29 Commits

Author SHA1 Message Date
3045b88413 Improved config memory 2024-04-13 14:44:52 +03:00
91a7247bee Created regulated output 2024-04-13 14:20:45 +03:00
e4bd6d2e04 New feature update 2024-04-13 12:29:03 +03:00
c3bc42fa18 Added dccd logic config 2024-04-13 12:28:47 +03:00
a3d4ffd548 Handbrake timeout fix 2024-04-13 12:28:30 +03:00
8449ca098e Added lock 2024-04-13 12:27:58 +03:00
57ab8bda6a Interpolation bug fix 2024-04-13 12:27:29 +03:00
e7797e8d1c Added hbrake timeout and adjustable brake force 2024-04-12 17:40:00 +03:00
82838c25cb Reduced magic numbers 2024-04-12 17:33:13 +03:00
2647e1cf14 Added display user setting persist 2024-04-12 17:26:09 +03:00
0a2a040cf0 Added memory config class 2024-04-12 17:16:58 +03:00
f8b62d4b00 Could be working version 2024-04-12 15:18:31 +03:00
5bb3ebe1bf Created current fuse logic 2024-04-12 11:51:21 +03:00
22ac8240a2 Added absolute subtract 2024-04-12 11:51:10 +03:00
Andis Zīle
f1edc6e15a Changed logic 2024-04-11 23:03:33 +03:00
Andis Zīle
a05c53401f Saved work 2024-04-10 22:44:02 +03:00
Andis Zīle
8bac1f4787 Finished const voltage output 2024-04-10 21:04:31 +03:00
4adcb7eba9 saved work 2024-04-10 17:53:54 +03:00
f320bfefb7 Changes 2024-04-10 15:46:26 +03:00
8f7e5036e7 Started coil driver class 2024-04-10 15:46:17 +03:00
78de20e05b Created pot class 2024-04-10 15:46:07 +03:00
417ecf4128 Created LED display class 2024-04-10 15:46:00 +03:00
dda6c7a2ad Created button class 2024-04-10 15:45:50 +03:00
6199f3c43f Created default mapping 2024-04-10 15:45:32 +03:00
6d5c8d226f Created OD common pwm class 2024-04-10 15:45:17 +03:00
0b9d6fa780 Created digital IO classes 2024-04-10 15:45:03 +03:00
989d5a1f13 Will redo this 2024-04-10 15:44:41 +03:00
c50b3d90bf board abstraction 2024-04-08 19:40:48 +03:00
dd4ff43515 Prepared for Cpp version 2024-03-12 21:27:25 +02:00
76 changed files with 3367 additions and 2656 deletions

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/**** Includes ****/
#include "hal/udccd_hal.h"
#include "analog.h"
/**** Private variables ****/
static const uint8_t ICOIL_MUL = 215;
static const uint8_t ICOIL_DIV = 22;
static const int16_t ICOIL_OFF = 0;
static const uint8_t ICOIL_CNT = 1;
static const uint8_t UCOIL_MUL = 20;
static const uint8_t UCOIL_DIV = 1;
static const int16_t UCOIL_OFF = 0;
static const uint8_t UCOIL_CNT = 1;
static const uint8_t UBAT_MUL = 20;
static const uint8_t UBAT_DIV = 1;
static const int16_t UBAT_OFF = 0;
static const uint8_t UBAT_CNT = 1;
static const uint8_t IBAT_MUL = 235;
static const uint8_t IBAT_DIV = 6;
static const int16_t IBAT_OFF = 0;
static const uint8_t IBAT_CNT = 1;
static const uint8_t POT_MUL = 215;
static const uint8_t POT_DIV = 44;
static const int16_t POT_OFF = 0;
static const uint8_t POT_CNT = 1;
static const uint8_t MODE_MUL = 215;
static const uint8_t MODE_DIV = 44;
