// An example sketch using the joystick library, demonstrating recommended usage // of all features. #include #include #include using namespace admux; // Always use defines to match your pins to their logical wiring // pins 2 and 3 are attached to a rotary encoder #define ENCODER 2,3 // these buttons are attached directly to Arduino input pins #define BTN1 4 #define BTN2 5 #define BTN3 6 #define BTN4 7 // pins 8-13 are attached to a 3x3 scanning input matrix. Pins 8-10 are the row pins, 11-13 are the column pins // However, note that the column pins are 0-indexed; the actual pins are defined in the Matrix object later. #define MATRIX1 8,0 #define MATRIX2 9,0 #define MATRIX3 10,0 #define MATRIX4 8,1 #define MATRIX5 9,1 #define MATRIX6 10,1 #define MATRIX7 8,2 #define MATRIX8 9,2 #define MATRIX9 10,2 // A multiplexer is attached to pins A1-A5 #define MUX_SIG A1 // the multiplexer's signal pin is on Analog 1 #define MUX_ADDR A2,A3,A4,A5 // the multiplexer's address pins are A2-A5, in that order // These are 3 buttons attached to the multiplexer channels #define MUX_BTN1 0 #define MUX_BTN2 1 #define MUX_BTN3 2 bool debug = false; Joystick js(debug); void setup() { js.AddEncoder(ENCODER, ENCODER_PULSED_SPLIT); // Different types of button programming are available. BUTTON_PASSTHRU simply passes on the button's // real state, and will be the most common, but you can also change how the button works in software like so... // With BUTTON_PULSED, no matter how long the button stays held down, it will only send a button press for 250ms // then deactivate until pressed again. js.AddButton(BTN1, BUTTON_PULSED); // BUTTON_PULSED_DOUBLE_ACTION does the same thing, but sends a *second* 250ms press when the button is deactivated // This is great for an on-off toggle switch that should send an "event" in both directions. js.AddButton(BTN2, BUTTON_PULSED_DOUBLE_ACTION); // BUTTON_PULSED_DOUBLE_ACTION_SPLIT is just like the above, but it sends *different* button presses for the "on" // and "off" states. js.AddButton(BTN3, BUTTON_PULSED_DOUBLE_ACTION_SPLIT); // BUTTON_LATCHED_MOMENTARY lets you turn a momentary pushbutton into a toggle switch. // One press will "press and hold" the button. The next press releases the button. js.AddButton(BTN4, BUTTON_LATCHED_MOMENTARY); // One way to get more room for inputs is to use a scan matrix. // See http://blog.komar.be/how-to-make-a-keyboard-the-matrix/ for a very detailed discussion of how these work. // This is a 3x3 example, so we can get 9 buttons out of 6 inputs. // For faster read results, always add buttons so that buttons with the same *column* are grouped together. uint8_t cols[] = {11, 12, 13}; Matrix* matrix = new Matrix(cols); js.AddMatrixButton(MATRIX1, matrix, BUTTON_PASSTHRU); js.AddMatrixButton(MATRIX2, matrix, BUTTON_PASSTHRU); js.AddMatrixButton(MATRIX3, matrix, BUTTON_PASSTHRU); js.AddMatrixButton(MATRIX4, matrix, BUTTON_PASSTHRU); js.AddMatrixButton(MATRIX5, matrix, BUTTON_PASSTHRU); js.AddMatrixButton(MATRIX6, matrix, BUTTON_PASSTHRU); js.AddMatrixButton(MATRIX7, matrix, BUTTON_PASSTHRU); js.AddMatrixButton(MATRIX8, matrix, BUTTON_PASSTHRU); js.AddMatrixButton(MATRIX9, matrix, BUTTON_PASSTHRU); // another way to get more room for our inputs, this code adds a 16-channel multiplexer. // It only attaches 3 buttons, but could attach up to channel 15. Mux* mux = new Mux(Pin(MUX_SIG, INPUT_PULLUP, PinType::Digital), Pinset(MUX_ADDR)); js.AddMuxButton(MUX_BTN1, mux, BUTTON_PASSTHRU); js.AddMuxButton(MUX_BTN2, mux, BUTTON_PASSTHRU); js.AddMuxButton(MUX_BTN3, mux, BUTTON_PASSTHRU); js.Init(); } void loop() { // check all the button states and send any changes js.Update(); }