@aproxx said:
Any chance you will be creating a 'panelized' version of this board? With these small sizes 4 boards can be fitted on a 5 by 5cm board, while still keeping the same price. I'd be happy to order a few if that's available!
I'm just order it, on Dirtyboard not tested yet. Maybe this what you need?
http://dirtypcbs.com/view.php?share=18851&accesskey=01fcfdedf25cb9105e13f2d50d9ea385
I'm trying to do the same but my RF code is different. The number of bits is the same. I have first 20 bits witch I can set for remote 1;2;3 but the last 20 bits depands on command.
I delete remote1Bits4, and channel (child_Id) and add eightBits action1;2;3 for up\down\stop But it dont work.
Could you check this code changes, please?
Remote 1
1100 01111100 01001000 00110000 0011 01011110 up
1100 01111100 01001000 10100000 0011 01010111 stop
1100 01111100 01001000 10000000 0011 01010100 down
Remote2
0100 01110010 01001000 00110000 0011 01011110 up
0100 01110010 01001000 10100000 0011 01010111 stop
0100 01110010 01001000 10000000 0011 01010100 down
Remote3
1110 00100100 01001000 00110000 0011 11101000 up
1110 00100100 01001000 10100000 0011 11100001 stop
1110 00100100 01001000 10000000 0011 11100011 down
/*
// This program is free software; you can redistribute it and/or
// modify it under the terms of the GNU General Public License
// version 2 as published by the Free Software Foundation.
//
// DESCRIPTION
// This sketch provides a way to control blinds from www.blinds.com using a 433MHz RF
// signal. The motors in the blinds are Dooya DV24CE motors.
//
// Watch a video of everything working together here: https://www.youtube.com/watch?v=EorIqw-9eJw
//
// The sketch is based on Henrik Ekblad's <henrik.ekblad@gmail.com> MySensors project
// (http://www.mysensors.org). Credit also goes to Ray (http://rayshobby.net/?p=3381)
// for instruction on how to decode the RF signal from the remote as well as code for
// sending the RF signal.
//
// Developed by Pete B.
//
// REVISION HISTORY
// Version 1.0 - March 19, 2014 - Original Program
// Version 1.1 - April 17, 2014 - Added support for multiple remotes that are programmed from blinds.com
// Version 1.2 - May 16, 2014 - Added gw.send() to update Vera blinds up/down status
// Version 1.3 - Nov 21, 2014 - Upgraded code to work with MySensors v1.4
*/
//Include Vera related libraries
#include <MySensor.h>
#include <SPI.h>
#include <EEPROM.h>
#include <RF24.h>
//Define Constants
#define SEND_DATA 3 //Data pin for RF Transmitter
#define ZERO_HIGH 395 //Delay for the high part of a 0 in microseconds
#define ZERO_LOW 687 //Delay for the low part of a 0 in microseconds
#define ONE_HIGH 750 //Delay for the high part of a 1 in microseconds
#define ONE_LOW 333//Delay for the low part of a 1 in microseconds
//Vera related constants
// Set NODE_ID to something unique in your sensor network (1-254)
// or set to AUTO if you want gw to assign a NODE_ID for you.
#define NODE_ID auto
/*
//List all your blinds here. These will have to be added as child nodes in setup()
//The numbers will be used to assign the different remotes in the remote() method
//So, make a note of which blind uses which remote then add it to the if statement
//in remote(). This is referred to as the blindNumber in remote().
*/
#define NUMBER_OF_BLINDS 3
//Child Node Numbers
//Family Room = Node 1, Remote 2, Channel 1
//Kitchen = Node 2, Remote 2, Channel 2
//Dining Room = Node 3, Remote 2, Channel 3
//Kid's Room = Node 4, Remote 1, Channel 1
//Kids's Room = Node 5, Remote 1, Channel 2
//Guest Room = Node 6, Remote 1, Channel 3
//Master Bedroom = Node 7, Remote 1, Channel 4
//Master Closet = Node 8, Remote 1, Channel 5
//Living Room = Node 9, Remote 2, Channel 4
MySensor gw;
/*
//These 28 standard bits appear at the beginning of each transmit sequence:
//0111011100000101010111001011. They are then followed by 12 other
//bits depending on the command being sent to the blind. These bits
//distinguish between the different remotes.