static const int16_t MODE_OFF = 0;
static const uint8_t MODE_CNT = 1;
/**** Private function declarations ****/
static uint16_t ConvertSIntShort(int32_t in);
static uint16_t ConvertUintShort(uint32_t in);
static uint16_t read_ch(adcCh_t ch, uint16_t gnd_raw, uint8_t mul, uint8_t div, int16_t offset, uint8_t samples);
/**** Public function definitions ****/
void Analog_UpdateAll(analog_t* meas)
{
uint16_t gnd_lvl = HAL_ADC_Read(ADC_GND);
meas->hb_currnet = read_ch(ADC_ICOIL, 0, ICOIL_MUL, ICOIL_DIV, ICOIL_OFF, ICOIL_CNT ); //mA
meas->hb_voltage = read_ch(ADC_UCOIL, 0, UCOIL_MUL, UCOIL_DIV, UCOIL_OFF, UCOIL_CNT ); //mV
meas->supply_current = read_ch(ADC_IBAT , 0, IBAT_MUL , IBAT_DIV , IBAT_OFF , IBAT_CNT ); //mA
meas->supply_voltage = read_ch(ADC_UBAT , 0, UBAT_MUL , UBAT_DIV , UBAT_OFF , UBAT_CNT ); //mV
meas->pot_voltage = read_ch(ADC_POT , 0, POT_MUL , POT_DIV , POT_OFF , POT_CNT ); //mV
meas->mode_voltage = read_ch(ADC_MODE , 0, MODE_MUL , MODE_DIV , MODE_OFF , MODE_CNT ); //mV
// Calculate derived measurements
// Halfbridge output power
uint32_t temp = (uint32_t)meas->hb_currnet * (uint32_t)meas->hb_voltage;
temp /= 1000;
meas->hb_power = ConvertUintShort(temp);
// Halfbridge output resistance
if(meas->hb_currnet == 0) meas->hb_resistance = 0xFFFF;
else if(meas->hb_voltage == 0) meas->hb_resistance = 0;
else
{
temp = (uint32_t)meas->hb_voltage * 1000;
temp /= (uint32_t)meas->hb_currnet;
meas->hb_resistance = ConvertUintShort(temp);
}
// Supply power
temp = (uint32_t)meas->supply_current * (uint32_t)meas->supply_voltage;
temp /= 1000;
meas->supply_power = ConvertUintShort(temp);
}
static uint16_t read_ch(adcCh_t ch, uint16_t gnd_raw, uint8_t mul, uint8_t div, int16_t offset, uint8_t samples)
{
//Sanity check
if(div==0) return 0xFFFF;
// Do at least one sample
if(samples<1) samples = 1;
// Read ADC value
int32_t raw = 0;
for(uint8_t i=0; i<samples; i++)
{
raw += (int32_t)HAL_ADC_Read(ch);
}
// Do average
if(samples != 1)
{
raw /= samples;
};
// Remove GND level
if(gnd_raw) raw = raw - (int32_t)gnd_raw;
// Convert to target units
raw = raw * mul;
if(div!=1) raw /= div;
raw += offset;
return ConvertSIntShort(raw);
}
static uint16_t ConvertSIntShort(int32_t in)
{
if(in <= 0) return 0;
else if(in >= 0x0000FFFF) return 0xFFFF;
else return (uint16_t)in;
}
static uint16_t ConvertUintShort(uint32_t in)
{
if(in == 0) return 0;
else if(in >= 0x0000FFFF) return 0xFFFF;
else return (uint16_t)in;
}

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#ifndef ANALOG_H_
#define ANALOG_H_
/**** Includes ****/
#include <stdint.h>
/**** Public definitions ****/
typedef struct {
uint16_t hb_currnet;
uint16_t hb_voltage;
uint16_t hb_power;
uint16_t hb_resistance;
uint16_t supply_current;
uint16_t supply_voltage;
uint16_t supply_power;
uint16_t pot_voltage;
uint16_t mode_voltage;
