AMiRo-OS

#define BL_CALLBACK_TABLE_ADDR  (0x08000000 + 0x01C0)

#define BL_MAGIC_NUMBER         ((uint32_t)0xFF669900u)

#define SHUTDOWN_NONE             0

#define SHUTDOWN_TRANSPORTATION   1

#define SHUTDOWN_DEEPSLEEP        2

#define SHUTDOWN_HIBERNATE        3

#define SHUTDOWN_RESTART          4

#define SHUTDOWN_HANDLE_REQUEST   5

#include <ch.hpp>

#include <amiro/util/util.h>

#include <global.hpp>

#include <exti.hpp>

#include <chprintf.h>

#include <shell.h>

using namespace chibios_rt;

Global global;

struct blVersion_t {

  const uint8_t identifier;

  const uint8_t major;

  const uint8_t minor;

  const uint8_t patch;

} __attribute__((packed));

void systemShutdown() {

  types::kinematic k;

  uint8_t i;

//  // make sure we assert SYS_PD_N to delay shutdown until we're done.

//  boardRequestShutdown();

    // stop the user thread

  global.userThread.requestTerminate();

  global.userThread.wait();

  k.x = 0x00u;

  k.w_z = 0x00u;

  // stop wheels

  global.robot.setTargetSpeed(k);

  global.robot.terminate();

  for (i = 0x00; i < global.vcnl4020.size(); i++) {

    global.vcnl4020[i].requestTerminate();

    global.vcnl4020[i].wait();

  }

  global.ina219.requestTerminate();

  global.ina219.wait();

  global.hmc5883l.requestTerminate();

  global.hmc5883l.wait();

  global.l3g4200d.requestTerminate();

  global.l3g4200d.wait();

  global.motorcontrol.requestTerminate();

  global.motorcontrol.wait();

  global.odometry.requestTerminate();

  global.odometry.wait();

  // stop I²C

  for (i = 0; i < global.V_I2C2.size(); ++i)

    global.V_I2C2[i].stop();

  global.HW_I2C2.stop();

  global.lis331dlh.requestTerminate();

  global.lis331dlh.wait();

  global.lis331dlh.configure(&global.accel_sleep_config);

//  global.lis331dlh.start(NORMALPRIO +4);

//  boardWriteIoPower(0);

//  boardStandby();

  return;

}

//void (*shellcmd_t)(BaseSequentialStream *chp, int argc, char *argv[]);

void shellRequestShutdown(BaseSequentialStream *chp, int argc, char *argv[]) {

  chprintf(chp, "shellRequestShutdown\n");

  /* if nor argument was given, print some help text */

  if (argc == 0 || strcmp(argv[0], "help") == 0) {

    chprintf(chp, "\tUSAGE:\n");

    chprintf(chp, "> shutdown <type>\n");

    chprintf(chp, "\n");

    chprintf(chp, "\ttype\n");

    chprintf(chp, "The type of shutdown to perform.\n");

    chprintf(chp, "Choose one of the following types:\n");

    chprintf(chp, "  transportation - Ultra low-power mode with all wakeups disabled.\n");

    chprintf(chp, "                   The robot can not be charged.\n");

    chprintf(chp, "  deepsleep      - Ultra low-power mode with several wakeups enabled.\n");

    chprintf(chp, "                   The robot can only be charged via the power plug.\n");

    chprintf(chp, "  hibernate      - Medium low-power mode, but with full charging capabilities.\n");

    chprintf(chp, "  restart        - Performs a system restart.\n");

    chprintf(chp, "Alternatively, you can use the shortcuts 't', 'd', 'h', and 'r' respectively.");

    chprintf(chp, "\n");

    return;

  }

  if (strcmp(argv[0],"transportation") == 0 || strcmp(argv[0],"t") == 0) {

    shutdown_now = SHUTDOWN_TRANSPORTATION;

    chprintf(chp, "shutdown to transportation mode initialized\n");

  } else if (strcmp(argv[0],"deepsleep") == 0 || strcmp(argv[0],"d") == 0) {

    shutdown_now = SHUTDOWN_DEEPSLEEP;

    chprintf(chp, "shutdown to deepsleep mode initialized\n");

  } else if (strcmp(argv[0],"hibernate") == 0 || strcmp(argv[0],"h") == 0) {

    shutdown_now = SHUTDOWN_HIBERNATE;

    chprintf(chp, "shutdown to hibernate mode initialized\n");

  } else if (strcmp(argv[0],"restart") == 0 || strcmp(argv[0],"r") == 0) {

    chprintf(chp, "restart initialized\n");

    shutdown_now = SHUTDOWN_RESTART;

  } else {

    chprintf(chp, "ERROR: unknown argument!\n");

    shutdown_now = SHUTDOWN_NONE;

