void receive(const MyMessage &message)
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@pjr Thanks for the hint.
I believe I have what I need now, will be testing tomorrow I hope.
Essentially I have reduced void loop() and void receive() down to minimum so the program loops very fast. This way it only calls other void () routines as needed.
@skywatch Hmmmm....It didn't work as I expected.
So if I have a loop with a 'while' routine running, what do I need to do in the 'while' code to check if any messages have arrived?
something ike.....
while (MOVING_UP == true && stepcount < BLIND_UP) {
Do code to turn stepper motor.
Check for radio message.
Act on radio message (if there is one)
Check for button press.
Act on button press (if there is one)
update step count
}The buttons and motor I have working, its just that radio messages are currently 'blocked' during the while loop and this isn't good if an emergency stop call is required.
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@skywatch Hmmmm....It didn't work as I expected.
So if I have a loop with a 'while' routine running, what do I need to do in the 'while' code to check if any messages have arrived?
something ike.....
while (MOVING_UP == true && stepcount < BLIND_UP) {
Do code to turn stepper motor.
Check for radio message.
Act on radio message (if there is one)
Check for button press.
Act on button press (if there is one)
update step count
}The buttons and motor I have working, its just that radio messages are currently 'blocked' during the while loop and this isn't good if an emergency stop call is required.
@skywatch I think you're looking for the wait() function. https://www.mysensors.org/download/sensor_api_20#waiting
Or _process() but that's an internal function so it might not be as well documented and might undergo changes that aren't mentioned in release notes in future releases.
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@skywatch I think you're looking for the wait() function. https://www.mysensors.org/download/sensor_api_20#waiting
Or _process() but that's an internal function so it might not be as well documented and might undergo changes that aren't mentioned in release notes in future releases.
@mfalkvidd I was just about to say something on that! - you just beat me too it! ;)
I understand the wait(), but what I have no clue of is how long should a wait() be to get incomming messages? -- Would wait(25); be enough?
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@mfalkvidd I was just about to say something on that! - you just beat me too it! ;)
I understand the wait(), but what I have no clue of is how long should a wait() be to get incomming messages? -- Would wait(25); be enough?
@skywatch it depends a bit on which platform you are using, the clock speed you are using, how often wait is called, how busy your network is, which transport you are using and how much packet loss you are willing to accept. But 25 should work.
I found transportProcess() which is called without any parameters. You can use that instead.
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@skywatch it depends a bit on which platform you are using, the clock speed you are using, how often wait is called, how busy your network is, which transport you are using and how much packet loss you are willing to accept. But 25 should work.
I found transportProcess() which is called without any parameters. You can use that instead.
@mfalkvidd pro mini @ 16MHz - I didn't mention that as I was looking at it as purely a programming issue....doh!
So are you saying that if I simply put transportProcess() in the while statement it will pause the while loop, check for any messages from the nrf24 and then resume the while loop? Of so, that should work if it is quick.
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@mfalkvidd I was just about to say something on that! - you just beat me too it! ;)
I understand the wait(), but what I have no clue of is how long should a wait() be to get incomming messages? -- Would wait(25); be enough?
@skywatch said in void receive(const MyMessage &message):
I understand the wait(), but what I have no clue of is how long should a wait() be to get incomming messages? -- Would wait(25); be enough?
Just wait as short as possible, 1ms or even 0 (not sure if that is supported).
It allows the stack to process any queued messages and returns as quickly as possible.
There is no need to wait for a longer time, as radios will queue incoming messages in hardware. The actual number of messages that can be queued depends on the radio used; for nrf24 it is 3. -
@mfalkvidd I tried with transportProcess() and it seemed to work well initially, but then something happened (probably HW related) so it is looking promising.
@Yveaux Thank you for the tip :)
I will try this next and see how much of a difference it makes -would wait(1); be better in any way to calling transportProcess()?
But at least it looks like the system might operate as I had intended, hurrah! ;)
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@mfalkvidd I tried with transportProcess() and it seemed to work well initially, but then something happened (probably HW related) so it is looking promising.
@Yveaux Thank you for the tip :)
I will try this next and see how much of a difference it makes -would wait(1); be better in any way to calling transportProcess()?
But at least it looks like the system might operate as I had intended, hurrah! ;)
@skywatch said in void receive(const MyMessage &message):
would wait(1); be better in any way to calling transportProcess()?
Definately! transportProcess() is a library internal call, which might change without notice or has side effects one cannot oversee. Wait() is an external api call, which won't change without notice, and is documented.
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@skywatch said in void receive(const MyMessage &message):
would wait(1); be better in any way to calling transportProcess()?
Definately! transportProcess() is a library internal call, which might change without notice or has side effects one cannot oversee. Wait() is an external api call, which won't change without notice, and is documented.
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@skywatch said in void receive(const MyMessage &message):
I understand the wait(), but what I have no clue of is how long should a wait() be to get incomming messages? -- Would wait(25); be enough?
Just wait as short as possible, 1ms or even 0 (not sure if that is supported).
It allows the stack to process any queued messages and returns as quickly as possible.
There is no need to wait for a longer time, as radios will queue incoming messages in hardware. The actual number of messages that can be queued depends on the radio used; for nrf24 it is 3.There is a slight risk that wait() will return immediately without processing messages, if the parameter is lower than the increment of millis(). The increment of millis() depends on platform and clock speed. I am not sure if this risk is big enough that it needs to be considered.
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Thank you both for the help - much appreciated.
So I went with wait(1); and then only called it every 250 steps as otherwise it was slowing things down too much. It seems pretty reliable at the moment, but I do have dodgy duponts so have to sort them out next!
One thing I do see is this......
