Tobi's ubw test branch
Dependencies: mavlink_bridge mbed
Fork of AIT_UWB_Range by
main.cpp
- Committer:
- bhepp
- Date:
- 2016-01-05
- Revision:
- 63:776a5c2dcef8
- Parent:
- 59:8fee21cddf92
- Child:
- 64:48ce74eca983
File content as of revision 63:776a5c2dcef8:
// by Matthias Grob & Manuel Stalder - ETH Zürich - 2015 #include "mbed.h" #include "PC.h" // Serial Port via USB for debugging with Terminal #include "DW1000.h" // our DW1000 device driver #include "MM2WayRanging.h" // our self developed ranging application // HACK //#include "InterruptMultiplexer.h" #include "InterruptHandler.h" #include "mavlink_bridge/mavlink_bridge.h" #define ANCHOR false using namespace ait; const int SPI_FREQUENCY = 1000000; const int NUM_OF_ANCHORS = 1; const int ANCHOR_ADDRESS_OFFSET = 10; const bool USE_NLOS_SETTINGS = false; const PinName DW_RESET_PIN = D15; const PinName DW_IRQ_PIN = D14; const PinName DW_MOSI_PIN = D11; const PinName DW_MISO_PIN = D12; const PinName DW_SCLK_PIN = D13; #if ANCHOR const bool MAVLINK_COMM = false; const int NUM_OF_DW_UNITS = 1; const PinName DW_CS_PINS[NUM_OF_DW_UNITS] = {D10}; #else // const bool MAVLINK_COMM = true; const bool MAVLINK_COMM = false; const int NUM_OF_DW_UNITS = 4; //const PinName DW_CS_PINS[NUM_OF_DW_UNITS] = {D9, D8,D10}; //const PinName DW_CS_PINS[NUM_OF_DW_UNITS] = {D10,D9,D8}; const PinName DW_CS_PINS[NUM_OF_DW_UNITS] = {D10,D9,D8,D7}; //const PinName DW_CS_PINS[NUM_OF_DW_UNITS] = {D10,D9}; //const PinName DW_CS_PINS[NUM_OF_DW_UNITS] = {D10}; #endif PC pc(USBTX, USBRX, 115200); // USB UART Terminal void rangeAndDisplayAll(MM2WayRanging& node, MAVLinkBridge& mb, Timer& timer) { for (int i = 0; i < NUM_OF_ANCHORS; i++) { uint8_t remote_address = ANCHOR_ADDRESS_OFFSET + i; node.requestRanging(remote_address); pc.printf("%d - %d> dist = %.4f\r\n", node.address, remote_address, node.distances[remote_address]); } } //continue; struct __attribute__((packed, aligned(1))) DistancesFrame { uint8_t source; uint8_t destination; uint8_t type; float dist[4]; }; // ----------------------------------------------------------------------------------------------- void altCallbackRX(); int main() { //first set the CS to high DigitalOut test1(D7); DigitalOut test2(D8); DigitalOut test3(D9); DigitalOut test4(D10); test1=1; test2=1; test3=1; test4=1; wait(0.1); UART_Mbed uart(USBTX, USBRX, 115200); MAVLinkBridge mb(&uart); if (!MAVLINK_COMM) { pc.printf("==== AIT UWB Range ====\r\n"); } SPI spi(DW_MOSI_PIN, DW_MISO_PIN, DW_SCLK_PIN); spi.format(8, 0); // Setup the spi for standard 8 bit data and SPI-Mode 0 (GPIO5, GPIO6 open circuit or ground on DW1000) // NOTE: Minimum Frequency 1MHz. Below it is now working. Could be something with the activation and deactivation of interrupts. spi.frequency(SPI_FREQUENCY); // with a 1MHz clock rate (worked up to 49MHz in our Test) // Setup interrupt pin // HACK //InterruptMultiplexer