} analog_t;
/**** Public function declarations ****/
void Analog_UpdateAll(analog_t* meas);
#endif /* ANALOG_H_ */

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#ifndef LEVEL_T_H_
#define LEVEL_T_H_
/**** Public definitions ****/
typedef enum {
HIZ = -1,
LOW = 0,
HIGH = 1
} level_t;
#endif /* LEVEL_T_H_ */

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/**** Includes ****/
#include "hal/udccd_hal.h"
#include "config.h"
/**** Public function definitions ****/
void Init_HW(void)
{
hwConfig_t hwCfg;
hwCfg.adc_clk_prescaler = ADC_DIV2;
hwCfg.adc_auto_wake = 1;
// 64kHz PWM
hwCfg.pwm_timer_prescaler = TIM_DIV1;
hwCfg.pwm_timer_top = 0x01FF;
// 1.9Hz..62.5kHz Speed input
hwCfg.freq_timer_prescaler = TIM_DIV64;
// 1kHz systick
hwCfg.systick_timer_top = 125;
hwCfg.systick_timer_prescaler = TIM_DIV64;
// No extra features
hwCfg.uart_prescaler = 0;
hwCfg.disable_unused = 0;
hwCfg.en_watchdog = 0;
HAL_Init_Min(&hwCfg);
}

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#ifndef CONFIG_H_
#define CONFIG_H_
/**** Includes ****/
#include <stdint.h>
/**** Public function declarations ****/
void Init_HW(void);
#endif /* CONFIG_H_ */

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/**** Includes ****/
#include "filter_iir_lpf.h"
/**** Private variables ****/
/**** Public function definitions ****/
uint16_t LPF_Update(uint16_t new, uint16_t last, uint8_t strength)
{
if(strength==0) return new;
else if(strength==255) return last;
else
{
uint32_t temp = (uint32_t)last * strength;
temp += new * (255-strength);
temp /= 255;
//Limit to 16bits
if(temp > 0x0000FFFF) return 0xFFFF;
else return (uint16_t) temp;
}
}

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#ifndef FILTER_IIR_LPF_H_
#define FILTER_IIR_LPF_H_
/**** Includes ****/
#include <stdint.h>
/**** Public function declarations ****/
uint16_t LPF_Update(uint16_t new, uint16_t last, uint8_t strength);
#endif /* FILTER_IIR_LPF_H_ */

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#ifndef UDCCD_R8_BSP_H_
#define UDCCD_R8_BSP_H_
/**** Includes ****/
#include <stdint.h>
#include "../common/level.h"
/**** Public definitions ****/
//ADC definitions
typedef enum {
ADC_ICOIL = 0x00,
ADC_UCOIL = 0x01,
ADC_UBAT = 0x02,
ADC_IBAT = 0x03,
ADC_POT = 0x04,
ADC_MODE = 0x05,
ADC_TEMP = 0x08,
ADC_INTREF = 0x0E,
ADC_GND = 0x0F
} adcCh_t;
typedef enum {
ADC_DIV2 = 0x01,
ADC_DIV4 = 0x02,
ADC_DIV8 = 0x03,
ADC_DIV16 = 0x04,
ADC_DIV32 = 0x05,
ADC_DIV64 = 0x06,
ADC_DIV128 = 0x07
} adcDiv_t;
//Timer definitions
typedef enum {
TIM_DIV1 = 0x01,
TIM_DIV8 = 0x02,
TIM_DIV64 = 0x03,
TIM_DIV256 = 0x04,
TIM_DIV1024 = 0x05
} timerDiv_t;
typedef enum {
PWM_COIL = 'A',
PWM_LED = 'B'
} pwmCh_t;
typedef enum {
SPEED_1 = 3,
SPEED_0 = 4
} speedCh_t;
typedef struct {
adcDiv_t adc_clk_prescaler;
uint8_t adc_auto_wake;