  }

  return;

}

void shellRequestWakeup(BaseSequentialStream *chp, int argc, char *argv[]) {

  int i;

  chprintf(chp, "shellRequestWakeup\n");

  for (i = 0x00u; i < argc; i++)

    chprintf(chp, "%s\n", argv[i]);

  boardWakeup();

}

void shellRequestGetMemoryData(BaseSequentialStream *chp, int argc, char *argv[]) {

  enum Type {HEX, U8, U16, U32, S8, S16, S32};

  chprintf(chp, "shellRequestReadData\n");

  if (argc < 2 || strcmp(argv[0],"help") == 0)

  {

    chprintf(chp, "Usage: %s\n","get_memory_data <type> <start> [<count>]");

    chprintf(chp, "\n");

    chprintf(chp, "\ttype\n");

    chprintf(chp, "The data type as which to interpret the data.\n");

    chprintf(chp, "Choose one of the following types:\n");

    chprintf(chp, "  hex - one byte as hexadecimal value\n");

    chprintf(chp, "  u8  - unsigned integer (8 bit)\n");

    chprintf(chp, "  u16 - unsigned integer (16 bit)\n");

    chprintf(chp, "  u32 - unsigned integer (32 bit)\n");

    chprintf(chp, "  s8  - signed integer (8 bit)\n");

    chprintf(chp, "  s16 - signed integer (16 bit)\n");

    chprintf(chp, "  s32 - signed integer (32 bit)\n");

    chprintf(chp, "\tstart\n");

    chprintf(chp, "The first byte to read from the memory.\n");

    chprintf(chp, "\tcount [default = 1]\n");

    chprintf(chp, "The number of elements to read.\n");

    chprintf(chp, "\n");

    chprintf(chp, "\tNOTE\n");

    chprintf(chp, "Type conversions of this function might fail.\n");

    chprintf(chp, "If so, use type=hex and convert by hand.\n");

    chprintf(chp, "\n");

    return;

  }

  uint8_t type_size = 0;

  Type type = HEX;

  if (strcmp(argv[0],"hex") == 0) {

    type_size = sizeof(unsigned char);

    type = HEX;

  } else if(strcmp(argv[0],"u8") == 0) {

    type_size = sizeof(uint8_t);

    type = U8;

  } else if(strcmp(argv[0],"u16") == 0) {

    type_size = sizeof(uint16_t);

    type = U16;

  } else if(strcmp(argv[0],"u32") == 0) {

    type_size = sizeof(uint32_t);

    type = U32;

  } else if(strcmp(argv[0],"s8") == 0) {

    type_size = sizeof(int8_t);

    type = S8;

  } else if(strcmp(argv[0],"s16") == 0) {

    type_size = sizeof(int16_t);

    type = S16;

  } else if(strcmp(argv[0],"s32") == 0) {

    type_size = sizeof(int32_t);

    type = S32;

  } else {

    chprintf(chp, "First argument invalid. Use 'get_memory_data help' for help.\n");

    return;

  }

  unsigned int start_byte = atoi(argv[1]);

  unsigned int num_elements = 1;

  if (argc >= 3)

    num_elements = atoi(argv[2]);

  const size_t eeprom_size = EEPROM::getsize(&global.at24c01);

  uint8_t buffer[eeprom_size];

  if (start_byte + (type_size * num_elements) > eeprom_size) {

    num_elements = (eeprom_size - start_byte) / type_size;

    chprintf(chp, "Warning: request exceeds eeprom size -> limiting to %u values.\n", num_elements);

  }

  chFileStreamSeek((BaseFileStream*)&global.at24c01, start_byte);

  // Work around, because stm32f1 cannot read a single byte

  if (type_size*num_elements < 2)

    type_size = 2;

  uint32_t bytes_read = chSequentialStreamRead((BaseFileStream*)&global.at24c01, buffer, type_size*num_elements);

  if (bytes_read != type_size*num_elements)

    chprintf(chp, "Warning: %u of %u requested bytes were read.\n", bytes_read, type_size*num_elements);

  for (unsigned int i = 0; i < num_elements; ++i) {

    switch (type) {

      case HEX:

        chprintf(chp, "%02X ", buffer[i]);

        break;

      case U8:

        chprintf(chp, "%03u ", ((uint8_t*)buffer)[i]);

        break;

      case U16:

        chprintf(chp, "%05u ", ((uint16_t*)buffer)[i]);

        break;

      case U32:

        chprintf(chp, "%010u ", ((uint32_t*)buffer)[i]);

        break;

      case S8:

        chprintf(chp, "%+03d ", ((int8_t*)buffer)[i]);

        break;

      case S16:

        chprintf(chp, "%+05d ", ((int16_t*)buffer)[i]);

        break;

      case S32:

        chprintf(chp, "%+010d ", ((int32_t*)buffer)[i]);

        break;

      default:

        break;