352968 !MCO:WAI:RC=3 352971 !MCO:WAI:RC=3 352974 !MCO:WAI:RC=3 352977 !MCO:WAI:RC=3 352980 !MCO:WAI:RC=3 352984 !MCO:WAI:RC=3 352987 !MCO:WAI:RC=3 352990 !MCO:WAI:RC=3Not always, but sometimes.....what is this trying to tell me and where do I look to fix it - I can post full code if you like, but it's not for the faint of heart;)
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Thank you both for the help - much appreciated.
So I went with wait(1); and then only called it every 250 steps as otherwise it was slowing things down too much. It seems pretty reliable at the moment, but I do have dodgy duponts so have to sort them out next!
One thing I do see is this......
352968 !MCO:WAI:RC=3 352971 !MCO:WAI:RC=3 352974 !MCO:WAI:RC=3 352977 !MCO:WAI:RC=3 352980 !MCO:WAI:RC=3 352984 !MCO:WAI:RC=3 352987 !MCO:WAI:RC=3 352990 !MCO:WAI:RC=3Not always, but sometimes.....what is this trying to tell me and where do I look to fix it - I can post full code if you like, but it's not for the faint of heart;)
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@skywatch those messages mean that wait is being called from within wait. That is usually bad, so MySensors prints a warning message. Could you post your code?
@mfalkvidd Here is the code - remember it is in development and some things are currently commented out to concentrate on the places where I have issues.
/* Solar Powered Roller Blind - Landing Pin Assignments..... 5V pro mini D2 Down Button. D3 Up Button. D4,D5,D6,D7 for stepper motor. 12V D8 Power fail detect? -and write stepcount to eeprom D9,D10,D11,D12,D13 for NRF24L01+. 3.3V A0 UP LIMIT magnet sensor. A1 DOWN LIMIT magnet sensor. A2 Window Sensor. A3 FREE A4 ATSHA204a. A5 Battery Voltage Sensor. A6 FREE - input only A7 FREE - input only */ #define MY_DEBUG #define MY_RADIO_RF24 #define MY_RF24_PA_LEVEL RF24_PA_HIGH #define MY_NODE_ID 181 #define MY_RF24_CHANNEL (97) #define MY_PARENT_NODE_ID 0 #define MY_PARENT_NODE_IS_STATIC //#define MY_REPEATER_FEATURE //#define MY_SIGNING_ATSHA204 //#define MY_SIGNING_REQUEST_SIGNATURES //#define MY_SIGNING_SOFT //#define MY_SIGNING_SIMPLE_PASSWD #include <MySensors.h> #include <Stepper.h> #include <Bounce2.h> // define number of steps per revolution #define STEPS 32 // define stepper motor control pins #define IN1 7 #define IN2 6 #define IN3 5 #define IN4 4 #define EEPROM_STEPCOUNT_ADDRESS 0 #define BLIND_UP 39500 //******** #define BLIND_DOWN 100 //******** //#define LIMIT_UP A0 //#define LIMIT_DOWN A1 #define DOWN_BUTTON 2 #define UP_BUTTON 3 #define WINDOW_SENSOR A2 //#define VOLTMETER A5 #define CHILD_ID_LANDING_BLIND 0 //#define CHILD_ID_BATTERY 1 #define CHILD_ID_LANDING_WINDOW 2 #define CHILD_ID_LANDING_ALARM 3 //float battery = 0.0; //unsigned long BattSendDelay = 10800000; unsigned long previousMillis = 0; unsigned long previousButtonMillis = 0; unsigned long ButtonMillis = 5000; unsigned long stepcount = BLIND_UP; //******Blind UP for CAL.... unsigned long laststepcount = BLIND_UP; unsigned long upspeed = 900; int upstep = 5; int downstep = -1; int oldValue=-1; bool MOVING_UP = false; bool MOVING_DOWN = false; bool ALARM_ARMED = false; bool ALARM_TRIPPED = false; Bounce debouncerUP = Bounce(); Bounce debouncerDOWN = Bounce(); Bounce debouncerWINDOW = Bounce(); // initialize stepper library Stepper stepper(STEPS, IN4, IN2, IN3, IN1); MyMessage msgB_UP(CHILD_ID_LANDING_BLIND, V_UP); MyMessage msgB_DOWN(CHILD_ID_LANDING_BLIND, V_DOWN); MyMessage msgB_STOP(CHILD_ID_LANDING_BLIND, V_STOP); //MyMessage msgBBattery(CHILD_ID_LANDING_BLIND, V_VOLTAGE); //MyMessage msgB_PERCENTAGE(CHILD_ID_LANDING_BLIND, V_PERCENTAGE); MyMessage msgB_ALARM(CHILD_ID_LANDING_WINDOW, V_TRIPPED); MyMessage msgB_WINDOW(CHILD_ID_LANDING_WINDOW, V_TRIPPED); void setup() { Serial.begin(115200); pinMode(DOWN_BUTTON, INPUT_PULLUP); pinMode(UP_BUTTON, INPUT_PULLUP); //pinMode(LIMIT_UP, INPUT_PULLUP); //pinMode(LIMIT_DOWN, INPUT_PULLUP); pinMode(WINDOW_SENSOR, INPUT_PULLUP); //pinMode(VOLTMETER, INPUT); debouncerUP.attach(UP_BUTTON); debouncerUP.interval(25); debouncerDOWN.attach(DOWN_BUTTON); debouncerDOWN.interval(25); debouncerWINDOW.attach(WINDOW_SENSOR); debouncerWINDOW.interval(25); //**** Comment next line after first upload - inital calibration only.... hwWriteConfigBlock((void*)&stepcount, (void*)(EEPROM_LOCAL_CONFIG_ADDRESS + EEPROM_STEPCOUNT_ADDRESS), 4); //saveStepcount - Use once to set 'memory'. Then reflash with this commented out. hwReadConfigBlock((void*)&stepcount, (void*)(EEPROM_LOCAL_CONFIG_ADDRESS + EEPROM_STEPCOUNT_ADDRESS), 4); // Get from EEPROM last position. digitalWrite(IN1, LOW); digitalWrite(IN2, LOW); digitalWrite(IN3, LOW); digitalWrite(IN4, LOW); } void presentation() { sendSketchInfo("MYS-Landing Blind", "0.4"); wait(150); present(CHILD_ID_LANDING_BLIND, S_COVER, "Landing-Blind", true); // present(CHILD_ID_BATTERY, S_MULTIMETER, "Battery", true); wait(200); present(CHILD_ID_LANDING_ALARM, S_BINARY, "Landing-Alarm", true); wait(200); present(CHILD_ID_LANDING_WINDOW, S_BINARY, "Landing-Window", true); //long batterytemp = (readVcc()); //float