timerDiv_t pwm_timer_prescaler;
uint16_t pwm_timer_top;
timerDiv_t freq_timer_prescaler;
uint16_t uart_prescaler;
uint8_t systick_timer_top;
timerDiv_t systick_timer_prescaler;
uint8_t disable_unused;
uint8_t en_watchdog;
} hwConfig_t;
/**** Public function declarations ****/
void HAL_Init_Min(hwConfig_t* hwCfg);
void HAL_Init_Extra(hwConfig_t* hwCfg);
level_t HAL_ReadLvl_Handbrake(void);
level_t HAL_ReadLvl_Brake(void);
level_t HAL_ReadLvl_Dimm(void);
level_t HAL_ReadLvl_BtnUp(void);
level_t HAL_ReadLvl_BtnDown(void);
level_t HAL_ReadLvl_BtnMode(void);
level_t HAL_ReadLvl_HandbrakePull(void);
level_t HAL_ReadLvl_CoilLow(void);
level_t HAL_ReadLvl_CoilHigh(void);
level_t HAL_ReadLvl_LedsPwm(void);
level_t HAL_ReadLvl_Speed0(void);
level_t HAL_ReadLvl_Speed1(void);
level_t HAL_ReadLvl_SpeedPull(void);
void HAL_SetPull_Handbrake(level_t lvl);
void HAL_SetPull_Speed(level_t lvl);
void HAL_ADC_Wake(void);
void HAL_ADC_Sleep(void);
uint16_t HAL_ADC_Read(adcCh_t ch);
void HAL_Coil_SetLowSide(uint8_t on);
void HAL_Coil_SetPWM(uint8_t percent);
void HAL_Coil_SetPWM16b(uint16_t value);
void HAL_LEDS_Set(uint8_t image);
uint8_t HAL_LEDS_Get(void);
void HAL_LEDS_SetPWM(uint8_t percent);
void HAL_PWM_Wake(void);
void HAL_PWM_Sleep(void);
void HAL_PWM_SetDuty16b(pwmCh_t ch, uint16_t value);
void HAL_PWM_SetDuty100(pwmCh_t ch, uint8_t percent);
#endif /* UDCCD_R8_BSP_H_ */

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/**** Includes ****/
#include <avr/io.h>
#include "udccd_hal.h"
/**** Private variables ****/
static uint8_t tim0_prescaler = 0x00;
static uint8_t tim1_prescaler = 0x00;
static uint8_t tim3_prescaler = 0x00;
static uint8_t tim4_prescaler = 0x00;
/**** Private function declarations ****/
static void PWM_SetOCx(pwmCh_t ch, uint16_t value);
/**** Public function definitions ****/
void HAL_Init_Min(hwConfig_t* hwCfg)
{
// PIN Configuration
//DCCD Enable and PWM
PORTB &= ~0x03; //Set low
DDRB |= 0x03; //Set as outputs
//LED PWM
PORTB &= ~0x04; //Set low
DDRB |= 0x04; //Set as output
//UART TX
PORTB |= 0x18; //Set high / pull-up on
DDRB |= 0x08; //Set as output
DDRB &= ~0x10; //Set as input
//Handbrake pull-up
PORTB |= 0x20; //Set high
DDRB |= 0x20; //Set as output
//Handbrake and Brake inputs
PORTB |= 0xC0; //Pull-up on
DDRB &= ~0xC0; //Set as input
// ADC inputs
PORTC &= ~0x3F; //Pull-up off
DDRC &= ~0x3F; //Set as inputs
// Reset
PORTC |= 0x40; //Pull-up on
DDRC &= ~0x40; //Set as input
// LED control
PORTD &= ~0x3F; //Set low
DDRD |= 0x3F; //Set as outputs
// Speed pull
PORTD &= ~0x40; //Set low
DDRD |= 0x40; //Set as outputs
// Dim input
PORTD |= 0x80; //Set pull-up on
DDRD &= ~0x80; //Set as input
// Speed inputs
PORTE &= ~0x05; //Set pull-down
DDRE |= 0x05; //Set as output
// Up/Down inputs
PORTE |= 0x0A; //Set pull-up on
DDRE &= ~0x0A; //Set as input
//ADC configuration