    }

  }

  chprintf(chp, "\n");

  return;

}

void shellRequestSetLights(BaseSequentialStream *chp, int argc, char *argv[]) {

  if (argc < 2 || argc == 3 ||strcmp(argv[0],"help") == 0) {

    chprintf(chp, "\tUSAGE:\n");

    chprintf(chp, "> set_lights <led mask> <white/red> [<green> <blue>]\n");

    chprintf(chp, "\n");

    chprintf(chp, "\tled mask\n");

    chprintf(chp, "The LEDs to be set.\n");

    chprintf(chp, "You can set multiple LEDs at once by adding the following values:\n");

    chprintf(chp, "  0x01 - rear left LED (SSW)\n");

    chprintf(chp, "  0x02 - left rear LED (WSW)\n");

    chprintf(chp, "  0x04 - left front LED (WNW)\n");

    chprintf(chp, "  0x08 - front left LED (NNW)\n");

    chprintf(chp, "  0x10 - front right LED (NNE)\n");

    chprintf(chp, "  0x20 - right front LED (ENE)\n");

    chprintf(chp, "  0x40 - right rear LED (ESE)\n");

    chprintf(chp, "  0x80 - rear right LED (SSE)\n");

    chprintf(chp, "\twhite/red\n");

    chprintf(chp, "If no optional argument is given, this arguments sets the white value of the selected LEDs.\n");

    chprintf(chp, "Otherwise this arguments sets the red color channel value.\n");

    chprintf(chp, "\tgreen\n");

    chprintf(chp, "Sets the green color channel value.\n");

    chprintf(chp, "\tblue\n");

    chprintf(chp, "Sets the blue color channel value.\n");

    chprintf(chp, "\n");

    chprintf(chp, "\tExample:\n");

    chprintf(chp, "This line will set the two most left and two most right LEDs to bright cyan.\n");

    chprintf(chp, "> set_lights 0x66 0 255 255\n");

    chprintf(chp, "\n");

    return;

  }

  int arg_mask = strtol(argv[0], NULL, 0);

  int red = strtol(argv[1], NULL, 0);

  int green = red;

  int blue = red;

  if (argc >= 4) {

    green = strtol(argv[2], NULL, 0);

    blue = strtol(argv[3], NULL, 0);

  }

  Color color(red, green, blue);

  if (arg_mask & 0x01) {

    global.robot.setLightColor(constants::LightRing::LED_SSW, color);

  }

  if (arg_mask & 0x02) {

    global.robot.setLightColor(constants::LightRing::LED_WSW, color);

  }

  if (arg_mask & 0x04) {

    global.robot.setLightColor(constants::LightRing::LED_WNW, color);

  }

  if (arg_mask & 0x08) {

    global.robot.setLightColor(constants::LightRing::LED_NNW, color);

  }

  if (arg_mask & 0x10) {

    global.robot.setLightColor(constants::LightRing::LED_NNE, color);

  }

  if (arg_mask & 0x20) {

    global.robot.setLightColor(constants::LightRing::LED_ENE, color);

  }

  if (arg_mask & 0x40) {

    global.robot.setLightColor(constants::LightRing::LED_ESE, color);

  }

  if (arg_mask & 0x80) {

    global.robot.setLightColor(constants::LightRing::LED_SSE, color);

  }

  return;

}

void boardPeripheryCheck(BaseSequentialStream *chp) {

  msg_t result;

  chprintf(chp, "\nCHECK: START\n");

  // Check the accelerometer

  result = global.lis331dlh.getCheck();

  if (result == global.lis331dlh.CHECK_OK)

    chprintf(chp, "LIS331DLH: OK\n");

  else

    chprintf(chp, "LIS331DLH: FAIL\n");

  // Self-test accelerometer

//  lis331dlh.printSelfTest(NULL);

  // Check the eeprom

  result = global.memory.getCheck();

  if ( result != global.memory.OK)

    chprintf(chp, "Memory Structure: FAIL\n");

  else

    chprintf(chp, "Memory Structure: OK\n");

  // Check the gyroscope

  result = global.l3g4200d.getCheck();

  if (result == global.l3g4200d.CHECK_OK)

    chprintf(chp, "L3G4200D: OK\n");

  else

    chprintf(chp, "L3G4200D: FAIL\n");

  // Check the magnetometer

  result = global.hmc5883l.getCheck();

  if (result == global.hmc5883l.CHECK_OK)

    chprintf(chp, "HMC5883L: OK\n");

  else

    chprintf(chp, "HMC5883L: FAIL\n");