//Because I'm not good at Arduino coding I needed to use someone else's
//code to send the bits. They only used 8 bits and I couldn't get any
//more to send. Because if this I have broken up the 28 bits into 8 bit
//sections. Make sure to put 4 zeros at the beginning of the first
//sequence. They will be ignored later in the code.
//I added support for multiple remotes so you don't have to reprogram
//anything when you buy more blinds. Just add the additional remote codes.
*/
//Remote One
unsigned char remote1Bits1 = 0b00001100; //integer value of the 28 bit standard sequence referenced above. "0b" prefix is for ??
unsigned char remote1Bits2 = 0b01111100;
unsigned char remote1Bits3 = 0b01001000;
//Remote Two
unsigned char remote2Bits1 = 0b00000100; //integer value of the 28 bit standard sequence referenced above. "0b" prefix is for ??
unsigned char remote2Bits2 = 0b01110010;
unsigned char remote2Bits3 = 0b01001000;
//Remote Three
unsigned char remote3Bits1 = 0b00001110; //integer value of the 28 bit standard sequence referenced above. "0b" prefix is for ??
unsigned char remote3Bits2 = 0b00100100;
unsigned char remote3Bits3 = 0b01001000;
//Remote codes will be put in standardBits with remote() method, depending on which remote is used
unsigned char standardBits1 = 0b00000000;
unsigned char standardBits2 = 0b00000000;
unsigned char standardBits3 = 0b00000000;
void setup()
{
gw.begin(incomingMessage, NODE_ID);
// Send the sketch version information to the gateway and Controller
gw.sendSketchInfo("Blind Control", "1.3");
// Register sensors to gw (they will be created as child devices)
for (int i = 0; i < NUMBER_OF_BLINDS; i++)
{
gw.present(i + 1, S_COVER);
}
}
void loop()
{
gw.process();
}
void incomingMessage(const MyMessage &message)
{
Serial.print("Blind Channel: ");
Serial.println(message.sensor);
Serial.print("Message Data: ");
Serial.println(message.data);
Serial.print("Message Type: ");
Serial.println(message.type);
int incomingBlindData = atoi(message.data);
if (message.type == V_STOP) //Stop
{
//unsigned char i;
for(uint8_t i = 0; i < 2; i++)
{
blindAction(message.sensor, 3); //blindAction(channel, action) action: 1=up, 2=down, 3=stop
delay(50);
}
Serial.println("STOP command");
}
else if(incomingBlindData == 100 || message.type == V_UP) //100 = Open/Up
{
//unsigned char i;
for(uint8_t i = 0; i < 2; i++)
{
blindAction(message.sensor, 1);
delay(50);
}
Serial.println("UP command");
//gw.sendgw.send(message.sensor, V_DIMMER, 100); // Update Vera with status of blinds (up/down)
MyMessage blindMsg(message.sensor, V_DIMMER); //may need to assign message.sensor to a variable if this doesn't work
gw.send(blindMsg.set(100)); // Update Vera with status of blinds (up/down)
}
else if (incomingBlindData == 0 || message.type == V_DOWN) //0 = Closed/Down
{
//unsigned char i;
for(uint8_t i = 0; i < 2; i++)
{
blindAction(message.sensor, 2);
delay(50);
}
Serial.println("DOWN command");
MyMessage blindMsg(message.sensor, V_DIMMER); //may need to assign message.sensor to a variable if this doesn't work
//gw.send(message.sensor, V_DIMMER, 0); // Update Vera with status of blinds (up/down)
gw.send(blindMsg.set(0)); // Update Vera with status of blinds (up/down)
}
}
void remote(int remoteNum)
{
if (remoteNum == 1) //Which remote will be used?