PRR0 &= ~0x01; //Enable ADC power
DIDR0 |= 0x1F; //Disable digital inputs, ADC0-ADC4
ADMUX = 0x40; //Set AVCC reference, Right adjust
ADCSRA = 0x00; //ADC Disabled, Single conversion, no IT
ADCSRA |= (uint8_t)hwCfg->adc_clk_prescaler;
ADCSRB = 0x00; //no trigger input
if(hwCfg->adc_auto_wake) ADCSRA |= 0x80; //Enable ADC
else PRR0 |= 0x01;
//DCCD and LED PWM configuration
PRR0 &= ~0x80; //Enable Timer1 power
TCCR1A = 0xF2; //Connect OC1A and OC1B, normal logic
TCCR1B = 0x18; //PWM, Phase & Frequency Correct ICR1 top, no clock, WGM:0xE
TCCR1C = 0x00;
TCNT1 = 0x0000;
OCR1A = 0x0000;
OCR1B = 0x0000;
ICR1 = (hwCfg->pwm_timer_top);
TIMSK1 = 0x00; //No interrupts
TIFR1 = 0x00; //Clear all flags
tim1_prescaler = (uint8_t)hwCfg->pwm_timer_prescaler;
TCCR1B |= tim1_prescaler; //Enable timer
}
void HAL_Init_Extra(hwConfig_t* hwCfg)
{
//Speed 1 input timer configuration
PRR1 &= ~0x01; //Enable Timer3 power
TCCR3A = 0x00; //OCx disconnected, WGM:0x0
TCCR3B = 0x80; //ICP Noise filter, Falling edge, no clock
TCCR3C = 0x00;
TCNT3 = 0x0000;
OCR3A = 0x0000;
OCR3B = 0x0000;
ICR3 = 0x0000;
TIMSK3 = 0x00;
//TIMSK3 |= 0x21; //ICP and OVF interrupts
TIFR3 = 0x00; //Clear all flags
tim3_prescaler = (uint8_t)hwCfg->freq_timer_prescaler;
TCCR3B |= tim3_prescaler; //Enable timer
//Speed 0 input timer configuration
PRR1 &= ~0x08; //Enable Timer4 power
TCCR4A = 0x00; //OCx disconnected, WGM:0x0
TCCR4B = 0x80; //ICP Noise filter, Falling edge, no clock
TCCR4C = 0x00;
TCNT4 = 0x0000;
OCR4A = 0x0000;
OCR4B = 0x0000;
ICR4 = 0x0000;
TIMSK4 = 0x00;
//TIMSK4 |= 0x21; //ICP and OVF interrupts
TIFR4 = 0x00; //Clear all flags
tim4_prescaler = (uint8_t)hwCfg->freq_timer_prescaler;
TCCR4B |= tim4_prescaler; //Enable timer
//UART1 configuration
PRR0 &= 0x10; //Enable UART1 power
UCSR1A = 0x00; //Clear flags, Single UART speed, Single processor mode
UCSR1B = 0x18; //Enable RX/TX hardware, 8bit char
//UCSR1B |= 0xC0; //Enable RX/TX interrupt,
UCSR1C = 0x06; ; //async, No parity, 1 stop bit, 8bit char,
UBRR1 = hwCfg->uart_prescaler; //UART baud rate select
//"Systick" timer configuration
PRR0 &= ~0x20; //Enable Timer0 power
TCCR0A = 0x02 ;//OC0x not connected, WGM 0x01-CTC OC0A TOP
TCCR0B = 0x00; //WGM 0x01-CTC, No clock
TIMSK0 = 0x00;
//TIMSK0 |= 0x01; //OVF interrupt enabled
TCNT0 = 0x00;
OCR0A = hwCfg->systick_timer_top;
OCR0B= 0x00;
TIFR0 = 0x00; //Reset all flags
tim0_prescaler = (uint8_t)hwCfg->systick_timer_prescaler;
TCCR0B |= tim0_prescaler;
//Disabled not used power configuration
if(hwCfg->disable_unused)
{
//Disable power to not used peripherals
PRR0 |= 0xC6; //Disable TWI0, TIM2, SPI0, UART0
PRR1 |= 0x34; //Disable TWI1, PRTC, SPI1
}
//Watchdog configuration
if(hwCfg->en_watchdog)
{
//watchdog timer setup
WDTCSR |= 0x10; //Change enable
WDTCSR |= 0x0D; //System reset mode, 0.5s period.