  // Check the MUX

  result = global.HW_PCA9544.getCheck();

  if (result == global.HW_PCA9544.CHECK_OK)

    chprintf(chp, "PCA9544: OK\n");

  else

    chprintf(chp, "PCA9544: FAIL\n");

  // Check the power monitor

  chprintf(chp, "INA219:\tVDD (3.3V):\n");

  result = global.ina219.selftest();

  if (result == BaseSensor<>::NOT_IMPLEMENTED)

    chprintf(chp, "->\tnot implemented\n");

  else if (result != INA219::Driver::ST_OK)

    chprintf(chp, "->\tFAIL (error code 0x%02X)\n", result);

  else

    chprintf(chp, "->\tOK\n");

  // Check the proximitysensors

  for (uint8_t i = 0x00; i < global.vcnl4020.size(); i++) {

    result = global.vcnl4020[i].getCheck();

    if (result == global.vcnl4020[i].CHECK_OK)

      chprintf(chp, "VCNL4020: %d OK\n", i);

    else

      chprintf(chp, "VCNL4020: %d FAIL\n", i);

  }

  chprintf(chp, "CHECK: FINISH\n");

}

void shellRequestCheck(BaseSequentialStream *chp, int __unused argc, char __unused *argv[]) {

  chprintf(chp, "shellRequestCheck\n");

  boardPeripheryCheck(chp);

}

void shellRequestResetMemory(BaseSequentialStream *chp, int __unused argc, char __unused *argv[]) {

  chprintf(chp, "shellRequestInitMemory\n");

  msg_t res = global.memory.resetMemory();

  if ( res != global.memory.OK)

    chprintf(chp, "Memory Init: FAIL\n");

  else

    chprintf(chp, "Memory Init: OK\n");

}

void shellRequestGetBoardId(BaseSequentialStream *chp, int __unused argc, char __unused *argv[]) {

  chprintf(chp, "shellRequestGetBoardId\n");

  uint8_t id = 0xFFu;

  msg_t res = global.memory.getBoardId(&id);

  if (res != global.memory.OK)

    chprintf(chp, "Get Board ID: FAIL\n");

  else

    chprintf(chp, "Get Board ID: %u\n", id);

}

void shellRequestSetBoardId(BaseSequentialStream *chp, int argc, char *argv[]) {

  chprintf(chp, "shellRequestSetBoardId\n");

  if (argc == 0) {

    chprintf(chp, "Usage: %s\n","set_board_id <idx>");

  } else {

    msg_t res = global.memory.setBoardId(atoi(argv[0]));

    if (res != global.memory.OK)

      chprintf(chp, "Set Board ID: FAIL\n");

    else

      chprintf(chp, "Set Board ID: OK\n");

  }

}

void shellRequestResetCalibrationConstants(BaseSequentialStream *chp, int __unused argc, char __unused *argv[]) {

  chprintf(chp, "shellRequestResetCalibrationConstants\n");

  chprintf(chp, "Setting Ed=1.0f, Eb=1.0f\n");

  msg_t res;

  res = global.memory.setEd(1.0f);

  if (res != global.memory.OK)

    chprintf(chp, "Set Ed: FAIL\n");

  else

    chprintf(chp, "Set Ed: OK\n");

  res = global.memory.setEb(1.0f);

  if (res != global.memory.OK)

    chprintf(chp, "Set Eb: FAIL\n");

  else

    chprintf(chp, "Set Eb: OK\n");

}

void shellRequestGetCalibrationConstants(BaseSequentialStream *chp, int __unused argc, char __unused *argv[]) {

  chprintf(chp, "shellRequestGetCalibrationConstants\n");

  msg_t res;

  float Ed, Eb;

  res = global.memory.getEd(&Ed);

  if (res != global.memory.OK)

    chprintf(chp, "Get Ed: FAIL\n");

  else

    chprintf(chp, "Get Ed: OK \t Ed=%f\n", Ed);

  res = global.memory.getEb(&Eb);

  if (res != global.memory.OK)

    chprintf(chp, "Get Eb: FAIL\n");

  else

    chprintf(chp, "Get Eb: OK \t Eb=%f\n", Eb);

}

void shellRequestSetCalibrationConstants(BaseSequentialStream *chp, int argc, char *argv[]) {

  chprintf(chp, "shellRequestSetCalibrationConstants\n");

  msg_t res;

  if (argc != 3) {

    chprintf(chp, "Usage: %s\n","set_Ed_Eb <Ed> <Eb> <Write To Eeprom ? 1 : 0>");

    chprintf(chp, "(Call with floating point values for Ed and Eb values and write condition):\n");

    return;