batteryf = (float) batterytemp; //battery = batteryf/1000.0; //send(msgBBattery.set(battery,2),true); } void loop() { // move the blind UP debouncerUP.update(); if (debouncerUP.fell() || MOVING_UP == true) { MOVING_UP = true; UP(); } // move the blind DOWN debouncerDOWN.update(); if (debouncerDOWN.fell() || MOVING_DOWN == true) { MOVING_DOWN = true; DOWN(); } //Manual calibration call if (debouncerUP.fell() && debouncerDOWN.fell()){ previousButtonMillis = millis(); while (millis() - previousButtonMillis < ButtonMillis){ debouncerUP.update(); debouncerDOWN.update(); if (debouncerUP.rose() || debouncerDOWN.rose()){ break; } } } else calibrate(); debouncerWINDOW.update(); if (debouncerWINDOW.rose() && ALARM_ARMED == true){ send(msgB_ALARM.set(ALARM_TRIPPED = 0), true); } if (debouncerWINDOW.fell() && ALARM_ARMED == true){ send(msgB_ALARM.set(ALARM_TRIPPED = 1), true); } // debouncer.update(); // Send window update... int value = debouncerWINDOW.read(); if (value != oldValue) { // Send in the new value send(msgB_WINDOW.set(value==HIGH ? 1 : 0)); oldValue = value; } //Read and send battery every 3 hours /* if (millis() - previousMillis >= BattSendDelay) { previousMillis = millis(); long batterytemp = (readVcc()); float batteryf = (float) batterytemp; battery = batteryf/1000.0; //float batteryraw = digitalRead(VOLTMETER); //add calibration here..... send(msgBBattery.set(battery,2),true); }*/ //!!!!! NO SLEEPING !!!!! ;) } void receive(const MyMessage &message) { // STOP - if message == V_STOP, stop blinds immediately. if (message.type == V_STOP) { stop(); } // UP - if message == V_UP call void UP() if (message.type == V_UP) { MOVING_UP = true; UP(); } // DOWN - if message == V_DOWN call void DOWN() if (message.type == V_DOWN) { MOVING_DOWN = true; DOWN(); } //Add if (message.type==V_PERCENTAGE); and add calculation....maybe? // for reference 1% == 395 steps.... } void stop() { digitalWrite(IN1, LOW); digitalWrite(IN2, LOW); digitalWrite(IN3, LOW); digitalWrite(IN4, LOW); send(msgB_STOP.set(stepcount), true); MOVING_UP = false; MOVING_DOWN = false; hwWriteConfigBlock((void*)&stepcount, (void*)(EEPROM_LOCAL_CONFIG_ADDRESS + EEPROM_STEPCOUNT_ADDRESS), 4); wait(100); } void UP() { //If already in motion then stop and reverse direction. if (MOVING_DOWN == true) { stop(); MOVING_UP = true; } // test if already up here!!!! - if not recall stepcount and calulate number of steps required. while (MOVING_UP == true && stepcount < BLIND_UP) { //&& LIMIT_UP == HIGH) // set motor speed if (stepcount >= 20000) { upspeed = 1000; } if (stepcount >= (BLIND_UP - 50)) { upstep = 1; } stepper.setSpeed(upspeed); //higher speed = lower torque... // move the motor (x steps) stepper.step(upstep); stepcount = stepcount + upstep; // Serial.println("UP-StepCount = " + (String)stepcount); // } //Test if manual stop. debouncerDOWN.update(); if (debouncerDOWN.fell()) { stop(); } //Add time limit for safety? //up timeout message? //Test if at end of travel. if (stepcount == BLIND_UP) { // || digitalRead(LIMIT_UP) == LOW) stop(); downstep = -1; break; } //Check for incomming radio message at frequent intervals. if(stepcount > laststepcount + 500){ laststepcount = stepcount; wait(1); //allows RX function. } } } void DOWN() { //If already in motion then stop and reverse direction. if (MOVING_UP == true) { stop(); MOVING_DOWN = true; } //Check if window open debouncerWINDOW.update(); //Do not close if window is open or already closed. while (MOVING_DOWN == true && stepcount > BLIND_DOWN && debouncerWINDOW.read() == LOW)// && digitalRead(WINDOW_SENSOR) == LOW && LIMIT_DOWN == HIGH) { stepper.setSpeed(1200); //higher speed = lower torque... if (stepcount <= (BLIND_UP-500) && stepcount > 150) { downstep = -5; } if (stepcount <= 150) { downstep = -1; } // move the motor (x steps) stepper.step(downstep); stepcount = stepcount + downstep; //Serial.println("DOWN-StepCount = " + (String)stepcount); //} //Test if manual stop. debouncerUP.update(); if (debouncerUP.fell()) { stop(); } //Test if at end of travel. if (stepcount == BLIND_DOWN) { // || digitalRead(LIMIT_DOWN) == LOW) -- maybe add timer as well? stop(); upstep = 5; upspeed = 900; break; } //Check for incomming radio message at frequent intervals. if(stepcount < laststepcount - 500){ laststepcount = stepcount; wait(1); //allows RX function. } } debouncerWINDOW.update(); } void calibrate() { //Move fully up or down and set stepcounter. - From controller, buttons or if position is unknown..... } /* long readVcc() { // Read 1.1V reference against AVcc // set the reference to Vcc and the measurement to the internal 1.1V reference ADMUX = _BV(REFS0) | _BV(MUX3) | _BV(MUX2) | _BV(MUX1); wait(5); // Wait for Vref to settle ADCSRA |= _BV(ADSC); // Start conversion while (bit_is_set(ADCSRA,ADSC)); // measuring uint8_t low = ADCL; // must read ADCL first - it then locks ADCH uint8_t high = ADCH; // unlocks both long result = (high<<8) | low; result = 1125300L / result; // Calculate Vcc (in mV); 1125300 = 1.1*1023*1000 return result; // Vcc in millivolts }*/It works like this......