//use special instruction to reset watchdog timer
};
}
// Handbrake input
level_t HAL_ReadLvl_Handbrake(void)
{
if(PINB & 0x40) return HIGH;
else return LOW;
}
// Brakes input
level_t HAL_ReadLvl_Brake(void)
{
if(PINB & 0x80) return HIGH;
else return LOW;
}
// Dimm input
level_t HAL_ReadLvl_Dimm(void)
{
if(PIND & 0x80) return HIGH;
else return LOW;
}
// UP button
level_t HAL_ReadLvl_BtnUp(void)
{
if(PINE & 0x08) return HIGH;
else return LOW;
}
// Down button
level_t HAL_ReadLvl_BtnDown(void)
{
if(PINE & 0x02) return HIGH;
else return LOW;
}
// Mode button
level_t HAL_ReadLvl_BtnMode(void)
{
if(PINC & 0x20) return HIGH;
else return LOW;
}
// Handbrake pull
level_t HAL_ReadLvl_HandbrakePull(void)
{
if(PINB & 0x20) return HIGH;
else return LOW;
}
// Coil driver control low
level_t HAL_ReadLvl_CoilLow(void)
{
if(PINB & 0x01) return HIGH;
else return LOW;
}
// Coil driver control high
level_t HAL_ReadLvl_CoilHigh(void)
{
if(PINB & 0x02) return HIGH;
else return LOW;
}
// LED PWM control
level_t HAL_ReadLvl_LedsPwm(void)
{
if(PINB & 0x04) return HIGH;
else return LOW;
}
// Speed 0 input pin
level_t HAL_ReadLvl_Speed0(void)
{
if(PINE & 0x04) return HIGH;
else return LOW;
}
// Speed 1 input pin
level_t HAL_ReadLvl_Speed1(void)
{
if(PINE & 0x01) return HIGH;
else return LOW;
}
// Speed common pull pin
level_t HAL_ReadLvl_SpeedPull(void)
{
if(PIND & 0x40) return HIGH;
else return LOW;
}
// Set handbrake pull-up
void HAL_SetPull_Handbrake(level_t lvl)
{
switch(lvl)
{
case HIGH:
PORTB |= 0x20; //Set high
DDRB |= 0x20; //Set as output
break;
case LOW:
PORTB &= ~0x20; //Set low
DDRB |= 0x20; //Set as output
default:
DDRB &= ~0x20; //Set as input
PORTB |= 0x20; //Set high
break;
}
}
// Set speed inputs common pull
void HAL_SetPull_Speed(level_t lvl)
{
switch(lvl)
{
case HIGH:
PORTD |= 0x40; //Set high
break;
default:
PORTD &= ~0x40; //Set low
break;
}
}
// ADC Wake
void HAL_ADC_Wake(void)
{
//Enable ADC power
PRR0 &= ~0x01;
//Enable ADC
ADCSRA |= 0x80;
}
// ADC Sleep
void HAL_ADC_Sleep(void)
{
//wait to finish
while(ADCSRA&0x40);
//Disable ADC
ADCSRA &= ~0x80;
//Disable ADC power
PRR0 |= 0x01;
}
// ADC Read
uint16_t HAL_ADC_Read(adcCh_t ch)
{
//check if ADC is enabled
if(!(ADCSRA&0x80)) return 0xFFFF;
uint8_t mux = (uint8_t)ch;
//Safe guard mux
if(mux > 15) return 0xFFFF;
// Not available channels
if((mux > 8) && (mux<14)) return 0xFFFF;
ADMUX &= ~0x0F;
ADMUX |= mux;
ADCSRA |= 0x40;
while(ADCSRA&0x40); //wait to finish
return ADC;
}
// Coil Driver Low Side control
void HAL_Coil_SetLowSide(uint8_t on)
{
if(on) PORTB |= 0x01;
else PORTB &= ~0x01;
}
void HAL_Coil_SetPWM(uint8_t percent)
{
HAL_PWM_SetDuty100(PWM_COIL, percent);
}
void HAL_Coil_SetPWM16b(uint16_t value)
{
HAL_PWM_SetDuty16b(PWM_COIL, value);
}
// LED Display
void HAL_LEDS_Set(uint8_t image)
{
//Read current PORTD pin6, pin7
uint8_t keep = PORTD & 0xC0;
//Safe guard display
image &= 0x3F;
//Calculate new PORTD
keep |= image;