  }

  // Get the write condition

  const float Ed = atof(argv[0]);

  const float Eb = atof(argv[1]);

  bool_t writeToMemory = atoi(argv[2]) == 1 ? true : false;

  res = global.motorcontrol.setWheelDiameterCorrectionFactor(Ed, writeToMemory);

  if (res != global.memory.OK)

    chprintf(chp, "Set Ed: FAIL\n");

  else

    chprintf(chp, "Set Ed: OK \t Ed=%f\n", Ed);

  res = global.motorcontrol.setActualWheelBaseDistance(Eb, writeToMemory);

  if (res != global.memory.OK)

    chprintf(chp, "Set Eb: FAIL\n");

  else

    chprintf(chp, "Set Eb: OK \t Ed=%f\n", Eb);

}

void shellRequestGetVcnl(BaseSequentialStream *chp, int argc, char *argv[]) {

  chprintf(chp, "shellRequestGetVcnl\n");

  // Print the sensor information

  if (argc != 1) {

    chprintf(chp, "Usage: %s\n","get_vcnl <rep>");

    return;

  }

  for (int32_t rep = 0x00; rep < atoi(argv[0]); ++rep) {

    for (uint8_t idx = 0x00; idx < global.vcnl4020.size(); idx++) {

     chprintf(chp, "%d: Ambi %d\tProx raw %d\tProx scaled %d\n", idx, global.vcnl4020[idx].getAmbientLight(), global.vcnl4020[idx].getProximity(), global.vcnl4020[idx].getProximityScaledWoOffset());

    }

    chprintf(chp, "\n\n");

    BaseThread::sleep(MS2ST(250));

  }

}

void shellRequestSetVcnlOffset(BaseSequentialStream *chp, int argc, char *argv[]) {

  chprintf(chp, "shellRequestSetVcnlOffset\n");

  if (argc != 2) {

    chprintf(chp, "Usage: %s\n","set_vcnl <idx> <offset>");

    return;

  }

  uint8_t vcnlIdx = static_cast<uint8_t>(atoi(argv[0]));

  uint16_t vcnlOffset = static_cast<uint16_t>(atoi(argv[1]));

  if (vcnlIdx >= global.vcnl4020.size()) {

    chprintf(chp, "Wrong VCNL index: Choose [0 .. %d]\n", global.vcnl4020.size()-1);

    return;

  }

  msg_t res = global.memory.setVcnl4020Offset(vcnlOffset, vcnlIdx);

  if (res != global.memory.OK) {

    chprintf(chp, "Set Offset: FAIL\n");

  } else {

    chprintf(chp, "Set Offset: OK\n");

    global.vcnl4020[vcnlIdx].setProximityOffset(vcnlOffset);

  }

}

void shellRequestResetVcnlOffset(BaseSequentialStream *chp, int argc, char *argv[]) {

  msg_t res = global.memory.OK;

  for (uint8_t idx = 0; idx < 4; ++idx) {

    msg_t r = global.memory.setVcnl4020Offset(0, idx);

    if (r == global.memory.OK) {

      global.vcnl4020[idx].setProximityOffset(0);

    } else {

      chprintf(chp, "Reset Offset %u: FAIL\n", idx);

      res = r;

    }

  }

  if (res == global.memory.OK) {

    chprintf(chp, "Reset Offset: DONE\n");

  }

  return;

}

void shellRequestGetVcnlOffset(BaseSequentialStream *chp, int argc, char *argv[]) {

  chprintf(chp, "shellRequestGetVcnlOffset\n");

  if (argc != 1) {

    chprintf(chp, "Call with decimal numbers: get_vcnl <idx>\n");

    return;

  }

  uint8_t vcnlIdx = static_cast<uint8_t>(atoi(argv[0]));

  if (vcnlIdx >= global.vcnl4020.size()) {

    chprintf(chp, "Wrong VCNL index: Choose [0 .. %d]\n", global.vcnl4020.size()-1);

    return;

  }

  uint16_t vcnlOffset;

  msg_t res = global.memory.getVcnl4020Offset(&vcnlOffset, vcnlIdx);

  if (res != global.memory.OK) {

    chprintf(chp, "Get Offset: FAIL\n");

  } else {

    chprintf(chp, "Get Offset: OK \t Offset=%d\n", vcnlOffset);

  }

}

void shellRequestCalib(BaseSequentialStream *chp, int __unused argc, char __unused *argv[]) {

  chprintf(chp, "shellRequestCalib\n");

  global.robot.calibrate();

}

void shellRequestGetRobotId(BaseSequentialStream *chp, int __unused argc, char __unused *argv[]) {

  chprintf(chp, "shellRequestGetRobotId\n");

  chprintf(chp, "Robot ID: %u\n", global.robot.getRobotID());

  if (global.robot.getRobotID() == 0)

    chprintf(chp, "Warning: The board ID seems to be uninitialized.\n");