{
standardBits1 = remote1Bits1; //Assign remote specific codes to standardBits variable used throughout the code
standardBits2 = remote1Bits2;
standardBits3 = remote1Bits3;
}
else if
{
standardBits1 = remote2Bits1; //Assign remote specific codes to standardBits variable used throughout the code
standardBits2 = remote2Bits2;
standardBits3 = remote2Bits3;
}
else
{
standardBits1 = remote3Bits1; //Assign remote specific codes to standardBits variable used throughout the code
standardBits2 = remote3Bits2;
standardBits3 = remote3Bits3;
}
}
void fourBits(unsigned char bits)
{
unsigned char i;
int delayTime;
for(i = 0; i < 4; i++)
{
int highTime;
int lowTime;
delayTime = ((bits >> (3 - i)) & 1 ? 1 : 0);
if (delayTime == 1)
{
highTime = ONE_HIGH;
lowTime = ONE_LOW;
}
else
{
highTime = ZERO_HIGH;
lowTime = ZERO_LOW;
}
digitalWrite(SEND_DATA, HIGH);
delayMicroseconds(highTime);
digitalWrite(SEND_DATA, LOW);
delayMicroseconds(lowTime);
}
}
void eightBits(unsigned char bits)
{
unsigned char k;
int delayTime;
for(k = 0; k < 8; k++)
{
int highTime;
int lowTime;
delayTime = ((bits >> (7 - k)) & 1 ? 1 : 0);
if (delayTime == 1)
{
highTime = ONE_HIGH;
lowTime = ONE_LOW;
}
else
{
highTime = ZERO_HIGH;
lowTime = ZERO_LOW;
}
digitalWrite(SEND_DATA, HIGH);
delayMicroseconds(highTime);
digitalWrite(SEND_DATA, LOW);
delayMicroseconds(lowTime);
}
}
//Separator Delay Method (this is repeated frequently)
void separatorDelay(boolean upDown)
{
if(upDown == true)
{
digitalWrite(SEND_DATA, LOW);
delayMicroseconds(8020);
}
digitalWrite(SEND_DATA, HIGH);
delayMicroseconds(4812);
digitalWrite(SEND_DATA, LOW);
delayMicroseconds(1479);
}
void endDelay()
{
digitalWrite(SEND_DATA, LOW);
delayMicroseconds(51895); //Time of delay at the end of each sequence
}
void blindAction(int a)
{
//c or channel: Order on the remote from left to right 1-16 available
//a or action: 1=up, 2=down, 3=stop
unsigned char action; //8 action bits. Only the first 4 bits are used in the up/down end sequence
unsigned char action2; //Last 4 bits from the up/down end sequence
unsigned char action3; //Last 4 bits from the up/down end sequence
if(a == 1)
{
action = 0b00110000; //code for up
action2 = 0b00110101;
action3 = 0b00001110;
}
else if (a == 2)
{
action = 0b00010001; //code for down
action2 = 0b00001110;
action3 = 0b00001110;
}
else (a == 3)
{
action = 0b00010001; //code for down
action2 = 0b00001110;
action3 = 0b00001110;
}
int i = 0;
//first 6 transmissions are the same for each blind action (up, down & stop)
while(i < 6)
{
separatorDelay(false); //false unless in the last part of the up or down commands
fourBits(standardBits1);
eightBits(standardBits2);
eightBits(standardBits3);
eightBits(action);
fourBits(action2);
eightBits(action3);
i++;
}
if (a == 3) //If a stop command is issued just send the end delay then exit the method
{
endDelay();
}
else //No stop issued so run through the last sequence
{
separatorDelay(false); //send true because we are in the up/down end sequence so there is an additional delay
fourBits(standardBits1);
eightBits(standardBits2);
eightBits(standardBits3);
eightBits(standardBits4);
eightBits(action);
fourBits(action2);
eightBits(action3);
int j = 0;
while(j < 3)
{
separatorDelay(true);
fourBits(standardBits1);
eightBits(standardBits2);
eightBits(standardBits3);
eightBits(standardBits4);
eightBits(action);
fourBits(action1);
eightBits(action2);
j++;
}
endDelay();
}
}```Ha! It's solved by deliting Mysensors from Personal Libraries on codebender.cc and Cloning Sketch&Libraries.