//Set PORTD
PORTD = keep;
}
uint8_t HAL_LEDS_Get(void)
{
return (PIND & 0x3F);
}
void HAL_LEDS_SetPWM(uint8_t percent)
{
HAL_PWM_SetDuty100(PWM_LED, percent);
}
// PWM Direct functions
void HAL_PWM_Wake(void)
{
//Enable Timer1 power
PRR0 &= ~0x80;
//Prepare Timer1 settings
TCNT1 = 0x0000;
OCR1A = 0x0000;
OCR1B = 0x0000;
//Enable clock
TCCR1B |= tim1_prescaler; //Enable timer
}
void HAL_PWM_Sleep(void)
{
// Turn off outputs
OCR1A = 0x0000;
OCR1B = 0x0000;
// Force timer to bottom
TCNT1 = (ICR1-1);
// Wait for outputs to be off
while((PINB&0x06)!=0x00) continue;
// Disable clock
TCCR1B &= ~0x07;
// Disable Timer1 power
PRR0 |= 0x80;
}
void HAL_PWM_SetDuty16b(pwmCh_t ch, uint16_t value)
{
value = 0xFFFF - value;
uint32_t top = (uint32_t)ICR1;
uint32_t temp = (uint32_t)value * top;
temp = temp/0x0000FFFF;
//Limit temp
if(temp>0x0000FFFF) temp = 0x0000FFFF;
uint16_t ocrx = (uint16_t) temp;
PWM_SetOCx(ch, ocrx);
}
void HAL_PWM_SetDuty100(pwmCh_t ch, uint8_t percent)
{
if(percent > 100) percent = 100;
percent = 100 - percent;
uint32_t top = (uint32_t)ICR1;
uint32_t temp = (uint32_t)percent * top;
temp = temp/100;
//Limit temp
if(temp>0x0000FFFF) temp = 0x0000FFFF;
uint16_t ocrx = (uint16_t) temp;
PWM_SetOCx(ch, ocrx);
}
/**** Private function definitions ****/
static void PWM_SetOCx(pwmCh_t ch, uint16_t value)
{
switch(ch)
{
case PWM_COIL:
OCR1A = value;
return;
case PWM_LED:
OCR1B = value;
return;
default:
return;
}
}

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@@ -1,127 +0,0 @@
/**** Includes ****/
#include "hal/udccd_hal.h"
#include "halfbridge.h"
/**** Private variables ****/
static const uint16_t min_dc = 3277; //5%
static const uint16_t max_dc = 62258; //95%
static uint16_t target = 0;
static uint8_t low_side_on = 1;
static uint16_t active_dc = 0;
static uint8_t is_en = 0;
/**** Private function declarations ****/
static uint16_t CalculateDuty16b(uint16_t target, uint16_t supply);
/**** Public function definitions ****/
void HB_SetTarget(uint16_t voltage)
{
target = voltage;
}
void HB_SetLowSide(uint8_t on)
{
low_side_on = on;
}
uint16_t HB_GetTarget(void)
{
return target;
}
void HB_UpdateOutput(uint16_t supply)
{
uint16_t temp_dc = CalculateDuty16b(target, supply);
HB_SetDirect(temp_dc);
}
void HB_SetDirect(uint16_t duty)
{
/// Limit duty cycle
if(duty > max_dc) active_dc = max_dc;
else if(duty < min_dc) active_dc = 0;
else active_dc = duty;
// Set duty cycle
if(!is_en) return;
HAL_Coil_SetLowSide(low_side_on);
HAL_Coil_SetPWM16b(active_dc);
}
uint8_t HB_IsLowOn(void)
{
if(HAL_ReadLvl_CoilLow() == HIGH) return 1;
else return 0;
}
void HB_Enable(void)
{
// Restore low side
if(low_side_on) HAL_Coil_SetLowSide(1);
// Restore duty cycle
HAL_Coil_SetPWM(active_dc);
is_en = 1;
}
void HB_Disable(void)
{
// Set 0 DC
HAL_Coil_SetPWM(0);
// Disable low side
HAL_Coil_SetLowSide(0);
is_en = 0;
}
uint8_t HB_IsEnabled(void)
{
if(is_en) return 1;
else return 0;
}