}

void shellRequestGetSystemLoad(BaseSequentialStream *chp, int argc, char *argv[]) {

  chprintf(chp, "shellRequestGetSystemLoad\n");

  uint8_t seconds = 1;

  if (argc >= 1) {

    seconds = atoi(argv[0]);

  }

  chprintf(chp, "measuring CPU load for %u %s...\n", seconds, (seconds>1)? "seconds" : "second");

  const systime_t before = chThdGetTicks(chSysGetIdleThread());

  BaseThread::sleep(S2ST(seconds));

  const systime_t after = chThdGetTicks(chSysGetIdleThread());

  const float usage = 1.0f - (float(after - before) / float(seconds * CH_FREQUENCY));

  chprintf(chp, "CPU load: %3.2f%%\n", usage * 100);

  const uint32_t memory_total = 0x10000;

  const uint32_t memory_load = memory_total - chCoreStatus();

  chprintf(chp, "RAM load: %3.2f%% (%u / %u Byte)\n", float(memory_load)/float(memory_total) * 100, memory_load, memory_total);

}

void shellSwitchBoardCmd(BaseSequentialStream *chp, int argc, char *argv[]) {

  if (argc != 1) {

    chprintf(chp, "Call with decimal numbers: shell_board <idx>\n");

    return;

  }

  uint8_t boardIdx = static_cast<uint8_t>(atoi(argv[0]));

  chprintf(chp, "shellSwitchBoardCmd\n");

  global.sercanmux1.sendSwitchCmd(boardIdx);

}

void shellRequestGetBootloaderInfo(BaseSequentialStream* chp, int argc, char *argv[]) {

  // check the magic number

  switch (*((uint32_t*)(BL_CALLBACK_TABLE_ADDR))) {

    case (('A'<<24) | ('-'<<16) | ('B'<<8) | ('L'<<0)):

      chprintf((BaseSequentialStream*) &SD1, "Bootloader %u.%u.%u\n",

               ((blVersion_t*)(BL_CALLBACK_TABLE_ADDR + (1*4)))->major,

               ((blVersion_t*)(BL_CALLBACK_TABLE_ADDR + (1*4)))->minor,

               ((blVersion_t*)(BL_CALLBACK_TABLE_ADDR + (1*4)))->patch);

      break;

    case BL_MAGIC_NUMBER:

      chprintf((BaseSequentialStream*) &SD1, "Bootloader %u.%u.%u\n",

               *((uint32_t*)(BL_CALLBACK_TABLE_ADDR + (1*4))),

               *((uint32_t*)(BL_CALLBACK_TABLE_ADDR + (1*4))),

               *((uint32_t*)(BL_CALLBACK_TABLE_ADDR + (1*4))));

      break;

    default:

      chprintf((BaseSequentialStream*) &SD1, "Bootloader incompatible\n");

      break;

  }

  return;

}

void shellRequestMotorDrive(BaseSequentialStream *chp, int argc, char *argv[]) {

  types::kinematic tmp;

  tmp.w_z = 0;

  tmp.x = 0;

  if (argc == 1){

    chprintf(chp, "Set speed to %i um/s \n", atoi(argv[0]));

    tmp.x = atoi(argv[0]);

  } else {

    if(argc == 2){

      chprintf(chp, "Set speed to %i \n um/s", atoi(argv[0]));

      chprintf(chp, "Set angular speed to %i \n urad/s", atoi(argv[1]));

      tmp.x = atoi(argv[0]);

      tmp.w_z= atoi(argv[1]);

    } else {

      chprintf(chp, "Wrong number of parameters given (%i), stopping robot \n", argc);

    }

  }

  global.motorcontrol.setTargetSpeed(tmp);

  return;

}

void shellRequestMotorStop(BaseSequentialStream *chp, int argc, char *argv[]) {

  types::kinematic tmp;

  tmp.x = 0;

  tmp.w_z = 0;

  global.motorcontrol.setTargetSpeed(tmp);

  chprintf(chp, "stop");

return;

}

void shellRequestMotorCalibrate(BaseSequentialStream *chp, int argc, char *argv[]) {

  global.motorcontrol.resetGains();

  chprintf((BaseSequentialStream*)&global.sercanmux1, "motor calibration starts in five seconds...\n");

  BaseThread::sleep(MS2ST(5000));

  global.motorcontrol.isCalibrating = true;

  return;

}

void shellRequestMotorGetGains(BaseSequentialStream *chp, int argc, char *argv[]){

  global.motorcontrol.printGains();

  return;

}

void shellRequestMotorResetGains(BaseSequentialStream *chp, int argc, char *argv[]) {

  global.motorcontrol.resetGains();;

  return;

}

/**

 * Calibrate the thresholds for left and right sensor to get the maximum threshold and to

 * be able to detect the correction direction.

