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Brand new interactions and interfaces
Smooth support for design sizes of over 3W
devices or 10W pads
More rigorous design constraints, more
standardized processes
For enterprises, more professional users
Easy to use and quick to get started
The process supports design scales of 300
devices or 1000 pads
Supports simple circuit simulation
For students, teachers, creators
STD DIY Transmitter 3 Channel
Mode:
Transmitter Code:
// 3 Channel Transmitter #include <SPI.h> #include <nRF24L01.h> #include <RF24.h> const uint64_t pipeOut = 0xE9E8F0F0E1LL; // Match key RF24 radio(9, 10); // Select CE,CSN pin struct Signal { byte throttle; byte steering; byte aux1; }; Signal data; void ResetData() { data.throttle = 127; // Motor stop (Signal lost position) data.steering = 127; // Center (Signal lost position) data.aux1 = 0; // (Signal lost position) } void setup() { //Start everything up radio.begin(); radio.openWritingPipe(pipeOut); radio.setAutoAck(false); radio.setDataRate(RF24_250KBPS); radio.setPALevel(RF24_PA_MAX); radio.stopListening(); //start the radio comunication for Receiver ResetData(); } // Joystick center and it's borders int mapJoystickValues(int val, int lower, int middle, int upper, bool reverse) { val = constrain(val, lower, upper); if ( val < middle ) val = map(val, lower, middle, 0, 128); else val = map(val, middle, upper, 128, 255); return ( reverse ? 255 - val : val ); } void loop() { // Control Stick Calibration // Setting may be required for the correct values of the control levers. data.steering = mapJoystickValues( analogRead(A0), 200, 460, 650, true ); // "true" or "false" for servo direction data.throttle = mapJoystickValues( analogRead(A1), 200, 440,670, true ); // "true" or "false" for signal direction data.aux1 = digitalRead(4); radio.write(&data, sizeof(Signal)); }
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