Thaks Sparkman for Idea!
@BartE said:
@Axel yes you can use this sketch stand alone.
In the sketch just:
- remove #include <MySensor.h> and #include <SPI.h>
- remove MyMessage from struct LEDS (6 times on 4 lines)
- remove all lines with "gw." except for gw.wait() replace this function with delay()
- remove the function incomingMessage
That should be it, not sure if all compilers are gone now (did not test it)
And of course there is no needs anymore to add the NFR radio module
Hello BartE
Could you post the sketch (post 1) for Mysensors2.0.0, please?
Or what I have to change on this sketch to make it's compilated with arduino 1.6.9 Mysensors Library 2.0.0
2 hours and "Done compiling". So I have wrong library version. And now It's ready to upload. :)
/**
* REVISION HISTORY
* Version 1.0 - February 15, 2014 - Bruce Lacey
* Version 1.1 - August 13, 2014 - Converted to 1.4 (hek)
* Version 1.2 - Januari 2016 - Bart Eversdijk
*
* DESCRIPTION
* This sketch provides a Dimmable LED Light using PWM and based on Henrik Ekblad
* <henrik.ekblad@gmail.com> Vera Arduino Sensor project.
* Developed by Bruce Lacey, inspired by Hek's MySensor's example sketches.
*
* The circuit uses a MOSFET for Pulse-Wave-Modulation to dim the attached LED or LED strip.
* The MOSFET Gate pin is connected to Arduino pin 3 (LED_PIN), the MOSFET Drain pin is connected
* to the LED negative terminal and the MOSFET Source pin is connected to ground.
*
* V1.2 Additions:
* control by normal ON/OFF switch
* The sketch is now optimized for integration in an existing house wiring situation, Where a standard light switch can be used to control
* the dimmer. Just toggling the switch will light the LED-(strip) smooth to 100% level or back to 0% when turning the light off.
* By a short ON-OFF switch-pulse the LED will dim to the last set dim level (when it was OFF) or dim to 0% when the LED was on.
* Setting a new target dim level can be done by keeping the switch on until it reaches the desired dim-level and the switch OFF again.
* Now the LED will stay on keeping the dim level.
* In all situations your home automation controller will be informed on the changing situations and off course can override the switch situation
*
* This sketch controls 2 LED-(strips) but can be easily extended by adding a LEDS entry to the led array (on line 70)
* The dim level can be set linear i.s.o. logarithmic (for your eyes this will look more linear)
*
* http://www.mysensors.org/build/dimmer
*/
#define MY_RADIO_NRF24
#include <SPI.h>
#include <MySensors.h>
#include <Bounce2.h>
#include <math.h>
#define LED1_PIN 6 // Arduino pin attached to MOSFET Gate pin
#define SW1_PIN 4
#define LED2_PIN 3 // Arduino pin attached to MOSFET Gate pin
#define SW2_PIN 2
#define MYS_INIT_DELAY 500
#define FADE_DELAY 10 // Delay in ms for each percentage fade up/down (10ms = 1s full-range dim)
enum DIMCURVES {
DIM_LINEAR = 0, // Normal linear curve
DIM_LINEAR_INV, // Inverted linear curve
DIM_LOGARITHMIC, // Normal logarithmic curve
DIM_LOGARITHMIC_INV, // Inverted logarithmic curve
DIM_CUSTOM // Define your own dimming curve
};
struct LEDS {
int currentLevel; // Current dim level
int toLevel; // Level to dim to
Bounce debouncer;
int LedPin;
int SwitchPin;
byte switchValue;
int savedLevel; // level to dim to when on is pressed
int switchCount;
bool ignoreNextSw; // if true ignore next OFF switch (was overriden by controller in ON state)
DIMCURVES dimcurve; // Set the dim curve mode (linear, logarithmic, inverted, custom)
MyMessage dimmerMsg;
MyMessage lightMsg;
};
LEDS led[] = {
{0, 0, Bounce(), LED1_PIN, SW1_PIN, 0, 100, 0, false, DIM_LINEAR_INV, MyMessage(0, V_DIMMER), MyMessage(0, V_LIGHT)},
{0, 0, Bounce(), LED2_PIN, SW2_PIN, 0, 100, 0, false, DIM_CUSTOM, MyMessage(1, V_DIMMER), MyMessage(1, V_LIGHT)}