Pressing up or down button will move the blind up or down depending on window sensor status (I don't want blinds to close with the window open)......
Whilst blind is in motion pressing button corresponding to the opposite direction will stop the blind and save position to eeprom.
Pressing both buttons at the same time for more than 5 seconds will call a self calibration routine.
At any point the controller should be able to send a message to the blinds to move or stop. This now happens even whilst the blind is in motion, which is what I thought to be the best option.
Every time the stop is called the position is saved to eeprom so that in the event of power interruption it will know where it last was.
Maybe I need to re-think the whole approach to this, but it is annoyingly close to what I would like now ;)
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@mfalkvidd Here is the code - remember it is in development and some things are currently commented out to concentrate on the places where I have issues.
/* Solar Powered Roller Blind - Landing Pin Assignments..... 5V pro mini D2 Down Button. D3 Up Button. D4,D5,D6,D7 for stepper motor. 12V D8 Power fail detect? -and write stepcount to eeprom D9,D10,D11,D12,D13 for NRF24L01+. 3.3V A0 UP LIMIT magnet sensor. A1 DOWN LIMIT magnet sensor. A2 Window Sensor. A3 FREE A4 ATSHA204a. A5 Battery Voltage Sensor. A6 FREE - input only A7 FREE - input only */ #define MY_DEBUG #define MY_RADIO_RF24 #define MY_RF24_PA_LEVEL RF24_PA_HIGH #define MY_NODE_ID 181 #define MY_RF24_CHANNEL (97) #define MY_PARENT_NODE_ID 0 #define MY_PARENT_NODE_IS_STATIC //#define MY_REPEATER_FEATURE //#define MY_SIGNING_ATSHA204 //#define MY_SIGNING_REQUEST_SIGNATURES //#define MY_SIGNING_SOFT //#define MY_SIGNING_SIMPLE_PASSWD #include <MySensors.h> #include <Stepper.h> #include <Bounce2.h> // define number of steps per revolution #define STEPS 32 // define stepper motor control pins #define IN1 7 #define IN2 6 #define IN3 5 #define IN4 4 #define EEPROM_STEPCOUNT_ADDRESS 0 #define BLIND_UP 39500 //******** #define BLIND_DOWN 100 //******** //#define LIMIT_UP A0 //#define LIMIT_DOWN A1 #define DOWN_BUTTON 2 #define UP_BUTTON 3 #define WINDOW_SENSOR A2 //#define VOLTMETER A5 #define CHILD_ID_LANDING_BLIND 0 //#define CHILD_ID_BATTERY 1 #define CHILD_ID_LANDING_WINDOW 2 #define CHILD_ID_LANDING_ALARM 3 //float battery = 0.0; //unsigned long BattSendDelay = 10800000; unsigned long previousMillis = 0; unsigned long previousButtonMillis = 0; unsigned long ButtonMillis = 5000; unsigned long stepcount = BLIND_UP; //******Blind UP for CAL.... unsigned long laststepcount = BLIND_UP; unsigned long upspeed = 900; int upstep = 5; int downstep = -1; int oldValue=-1; bool MOVING_UP = false; bool MOVING_DOWN = false; bool ALARM_ARMED = false; bool ALARM_TRIPPED = false; Bounce debouncerUP = Bounce(); Bounce debouncerDOWN = Bounce(); Bounce debouncerWINDOW = Bounce(); // initialize stepper library Stepper stepper(STEPS, IN4, IN2, IN3, IN1); MyMessage msgB_UP(CHILD_ID_LANDING_BLIND, V_UP); MyMessage msgB_DOWN(CHILD_ID_LANDING_BLIND, V_DOWN); MyMessage msgB_STOP(CHILD_ID_LANDING_BLIND, V_STOP); //MyMessage msgBBattery(CHILD_ID_LANDING_BLIND, V_VOLTAGE); //MyMessage msgB_PERCENTAGE(CHILD_ID_LANDING_BLIND, V_PERCENTAGE); MyMessage msgB_ALARM(CHILD_ID_LANDING_WINDOW, V_TRIPPED); MyMessage msgB_WINDOW(CHILD_ID_LANDING_WINDOW, V_TRIPPED); void setup() { Serial.begin(115200); pinMode(DOWN_BUTTON, INPUT_PULLUP); pinMode(UP_BUTTON, INPUT_PULLUP); //pinMode(LIMIT_UP, INPUT_PULLUP); //pinMode(LIMIT_DOWN, INPUT_PULLUP); pinMode(WINDOW_SENSOR, INPUT_PULLUP); //pinMode(VOLTMETER, INPUT); debouncerUP.attach(UP_BUTTON); debouncerUP.interval(25); debouncerDOWN.attach(DOWN_BUTTON); debouncerDOWN.interval(25); debouncerWINDOW.attach(WINDOW_SENSOR); debouncerWINDOW.interval(25); //**** Comment next line after first upload - inital calibration only.... hwWriteConfigBlock((void*)&stepcount, (void*)(EEPROM_LOCAL_CONFIG_ADDRESS + EEPROM_STEPCOUNT_ADDRESS), 4); //saveStepcount - Use once to set 'memory'. Then reflash with this commented out. hwReadConfigBlock((void*)&stepcount, (void*)(EEPROM_LOCAL_CONFIG_ADDRESS + EEPROM_STEPCOUNT_ADDRESS), 4); // Get from EEPROM last position. digitalWrite(IN1, LOW); digitalWrite(IN2, LOW); digitalWrite(IN3, LOW); digitalWrite(IN4, LOW); } void presentation() { sendSketchInfo("MYS-Landing Blind", "0.4"); wait(150); present(CHILD_ID_LANDING_BLIND, S_COVER, "Landing-Blind", true); // present(CHILD_ID_BATTERY, S_MULTIMETER, "Battery", true); wait(200); present(CHILD_ID_LANDING_ALARM, S_BINARY, "Landing-Alarm", true); wait(200); present(CHILD_ID_LANDING_WINDOW, S_BINARY, "Landing-Window", true); //long batterytemp = (readVcc()); //float batteryf = (float) batterytemp; //battery = batteryf/1000.0; //send(msgBBattery.set(battery,2),true); } void loop() { // move the blind UP debouncerUP.update(); if (debouncerUP.fell() || MOVING_UP == true) { MOVING_UP = true; UP(); } // move the blind DOWN debouncerDOWN.update(); if (debouncerDOWN.fell() || MOVING_DOWN == true) { MOVING_DOWN = true; DOWN(); } //Manual calibration call if (debouncerUP.fell() && debouncerDOWN.fell()){ previousButtonMillis = millis(); while (millis() - previousButtonMillis < ButtonMillis){ debouncerUP.update(); debouncerDOWN.update(); if (debouncerUP.rose() || debouncerDOWN.rose()){ break; } } } else calibrate(); debouncerWINDOW.update(); if (debouncerWINDOW.rose() && ALARM_ARMED == true){ send(msgB_ALARM.set(ALARM_TRIPPED = 0), true); } if (debouncerWINDOW.fell() && ALARM_ARMED == true){ send(msgB_ALARM.set(ALARM_TRIPPED = 1), true); } // debouncer.update(); // Send window update... int value = debouncerWINDOW.read(); if (value != oldValue) { // Send in the new value send(msgB_WINDOW.set(value==HIGH ? 1 : 0)); oldValue = value; } //Read and send battery every 3 hours /* if (millis() - previousMillis >= BattSendDelay) { previousMillis = millis(); long batterytemp = (readVcc()); float batteryf = (float) batterytemp; battery = batteryf/1000.0; //float batteryraw = digitalRead(VOLTMETER); //add calibration here..... send(msgBBattery.set(battery,2),true); }*/ //!!!!! NO SLEEPING !!!!! ;) } void receive(const MyMessage &message) { // STOP - if message == V_STOP, stop blinds immediately. if (message.type == V_STOP) { stop(); } // UP - if message == V_UP call void UP() if (message.type == V_UP) { MOVING_UP = true; UP(); } // DOWN - if message == V_DOWN call void DOWN() if (message.type == V_DOWN) { MOVING_DOWN = true; DOWN(); } //Add if (message.type==V_PERCENTAGE); and add calculation....maybe? // for reference 1% == 395 steps.... } void stop() { digitalWrite(IN1, LOW); digitalWrite(IN2, LOW); digitalWrite(IN3, LOW); digitalWrite(IN4, LOW); send(msgB_STOP.set(stepcount), true); MOVING_UP = false; MOVING_DOWN = false; hwWriteConfigBlock((void*)&stepcount, (void*)(EEPROM_LOCAL_CONFIG_ADDRESS + EEPROM_STEPCOUNT_ADDRESS), 4); wait(100); } void UP() { //If already in motion then stop and reverse direction. if (MOVING_DOWN == true) { stop(); MOVING_UP = true; } // test if already up here!!!! - if not recall stepcount and calulate number of steps required. while (MOVING_UP == true && stepcount < BLIND_UP) { //&& LIMIT_UP == HIGH) // set motor speed if (stepcount >= 20000) { upspeed = 1000; } if (stepcount >= (BLIND_UP - 50)) { upstep = 1; } stepper.setSpeed(upspeed); //higher speed = lower torque... // move the motor (x steps) stepper.step(upstep); stepcount = stepcount + upstep; // Serial.println("UP-StepCount = " + (String)stepcount); // } //Test if manual stop. debouncerDOWN.update(); if (debouncerDOWN.fell()) { stop(); } //Add time limit for safety? //up timeout message? //Test if at end of travel. if (stepcount == BLIND_UP) { // || digitalRead(LIMIT_UP) == LOW) stop(); downstep = -1; break; } //Check for incomming radio message at frequent intervals. if(stepcount > laststepcount + 500){ laststepcount = stepcount; wait(1); //allows RX function. } } } void DOWN() { //If already in motion then stop and reverse direction. if (MOVING_UP == true) { stop(); MOVING_DOWN = true; } //Check if window open debouncerWINDOW.update(); //Do not close if window is open or already closed. while (MOVING_DOWN == true && stepcount > BLIND_DOWN && debouncerWINDOW.read() == LOW)// && digitalRead(WINDOW_SENSOR) == LOW && LIMIT_DOWN == HIGH) { stepper.setSpeed(1200); //higher speed = lower torque... if (stepcount <= (BLIND_UP-500) && stepcount > 150) { downstep = -5; } if (stepcount <= 150) { downstep = -1; } // move the motor (x steps) stepper.step(downstep); stepcount = stepcount + downstep; //Serial.println("DOWN-StepCount = " + (String)stepcount); //} //Test if manual stop. debouncerUP.update(); if (debouncerUP.fell()) { stop(); } //Test if at end of travel. if (stepcount == BLIND_DOWN) { // || digitalRead(LIMIT_DOWN) == LOW) -- maybe add timer as well? stop(); upstep = 5; upspeed = 900; break; } //Check for incomming radio message at frequent intervals. if(stepcount < laststepcount - 500){ laststepcount = stepcount; wait(1); //allows RX function. } } debouncerWINDOW.update(); } void calibrate() { //Move fully up or down and set stepcounter. - From controller, buttons or if position is unknown..... } /* long readVcc() { // Read 1.1V reference against AVcc // set the reference to Vcc and the measurement to the internal 1.1V reference ADMUX = _BV(REFS0) | _BV(MUX3) | _BV(MUX2) | _BV(MUX1); wait(5); // Wait for Vref to settle ADCSRA |= _BV(ADSC); // Start conversion while (bit_is_set(ADCSRA,ADSC)); // measuring uint8_t low = ADCL; // must read ADCL first - it then locks ADCH uint8_t high = ADCH; // unlocks both long result = (high<<8) | low; result = 1125300L / result; // Calculate Vcc (in mV); 1125300 = 1.1*1023*1000 return result; // Vcc in millivolts }*/It works like this......