 * In this case it is expected that the FL-Sensor sould be in the white part of the edge and the FR-Sensor in the black one.

 * 

 * Note: invert the threshs to drive on the other edge.

 * 

 * */

void calibrateLineSensores(BaseSequentialStream *chp, int argc, char *argv[]) {

    int vcnl4020AmbientLight[4];

    int vcnl4020Proximity[4];

    int rounds = 1;

    int proxyL = 0;

    int proxyR = 0;

    int maxDelta = 0;

  if (argc == 1){

    chprintf(chp, "Test %i rounds \n", atoi(argv[0]));

    rounds = atoi(argv[0]);

  }else{

    chprintf(chp, "Usage: calbrate_line_sensors [1,n]\nThis will calibrate the thresholds for the left and right sensor\naccording to the maximum delta value recorded.\n");

    return;

  }

  for (int j = 0; j < rounds; j++) {

    for (int i = 0; i < 4; i++) {

        vcnl4020AmbientLight[i] = global.vcnl4020[i].getAmbientLight();

        vcnl4020Proximity[i] = global.vcnl4020[i].getProximityScaledWoOffset();

    }

    int delta = abs(vcnl4020Proximity[constants::DiWheelDrive::PROX_FRONT_LEFT]

                  - vcnl4020Proximity[constants::DiWheelDrive::PROX_FRONT_RIGHT]);

    // Update proximity thresh

    if (delta > maxDelta) {

      maxDelta = delta;

      proxyL = vcnl4020Proximity[constants::DiWheelDrive::PROX_FRONT_LEFT];

      proxyR = vcnl4020Proximity[constants::DiWheelDrive::PROX_FRONT_RIGHT];

    }

    // if (vcnl4020Proximity[constants::DiWheelDrive::PROX_FRONT_RIGHT] > proxyR && vcnl4020Proximity[constants::DiWheelDrive::PROX_FRONT_LEFT] > proxyL ){

    //   delta *= -1;

    // }

    chprintf(chp,"FL: 0x%x, FR: 0x%x, Delta: %d, ProxyL: %x, ProxyR: %x, MaxDelta: %d\n", 

                  vcnl4020Proximity[constants::DiWheelDrive::PROX_FRONT_LEFT],

                  vcnl4020Proximity[constants::DiWheelDrive::PROX_FRONT_RIGHT],

                  delta,

                  proxyL,

                  proxyR,

                  maxDelta);

    // sleep(CAN::UPDATE_PERIOD);

    BaseThread::sleep(CAN::UPDATE_PERIOD);

  }

  chprintf(chp,"Sensors Calibrated: MaxDelta: %d, FL: 0x%x, FR: 0x%d\n", maxDelta, proxyL, proxyR);

  global.threshProxyL = proxyL;

  global.threshProxyR = proxyR;

  return;

}

void proxySensorData(BaseSequentialStream *chp, int argc, char *argv[]) {

  int vcnl4020AmbientLight[4];

  int vcnl4020Proximity[4];

  int rounds = 1;

  int proxyL = global.threshProxyL;

  int proxyR = global.threshProxyR;

  int maxDelta = 0;

  if (argc == 1){

    chprintf(chp, "Test %i rounds \n", atoi(argv[0]));

    rounds = atoi(argv[0]);

  }

  for (int j = 0; j < rounds; j++) {

    for (int i = 0; i < 4; i++) {

        vcnl4020AmbientLight[i] = global.vcnl4020[i].getAmbientLight();

        vcnl4020Proximity[i] = global.vcnl4020[i].getProximityScaledWoOffset();

    }

    int delta = abs(vcnl4020Proximity[constants::DiWheelDrive::PROX_FRONT_LEFT]

                  - vcnl4020Proximity[constants::DiWheelDrive::PROX_FRONT_RIGHT]);

    // // Update proximity thresh

    // if (delta > maxDelta) {

    //   maxDelta = delta;

    //   proxyL = vcnl4020Proximity[constants::DiWheelDrive::PROX_FRONT_LEFT];

    //   proxyR = vcnl4020Proximity[constants::DiWheelDrive::PROX_FRONT_RIGHT];

    // }

    if (vcnl4020Proximity[constants::DiWheelDrive::PROX_FRONT_RIGHT] > proxyR && vcnl4020Proximity[constants::DiWheelDrive::PROX_FRONT_LEFT] > proxyL ){

      delta *= -1;