};
#define MAXLED (sizeof(led)/sizeof(LEDS))
/***
* Dimmable LED initialization method
*/
void setup()
{
// Switch off all leds
for (byte id = 0; id < MAXLED; id++) {
pinMode(led[id].LedPin, OUTPUT);
setLedLevel(id);
}
// Register the LED Dimmable Light with the gateway
for (byte id = 0; id < MAXLED; id++) {
pinMode(led[id].SwitchPin, INPUT);
// Activate internal pull-up
digitalWrite(led[id].SwitchPin, HIGH);
present( id, S_DIMMER );
delay( MYS_INIT_DELAY );
// Pull the gateway's current dim level - restore light level upon sendor node power-up
request( id, V_DIMMER );
delay( MYS_INIT_DELAY );
// After setting up the button, setup debouncer
led[id].debouncer.attach(led[id].SwitchPin);
led[id].debouncer.interval(5);
}
sendSketchInfo("1.2", "LedStripSwitch");
}
/***
* Dimmable LED main processing loop
*/
void loop()
{
for (byte id = 0; id < MAXLED; id++) {
// If target level is not reached fade a little bit more
if (led[id].currentLevel != led[id].toLevel) {
led[id].currentLevel += ((led[id].toLevel - led[id].currentLevel ) < 0 ? -1 : 1);
setLedLevel(id);
}
// Check debounced button
led[id].debouncer.update();
byte switchValue = led[id].debouncer.read() ? 0 : 1; // Inverted signal
// Button change detected
if (led[id].switchValue != switchValue) {
Serial.print (F("Switch "));
Serial.println (switchValue);
led[id].switchValue = switchValue;
// If key released switch on when off or off when on --> when we where fading (above 100 steps) this is the end state
// When we just left the button (> 500) we now turning the lights off again
if (!switchValue && !led[id].ignoreNextSw) {
if (led[id].switchCount <= 100 || led[id].switchCount > 500) {
led[id].toLevel = (led[id].currentLevel ? 0 : led[id].savedLevel);
} else {
led[id].savedLevel = led[id].toLevel; // Store new saved level
}
// Inform the gateway of the current DimmableLED's SwitchPower1 and LoadLevelStatus value...
send(led[id].lightMsg.set(led[id].toLevel > 0 ? 1 : 0));
send(led[id].dimmerMsg.set(led[id].toLevel) );
}
led[id].ignoreNextSw = false;
led[id].switchCount = 0;
} else if (switchValue && led[id].switchCount <= 500) {
// Keep counting until we reached 500 (@ 500 we asume we are in switch ON / OFF mode)
led[id].switchCount++;
// So this in not just a switch on (or off) but a new target led level key press
if (led[id].switchCount > 100) {
// Smooth led level increment, until the user found his/here desired dim lever
if ((led[id].switchCount % 3) == 0) {
// Stop increasing led level @ 100%
if (led[id].currentLevel < 100) {
if (led[id].currentLevel == 99) {
// Inform the gateway we've reached 100%
send(led[id].lightMsg.set(1));
send(led[id].dimmerMsg.set(100));
}
led[id].currentLevel++;
led[id].toLevel = led[id].currentLevel;
setLedLevel(id);
}
}
}
}
}
// Wait FADE_DELAY ms to smooth the dim level adjustments
wait(FADE_DELAY);
}
void incomingMessage(const MyMessage &message) {
if (message.type == V_LIGHT || message.type == V_DIMMER) {
byte id = (message.sensor % MAXLED);
// Retrieve the power or dim level from the incoming request message
// if this is a V_LIGHT variable update [0 == off, 1 == on] use savedLevel
int requestedLevel = ( message.type == V_LIGHT ? led[id].savedLevel * atoi( message.data ) : atoi( message.data ) );
if (requestedLevel > 0) {
// Store as lastLevel
led[id].savedLevel = requestedLevel;
}
// Make sure the new level is between 0 - 100
led[id].toLevel = (requestedLevel >= 0 ? min(requestedLevel, 100) : 0);
Serial.print(F("Changing node: "));
Serial.print( id );
Serial.print(F(", from: "));
Serial.print( led[id].currentLevel );
Serial.print(F("%, to: "));
Serial.print( requestedLevel );
Serial.println(F("%"));
// Inform the gateway of the current DimmableLED's SwitchPower1 and LoadLevelStatus value...
