEVATION_POS_PONT,DEMARRAGE_DESCENTE_HAUT_PONT_MS,DUREE_DESCENTE_HAUT_PONT_MS,DEM_ARRET_POUR_CENT)
|
||||
ACTION_COURTE_A_EFFECTUER(InverseLed,DEMARRAGE_DESCENTE_HAUT_PONT_MS+DUREE_DESCENTE_HAUT_PONT_MS)
|
||||
MVT_AVEC_DEBUT_ET_FIN_MVT_LENTS(ELEVATION, ELEVATION_POS_HAUT, ELEVATION_POS_PONT, DEMARRAGE_DESCENTE_HAUT_PONT_MS, DUREE_DESCENTE_HAUT_PONT_MS, DEM_ARRET_POUR_CENT)
|
||||
ACTION_COURTE_A_EFFECTUER(InverseLed, DEMARRAGE_DESCENTE_HAUT_PONT_MS + DUREE_DESCENTE_HAUT_PONT_MS)
|
||||
};
|
||||
|
||||
#define LED 13
|
||||
@@ -158,7 +158,7 @@ void setup()
|
||||
/**************************************************************************************/
|
||||
/* ETAPE N°13: declarer le(s) signal(aux) de commande RC avec leur N° de pin digitale */
|
||||
/**************************************************************************************/
|
||||
RcSeq_DeclareSignal(SIGNAL_RC,BROCHE_SIGNAL_RECEPTEUR);
|
||||
RcSeq_DeclareSignal(SIGNAL_RC, BROCHE_SIGNAL_RECEPTEUR);
|
||||
|
||||
/******************************************************************************************/
|
||||
/* ETAPE N°14: que le signal RC est associe a un manche qui a NBR_RC_IMPULSIONS positions */
|
||||
@@ -174,7 +174,7 @@ void setup()
|
||||
/**************************************************************************************************************************/
|
||||
/* ETAPE N°16: declarer le signal de commande de sequence, le niveau du manche, et la sequence ou action courte a appeler */
|
||||
/**************************************************************************************************************************/
|
||||
RcSeq_DeclareCommandeEtSequence(SIGNAL_RC, RC_IMPULSION_NIVEAU_PLUS_2, RC_SEQUENCE(SequencePlus2)); // Voici comment declarer une sequence actionnee par une impulsion Niveau Plus 2 (manche en position extreme pendant au moins 250 ms)
|
||||
RcSeq_DeclareCommandeEtSequence(SIGNAL_RC, RC_IMPULSION_NIVEAU_PLUS_2, RC_SEQUENCE(SequencePlus2), NULL); // Voici comment declarer une sequence actionnee par une impulsion Niveau Plus 2 (manche en position extreme pendant au moins 250 ms)
|
||||
|
||||
pinMode(LED, OUTPUT);
|
||||
RcSeq_DeclareCommandeEtActionCourte(SIGNAL_RC, RC_IMPULSION_NIVEAU_MOINS_1, InverseLed); // Voici comment declarer une action actionnee par une impulsion Niveau Moins 1 (manche en position mi-course pendant au moins 250 ms)
|
||||
|
||||
@@ -30,31 +30,31 @@ enum {RC_VOIE, NBR_VOIES_RC}; /* Ici, comme il n'y a qu'une voie, on aurait pu f
|
||||
/* Declaration d'un clavier "Maison": les impulsions des Boutons-Poussoirs n'ont pas besoin d'etre equidistantes */
|
||||
enum {BP1, BP2, BP3, BP4, BP5, BP6, BP7, BP8, NBR_BP};
|
||||
#define TOLERANCE 40 /* Tolerance en + ou en - (en micro-seconde): ATTENTION, il ne doit pas y avoir recouvrement entre 2 zones actives adjascentes. Zone active = 2 x TOLERANCE (us) */
|
||||
KeyMap_t ClavierMaison[] PROGMEM ={ {VALEUR_CENTRALE_US(1100,TOLERANCE)}, /* BP1: +/-40 us */
|
||||
{VALEUR_CENTRALE_US(1200,TOLERANCE)}, /* BP2: +/-40 us */
|
||||
{VALEUR_CENTRALE_US(1300,TOLERANCE)}, /* BP3: +/-40 us */
|
||||
{VALEUR_CENTRALE_US(1400,TOLERANCE)}, /* BP4: +/-40 us */
|
||||
{VALEUR_CENTRALE_US(1600,TOLERANCE)}, /* BP5: +/-40 us */
|
||||
{VALEUR_CENTRALE_US(1700,TOLERANCE)}, /* BP6: +/-40 us */
|
||||
{VALEUR_CENTRALE_US(1800,TOLERANCE)}, /* BP7: +/-40 us */
|
||||
{VALEUR_CENTRALE_US(1900,TOLERANCE)}, /* BP8: +/-40 us */
|
||||
};
|
||||
const KeyMap_t ClavierMaison[] PROGMEM ={ {VALEUR_CENTRALE_US(1100,TOLERANCE)}, /* BP1: +/-40 us */
|
||||
{VALEUR_CENTRALE_US(1200,TOLERANCE)}, /* BP2: +/-40 us */
|
||||
{VALEUR_CENTRALE_US(1300,TOLERANCE)}, /* BP3: +/-40 us */
|
||||
{VALEUR_CENTRALE_US(1400,TOLERANCE)}, /* BP4: +/-40 us */
|
||||
{VALEUR_CENTRALE_US(1600,TOLERANCE)}, /* BP5: +/-40 us */
|
||||
{VALEUR_CENTRALE_US(1700,TOLERANCE)}, /* BP6: +/-40 us */
|
||||
{VALEUR_CENTRALE_US(1800,TOLERANCE)}, /* BP7: +/-40 us */
|
||||
{VALEUR_CENTRALE_US(1900,TOLERANCE)}, /* BP8: +/-40 us */
|
||||
};
|
||||
|
||||
//==============================================================================================
|
||||
/* Astuce: une macro pour n'ecrire qu'une seule fois la fonction ActionX() */
|
||||
#define DECLARE_ACTION(Idx) \
|
||||
void Action##Idx(void) \
|
||||
{ \
|
||||
static uint32_t DebutMs=millis(); \
|
||||
static boolean Etat=HIGH; \
|
||||
static uint32_t DebutMs = millis(); \
|
||||
static boolean Etat = HIGH; \
|
||||
/* Depuis la version 2.0 de la lib <RcSeq>, pour */ \
|
||||
/* des raisons de reactivite, la tempo inter-commande */ \
|
||||
/* doit etre geree dans le sketch utilisateur. */ \
|
||||
if(millis() - DebutMs >= 500UL) \
|
||||
{ \
|
||||
DebutMs=millis(); \
|
||||
DebutMs = millis(); \
|
||||
digitalWrite(Idx, Etat); \
|
||||
Etat=!Etat; \
|
||||
Etat = !Etat; \
|
||||
} \
|
||||
}
|
||||
|
||||
|
||||
Reference in New Issue
Block a user