Pressing up or down button will move the blind up or down depending on window sensor status (I don't want blinds to close with the window open)......
Whilst blind is in motion pressing button corresponding to the opposite direction will stop the blind and save position to eeprom.
Pressing both buttons at the same time for more than 5 seconds will call a self calibration routine.
At any point the controller should be able to send a message to the blinds to move or stop. This now happens even whilst the blind is in motion, which is what I thought to be the best option.
Every time the stop is called the position is saved to eeprom so that in the event of power interruption it will know where it last was.
Maybe I need to re-think the whole approach to this, but it is annoyingly close to what I would like now ;)
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@mfalkvidd Here is the code - remember it is in development and some things are currently commented out to concentrate on the places where I have issues.
/* Solar Powered Roller Blind - Landing Pin Assignments..... 5V pro mini D2 Down Button. D3 Up Button. D4,D5,D6,D7 for stepper motor. 12V D8 Power fail detect? -and write stepcount to eeprom D9,D10,D11,D12,D13 for NRF24L01+. 3.3V A0 UP LIMIT magnet sensor. A1 DOWN LIMIT magnet sensor. A2 Window Sensor. A3 FREE A4 ATSHA204a. A5 Battery Voltage Sensor. A6 FREE - input only A7 FREE - input only */ #define MY_DEBUG #define MY_RADIO_RF24 #define MY_RF24_PA_LEVEL RF24_PA_HIGH #define MY_NODE_ID 181 #define MY_RF24_CHANNEL (97) #define MY_PARENT_NODE_ID 0 #define MY_PARENT_NODE_IS_STATIC //#define MY_REPEATER_FEATURE //#define MY_SIGNING_ATSHA204 //#define MY_SIGNING_REQUEST_SIGNATURES //#define MY_SIGNING_SOFT //#define MY_SIGNING_SIMPLE_PASSWD #include <MySensors.h> #include <Stepper.h> #include <Bounce2.h> // define number of steps per revolution #define STEPS 32 // define stepper motor control pins #define IN1 7 #define IN2 6 #define IN3 5 #define IN4 4 #define EEPROM_STEPCOUNT_ADDRESS 0 #define BLIND_UP 39500 //******** #define BLIND_DOWN 100 //******** //#define LIMIT_UP A0 //#define LIMIT_DOWN A1 #define DOWN_BUTTON 2 #define UP_BUTTON 3 #define WINDOW_SENSOR A2 //#define VOLTMETER A5 #define CHILD_ID_LANDING_BLIND 0 //#define CHILD_ID_BATTERY 1 #define CHILD_ID_LANDING_WINDOW 2 #define CHILD_ID_LANDING_ALARM 3 //float battery = 0.0; //unsigned long BattSendDelay = 10800000; unsigned long previousMillis = 0; unsigned long previousButtonMillis = 0; unsigned long ButtonMillis = 5000; unsigned long stepcount = BLIND_UP; //******Blind UP for CAL.... unsigned long laststepcount = BLIND_UP; unsigned long upspeed = 900; int upstep = 5; int downstep = -1; int oldValue=-1; bool MOVING_UP = false; bool MOVING_DOWN = false; bool ALARM_ARMED = false; bool ALARM_TRIPPED = false; Bounce debouncerUP = Bounce(); Bounce debouncerDOWN = Bounce(); Bounce debouncerWINDOW = Bounce(); // initialize stepper library Stepper stepper(STEPS, IN4, IN2, IN3, IN1); MyMessage msgB_UP(CHILD_ID_LANDING_BLIND, V_UP); MyMessage msgB_DOWN(CHILD_ID_LANDING_BLIND, V_DOWN); MyMessage msgB_STOP(CHILD_ID_LANDING_BLIND, V_STOP); //MyMessage msgBBattery(CHILD_ID_LANDING_BLIND, V_VOLTAGE); //MyMessage msgB_PERCENTAGE(CHILD_ID_LANDING_BLIND, V_PERCENTAGE); MyMessage msgB_ALARM(CHILD_ID_LANDING_WINDOW, V_TRIPPED); MyMessage msgB_WINDOW(CHILD_ID_LANDING_WINDOW, V_TRIPPED); void setup() { Serial.begin(115200); pinMode(DOWN_BUTTON, INPUT_PULLUP); pinMode(UP_BUTTON, INPUT_PULLUP); //pinMode(LIMIT_UP, INPUT_PULLUP); //pinMode(LIMIT_DOWN, INPUT_PULLUP); pinMode(WINDOW_SENSOR, INPUT_PULLUP); //pinMode(VOLTMETER, INPUT); debouncerUP.attach(UP_BUTTON); debouncerUP.interval(25); debouncerDOWN.attach(DOWN_BUTTON); debouncerDOWN.interval(25); debouncerWINDOW.attach(WINDOW_SENSOR); debouncerWINDOW.interval(25); //**** Comment next line after first upload - inital calibration only.... hwWriteConfigBlock((void*)&stepcount, (void*)(EEPROM_LOCAL_CONFIG_ADDRESS + EEPROM_STEPCOUNT_ADDRESS), 4); //saveStepcount - Use once to set 'memory'. Then reflash with this commented out. hwReadConfigBlock((void*)&stepcount, (void*)(EEPROM_LOCAL_CONFIG_ADDRESS + EEPROM_STEPCOUNT_ADDRESS), 4); // Get from EEPROM last position. digitalWrite(IN1, LOW); digitalWrite(IN2, LOW); digitalWrite(IN3, LOW); digitalWrite(IN4, LOW); } void presentation() { sendSketchInfo("MYS-Landing Blind", "0.4"); wait(150); present(CHILD_ID_LANDING_BLIND, S_COVER, "Landing-Blind", true); // present(CHILD_ID_BATTERY, S_MULTIMETER, "Battery", true); wait(200); present(CHILD_ID_LANDING_ALARM, S_BINARY, "Landing-Alarm", true); wait(200); present(CHILD_ID_LANDING_WINDOW, S_BINARY, "Landing-Window", true); //long batterytemp = (readVcc()); //float batteryf = (float) batterytemp; //battery = batteryf/1000.0; //send(msgBBattery.set(battery,2),true); } void loop() { // move the blind UP debouncerUP.update(); if (debouncerUP.fell() || MOVING_UP == true) { MOVING_UP = true; UP(); } // move the blind DOWN debouncerDOWN.update(); if (debouncerDOWN.fell() || MOVING_DOWN == true) { MOVING_DOWN = true; DOWN(); } //Manual calibration call if (debouncerUP.fell() && debouncerDOWN.fell()){ previousButtonMillis = millis(); while (millis() - previousButtonMillis < ButtonMillis){ debouncerUP.update(); debouncerDOWN.update(); if (debouncerUP.rose() || debouncerDOWN.rose()){ break; } } } else calibrate(); debouncerWINDOW.update(); if (debouncerWINDOW.rose() && ALARM_ARMED == true){ send(msgB_ALARM.set(ALARM_TRIPPED = 0), true); } if (debouncerWINDOW.fell() && ALARM_ARMED == true){ send(msgB_ALARM.set(ALARM_TRIPPED = 1), true); } // debouncer.update(); // Send window update... int value = debouncerWINDOW.read(); if (value != oldValue) { // Send in the new value send(msgB_WINDOW.set(value==HIGH ? 1 : 0)); oldValue = value; } //Read and send battery every 3 hours /* if (millis() - previousMillis >= BattSendDelay) { previousMillis = millis(); long batterytemp = (readVcc()); float batteryf = (float) batterytemp; battery = batteryf/1000.0; //float batteryraw = digitalRead(VOLTMETER); //add calibration here..... send(msgBBattery.set(battery,2),true); }*/ //!!!!! NO SLEEPING !!!!! ;) } void receive(const MyMessage &message) { // STOP - if message == V_STOP, stop blinds immediately. if (message.type == V_STOP) { stop(); } // UP - if message == V_UP call void UP() if (message.type == V_UP) { MOVING_UP = true; UP(); } // DOWN - if message == V_DOWN call void DOWN() if (message.type == V_DOWN) { MOVING_DOWN = true; DOWN(); } //Add if (message.type==V_PERCENTAGE); and add calculation....maybe? // for reference 1% == 395 steps.... } void stop() { digitalWrite(IN1, LOW); digitalWrite(IN2, LOW); digitalWrite(IN3, LOW); digitalWrite(IN4, LOW); send(msgB_STOP.set(stepcount), true); MOVING_UP = false; MOVING_DOWN = false; hwWriteConfigBlock((void*)&stepcount, (void*)(EEPROM_LOCAL_CONFIG_ADDRESS + EEPROM_STEPCOUNT_ADDRESS), 4); wait(100); } void UP() { //If already in motion then stop and reverse direction. if (MOVING_DOWN == true) { stop(); MOVING_UP = true; } // test if already up here!!!! - if not recall stepcount and calulate number of steps required. while (MOVING_UP == true && stepcount < BLIND_UP) { //&& LIMIT_UP == HIGH) // set motor speed if (stepcount >= 20000) { upspeed = 1000; } if (stepcount >= (BLIND_UP - 50)) { upstep = 1; } stepper.setSpeed(upspeed); //higher speed = lower torque... // move the motor (x steps) stepper.step(upstep); stepcount = stepcount + upstep; // Serial.println("UP-StepCount = " + (String)stepcount); // } //Test if manual stop. debouncerDOWN.update(); if (debouncerDOWN.fell()) { stop(); } //Add time limit for safety? //up timeout message? //Test if at end of travel. if (stepcount == BLIND_UP) { // || digitalRead(LIMIT_UP) == LOW) stop(); downstep = -1; break; } //Check for incomming radio message at frequent intervals. if(stepcount > laststepcount + 500){ laststepcount = stepcount; wait(1); //allows RX function. } } } void DOWN() { //If already in motion then stop and reverse direction. if (MOVING_UP == true) { stop(); MOVING_DOWN = true; } //Check if window open debouncerWINDOW.update(); //Do not close if window is open or already closed. while (MOVING_DOWN == true && stepcount > BLIND_DOWN && debouncerWINDOW.read() == LOW)// && digitalRead(WINDOW_SENSOR) == LOW && LIMIT_DOWN == HIGH) { stepper.setSpeed(1200); //higher speed = lower torque... if (stepcount <= (BLIND_UP-500) && stepcount > 150) { downstep = -5; } if (stepcount <= 150) { downstep = -1; } // move the motor (x steps) stepper.step(downstep); stepcount = stepcount + downstep; //Serial.println("DOWN-StepCount = " + (String)stepcount); //} //Test if manual stop. debouncerUP.update(); if (debouncerUP.fell()) { stop(); } //Test if at end of travel. if (stepcount == BLIND_DOWN) { // || digitalRead(LIMIT_DOWN) == LOW) -- maybe add timer as well? stop(); upstep = 5; upspeed = 900; break; } //Check for incomming radio message at frequent intervals. if(stepcount < laststepcount - 500){ laststepcount = stepcount; wait(1); //allows RX function. } } debouncerWINDOW.update(); } void calibrate() { //Move fully up or down and set stepcounter. - From controller, buttons or if position is unknown..... } /* long readVcc() { // Read 1.1V reference against AVcc // set the reference to Vcc and the measurement to the internal 1.1V reference ADMUX = _BV(REFS0) | _BV(MUX3) | _BV(MUX2) | _BV(MUX1); wait(5); // Wait for Vref to settle ADCSRA |= _BV(ADSC); // Start conversion while (bit_is_set(ADCSRA,ADSC)); // measuring uint8_t low = ADCL; // must read ADCL first - it then locks ADCH uint8_t high = ADCH; // unlocks both long result = (high<<8) | low; result = 1125300L / result; // Calculate Vcc (in mV); 1125300 = 1.1*1023*1000 return result; // Vcc in millivolts }*/It works like this......