irq_mp(DW_IRQ_PIN); //irq_mp.getIRQ().rise(&irq_mp, &InterruptMultiplexer::trigger); // attach interrupt handler to rising edge of interrupt pin from DW1000 Timer timer; timer.start(); DW1000* dw_array[NUM_OF_DW_UNITS + 0]; MM2WayRanging* node_array[NUM_OF_DW_UNITS + 0]; // Instance of the two way ranging algorithm InterruptHandler* irq_mp_ptr_array[NUM_OF_DW_UNITS]; if (!MAVLINK_COMM) { pc.printf("Performing hardware reset of UWB modules\r\n"); } // == IMPORTANT == Create all DW objects first (this will cause a reset of the DW module) DW1000::hardwareReset(DW_RESET_PIN); for (int i = 0; i < 4; ++i) { // HACK irq_mp_ptr_array[i] = new InterruptHandler(DW_IRQ_PIN); InterruptHandler& irq_mp = *irq_mp_ptr_array[i]; if (i == 0) { irq_mp.getIRQ().rise(&irq_mp, &InterruptHandler::trigger); // attach interrupt handler to rising edge of interrupt pin from DW1000 } dw_array[i] = new DW1000(spi, irq_mp, DW_CS_PINS[i]); // Device driver instanceSPI pins: (MOSI, MISO, SCLK, CS, IRQ, RESET) // dw_array[1] = new DW1000(spi, irq_mp, DW_CS_PINS[1]); // Device driver instanceSPI pins: (MOSI, MISO, SCLK, CS, IRQ, RESET) DW1000& dw = *dw_array[i]; wait(0.1) ; dw.setEUI(0xFAEDCD01FAEDCD01 + i); wait(0.1) ; // basic methods called to check if we have a working SPI connection node_array[i] = new MM2WayRanging(*dw_array[i]); pc.printf("\r\nUnit %d\r\n", i); pc.printf("\r\nDecaWave 1.0 up and running!\r\n"); // Splashscreen pc.printf("DEVICE_ID register: 0x%X\r\n", dw.getDeviceID()); pc.printf("EUI register: %016llX\r\n", dw.getEUI()); pc.printf("Voltage: %.2fV\r\n", dw.getVoltage()); MM2WayRanging& node = *node_array[i]; node.isAnchor = ANCHOR; // declare as anchor or beacon if (ANCHOR) { node.address = ANCHOR_ADDRESS_OFFSET + i; if (!MAVLINK_COMM) pc.printf("This node is Anchor node %d\r\n", node.address); } else { node.address = i; if (!MAVLINK_COMM) pc.printf("This node is a Beacon\r\n"); } node.setInterrupt(false); /*uint8_t remote_address = ANCHOR_ADDRESS_OFFSET + 0; node.requestRanging(remote_address); rangeAndDisplayAll(node, mb, timer); irq_mp.clear(); wait(0.5);*/ } wait(1); uint8_t remote_address = ANCHOR_ADDRESS_OFFSET + 0; //for (int j = 0; j < NUM_OF_DW_UNITS; ++j) { MM2WayRanging& node = *node_array[0]; node.setInterrupt(true); rangeAndDisplayAll(node, mb, timer); node.setInterrupt(false); wait(0.1); // } // // MM2WayRanging& node = *node_array[0]; // node.requestRanging(remote_address); // pc.printf("%d - %d> dist = %.4f\r\n", node.address, remote_address, node.distances[remote_address]); //rangeAndDisplayAll(node, mb, timer); if (!MAVLINK_COMM) pc.printf("Entering main loop\r\n"); //for (int i = 0; i < 2; ++i) { // // if (ANCHOR) { // pc.printf("."); // to see if the core and output is working // wait_ms(1); // } else { // for (int j = 0; j < NUM_OF_DW_UNITS; ++j) { // MM2WayRanging& node = *node_array[j]; // rangeAndDisplayAll(node, mb, timer); // wait(0.1); // } // } // } while (true) { } }