    }

    chprintf(chp,"WL: %x, FL: %x, FR: %x, WR: %x, ProxyL: %x, ProxyR: %x, Delta: %d\n", 

                  vcnl4020Proximity[constants::DiWheelDrive::PROX_WHEEL_LEFT],

                  vcnl4020Proximity[constants::DiWheelDrive::PROX_FRONT_LEFT],

                  vcnl4020Proximity[constants::DiWheelDrive::PROX_FRONT_RIGHT],

                  vcnl4020Proximity[constants::DiWheelDrive::PROX_WHEEL_RIGHT],

                  proxyL,

                  proxyR,

                  delta);

    // sleep(CAN::UPDATE_PERIOD);

    BaseThread::sleep(CAN::UPDATE_PERIOD);

  }

  chprintf(chp,"Summary: MaxDelta: %d, FL: %x, FR: %d\n", maxDelta, proxyL, proxyR);

  return;

}

static const ShellCommand commands[] = {

  {"shutdown", shellRequestShutdown},

  {"wakeup", shellRequestWakeup},

  {"check", shellRequestCheck},

  {"reset_memory", shellRequestResetMemory},

  {"get_board_id", shellRequestGetBoardId},

  {"set_board_id", shellRequestSetBoardId},

  {"get_memory_data", shellRequestGetMemoryData},

  {"get_vcnl", shellRequestGetVcnl},

  {"calib_vcnl_offset", shellRequestCalib},

  {"set_vcnl_offset", shellRequestSetVcnlOffset},

  {"reset_vcnl_offset", shellRequestResetVcnlOffset},

  {"get_vcnl_offset", shellRequestGetVcnlOffset},

  {"reset_Ed_Eb", shellRequestResetCalibrationConstants},

  {"get_Ed_Eb", shellRequestGetCalibrationConstants},

  {"set_Ed_Eb", shellRequestSetCalibrationConstants},

  {"get_robot_id", shellRequestGetRobotId},

  {"get_system_load", shellRequestGetSystemLoad},

  {"set_lights", shellRequestSetLights},

  {"shell_board", shellSwitchBoardCmd},

  {"get_bootloader_info", shellRequestGetBootloaderInfo},

  {"motor_drive", shellRequestMotorDrive},

  {"motor_stop", shellRequestMotorStop},

  {"motor_calibrate", shellRequestMotorCalibrate},

  {"motor_getGains", shellRequestMotorGetGains},

  {"motor_resetGains", shellRequestMotorResetGains},

  {"dev_proxi_sensor_data", proxySensorData},

  {"calibrate_line", calibrateLineSensores},

  {NULL, NULL}

};

static const ShellConfig shell_cfg1 = {

  (BaseSequentialStream *) &global.sercanmux1,

  commands

};

void initPowermonitor(INA219::Driver &ina219, const float shuntResistance_O, const float maxExpectedCurrent_A, const uint16_t currentLsb_uA)

{

  INA219::CalibData calibData;

  INA219::InitData initData;

  calibData.input.configuration.content.brng = INA219::Configuration::BRNG_16V;

  calibData.input.configuration.content.pg = INA219::Configuration::PGA_40mV;

  calibData.input.configuration.content.badc = INA219::Configuration::ADC_68100us;

  calibData.input.configuration.content.sadc = INA219::Configuration::ADC_68100us;

  calibData.input.configuration.content.mode = INA219::Configuration::MODE_ShuntBus_Continuous;

  calibData.input.shunt_resistance_O = shuntResistance_O;

  calibData.input.max_expected_current_A = maxExpectedCurrent_A;

  calibData.input.current_lsb_uA = currentLsb_uA;

  if (ina219.calibration(&calibData) != BaseSensor<>::SUCCESS)

  {

    chprintf((BaseSequentialStream*)&SD1, "WARNING: calibration of INA219 failed.\n");

  }

  initData.configuration.value = calibData.input.configuration.value;

  initData.calibration = calibData.output.calibration_value;

  initData.current_lsb_uA = calibData.output.current_lsb_uA;

  if (ina219.init(&initData) != BaseSensor<>::SUCCESS)

  {

    chprintf((BaseSequentialStream*)&SD1, "WARNING: initialization of INA219 failed.\n");

  }

  if (calibData.input.current_lsb_uA != initData.current_lsb_uA)

  {

    chprintf((BaseSequentialStream*)&SD1, "NOTE: LSB for current measurement was limited when initializing INA219 (%u -> %u)", calibData.input.current_lsb_uA, initData.current_lsb_uA);

  }

  return;

}

/*

 * Application entry point.

 */

int main(void) {

//  int16_t accel;

  Thread *shelltp = NULL;

  /*

   * System initializations.

   * - HAL initialization, this also initializes the configured device drivers

   *   and performs the board-specific initializations.

   * - Kernel initialization, the main() function becomes a thread and the