Pressing up or down button will move the blind up or down depending on window sensor status (I don't want blinds to close with the window open)......
Whilst blind is in motion pressing button corresponding to the opposite direction will stop the blind and save position to eeprom.
Pressing both buttons at the same time for more than 5 seconds will call a self calibration routine.
At any point the controller should be able to send a message to the blinds to move or stop. This now happens even whilst the blind is in motion, which is what I thought to be the best option.
Every time the stop is called the position is saved to eeprom so that in the event of power interruption it will know where it last was.
Maybe I need to re-think the whole approach to this, but it is annoyingly close to what I would like now ;)
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@skywatch the reason you're getting the wait warning messages (and probably the reason why your code behaves in strage ways sometimes) is that you're calling send and wait from within receive. Doing so can have very strange side effects.
@mfalkvidd Ah, I didn't know that it also applied to a wait within other void loop - I'll change the code so that it just sets a variable and then modify the main loop accordingly. Thank you for your time - I know it was not easy to go through that lot! ;) - Once it is working and tested I will tidy it up and optimise it all somewhat.
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@skywatch also, requesting that the gateway echos sent messages back to your node will have very bad effects. Could you elaborate on what you are trying to achive by requesting echo?
@mfalkvidd said in void receive(const MyMessage &message):
@skywatch also, requesting that the gateway echos sent messages back to your node will have very bad effects. Could you elaborate on what you are trying to achive by requesting echo?
I simply wanted to know that the message got through. Otherwise the controller might send 'down' command without having received the window open status. - I will look into that too..... :)
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@mfalkvidd said in void receive(const MyMessage &message):
@skywatch also, requesting that the gateway echos sent messages back to your node will have very bad effects. Could you elaborate on what you are trying to achive by requesting echo?
I simply wanted to know that the message got through. Otherwise the controller might send 'down' command without having received the window open status. - I will look into that too..... :)
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@mfalkvidd Thank you soooo much for the tips with this, I still am learning new stuff and getting a project done = a double win for me :)
SO here is what I changed.....
In void loop I added
//Stop if received message = STOP if(RX_STOP == true){ stop(); }And void receive() now looks like this ( I never needed to call up() or down() from here anyway. I realise that now - doh!).
void receive(const MyMessage &message) { // STOP - if message == V_STOP, stop blinds immediately. if (message.type == V_STOP) { RX_STOP = true; } // UP - if message == V_UP call void UP() if (message.type == V_UP) { MOVING_UP = true; } // DOWN - if message == V_DOWN call void DOWN() if (message.type == V_DOWN) { MOVING_DOWN = true; } //Add if (message.type==V_PERCENTAGE); and add calculation....maybe? // for reference 1% == 395 steps.... }I'll test it later as I need some food now! ;)
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@mfalkvidd Thank you soooo much for the tips with this, I still am learning new stuff and getting a project done = a double win for me :)
SO here is what I changed.....
In void loop I added
//Stop if received message = STOP if(RX_STOP == true){ stop(); }And void receive() now looks like this ( I never needed to call up() or down() from here anyway. I realise that now - doh!).
void receive(const MyMessage &message) { // STOP - if message == V_STOP, stop blinds immediately. if (message.type == V_STOP) { RX_STOP = true; } // UP - if message == V_UP call void UP() if (message.type == V_UP) { MOVING_UP = true; } // DOWN - if message == V_DOWN call void DOWN() if (message.type == V_DOWN) { MOVING_DOWN = true; } //Add if (message.type==V_PERCENTAGE); and add calculation....maybe? // for reference 1% == 395 steps.... }I'll test it later as I need some food now! ;)