send(led[id].lightMsg.set(requestedLevel > 0 ? 1 : 0));
send(led[id].dimmerMsg.set(requestedLevel) );
// Ignore next OFF switch when switch is ON and controller switches LED to OFF state)
led[id].ignoreNextSw = (led[id].toLevel == 0 && led[id].SwitchPin);
}
}
void setLedLevel(byte id)
{
// Convert level 0% - 100% to logathimic OR linear PWM range of 0 to 255
switch (led[id].dimcurve)
{
case DIM_LINEAR:
// Normal linear curve
analogWrite(led[id].LedPin, (int)(led[id].currentLevel * 2.5));
break;
case DIM_LINEAR_INV:
// Inverted linear curve
analogWrite(led[id].LedPin, 255 - (int)(led[id].currentLevel * 2.5));
break;
case DIM_LOGARITHMIC:
// Normal logarithmic curve
analogWrite(led[id].LedPin, fscale( 0, 100, 0, 255, led[id].currentLevel, -2));
break;
case DIM_LOGARITHMIC_INV:
// Inverted logarithmic curve
analogWrite(led[id].LedPin, 255 - fscale( 0, 100, 0, 255, led[id].currentLevel, -2));
break;
case DIM_CUSTOM:
analogWrite(led[id].LedPin, 255 - led[id].currentLevel);
break;
}
}
/* fscale
Floating Point Autoscale Function V0.1
Paul Badger 2007
Modified from code by Greg Shakar
*/
float fscale( float originalMin, float originalMax, float newBegin, float newEnd, float inputValue, float curve)
{
float OriginalRange = 0;
float NewRange = 0;
float zeroRefCurVal = 0;
float normalizedCurVal = 0;
float rangedValue = 0;
boolean invFlag = 0;
// condition curve parameter
// limit range
if (curve > 10) curve = 10;
if (curve < -10) curve = -10;
curve = (curve * -.1) ; // - invert and scale - this seems more intuitive - postive numbers give more weight to high end on output
curve = pow(10, curve); // convert linear scale into lograthimic exponent for other pow function
// Check for out of range inputValues
if (inputValue < originalMin) {
inputValue = originalMin;
}
if (inputValue > originalMax) {
inputValue = originalMax;
}
// Zero Refference the values
OriginalRange = originalMax - originalMin;
if (newEnd > newBegin){
NewRange = newEnd - newBegin;
} else {
NewRange = newBegin - newEnd;
invFlag = 1;
}
zeroRefCurVal = inputValue - originalMin;
normalizedCurVal = zeroRefCurVal / OriginalRange; // normalize to 0 - 1 float
// Check for originalMin > originalMax - the math for all other cases i.e. negative numbers seems to work out fine
if (originalMin > originalMax ) {
return 0;
}
if (invFlag == 0) {
rangedValue = (pow(normalizedCurVal, curve) * NewRange) + newBegin;
} else { // invert the ranges
rangedValue = newBegin - (pow(normalizedCurVal, curve) * NewRange);
}
return rangedValue;
}```