int8_t HB_IsOutputMatch(uint16_t fb_output_voltage, uint16_t limit)
{
// No fault if output not enabled
if(!is_en) return -1;
// Can't check voltage if low side is off
if(!low_side_on) return -1;
if(target==0)
{
// Output can be only 0
if(fb_output_voltage != 0) return 0;
else return 1;
};
// Calculate upper and lower bounds
uint16_t max = target + limit;
uint16_t min = target - limit;
//Sanity check
if(max < target) max = 0xFFFF;
if(min > target) min = 0;
//Do check
if((fb_output_voltage < min)||(fb_output_voltage > max)) return 0;
else return 1;
}
/**** Private function definitions ****/
static uint16_t CalculateDuty16b(uint16_t target, uint16_t supply)
{
if(target==0) return 0;
if(supply==0) return 0;
if(target > supply) return 0xFFFF;
// Calculate Duty cycle, in 16bit format
uint32_t temp = (uint32_t)target * 0x0000FFFF;
temp = temp / supply;
//Limit output to 16 bits
if(temp > 0x0000FFFF) return 0xFFFF;
else return (uint16_t)temp;
}

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@@ -1,24 +0,0 @@
#ifndef HALFBRIDGE_H_
#define HALFBRIDGE_H_
/**** Includes ****/
#include <stdint.h>
/**** Public function declarations ****/
void HB_UpdateOutput(uint16_t supply);
void HB_SetTarget(uint16_t voltage);
void HB_SetLowSide(uint8_t on);
void HB_SetDirect(uint16_t duty);
void HB_Enable(void);
void HB_Disable(void);
uint16_t HB_GetTarget(void);
uint8_t HB_IsLowOn(void);
uint8_t HB_IsEnabled(void);
int8_t HB_IsOutputMatch(uint16_t fb_output_voltage, uint16_t limit);
#endif /* HALFBRIDGE_H_ */

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@@ -1,82 +0,0 @@
/**** Includes ****/
#include "hal/udccd_hal.h"
#include "inputs.h"
/**** Private definitions ****/
/**** Private variables ****/
static const uint8_t def_debounce_lim = 10;
/**** Private function declarations ****/
static void InitDefaultInput(inCh_t* inp);
static void ProcessInput(uint8_t read_lvl, inCh_t* inp);
/**** Public function definitions ****/
void Inputs_DefInit(inputs_t* inputs)
{
InitDefaultInput(&inputs->handbrake);
InitDefaultInput(&inputs->brakes);
InitDefaultInput(&inputs->dimm);
InitDefaultInput(&inputs->up);
InitDefaultInput(&inputs->down);
InitDefaultInput(&inputs->mode);
}
void Inputs_UpdateAll(inputs_t* inputs)
{
// Chassis inputs
ProcessInput(HAL_ReadLvl_Handbrake(), &inputs->handbrake);
ProcessInput(HAL_ReadLvl_Brake(), &inputs->brakes);
ProcessInput(HAL_ReadLvl_Dimm(), &inputs->dimm);
// User inputs
ProcessInput(HAL_ReadLvl_BtnUp(), &inputs->up);
ProcessInput(HAL_ReadLvl_BtnDown(), &inputs->down);
ProcessInput(HAL_ReadLvl_BtnMode(), &inputs->mode);
}
void Inputs_SetHanbrakePullUp(uint8_t on)
{
if(on) HAL_SetPull_Handbrake(HIGH);
else HAL_SetPull_Handbrake(HIZ);
}
/**** Private function definitions ****/
static void InitDefaultInput(inCh_t* inp)
{
inp->is_active = 0;
inp->is_new = 0;
inp->state_timer = 0;
inp->cfg.act_level = LOW;
inp->cfg.dbnc_treshold = def_debounce_lim;
inp->proc.level = LOW;
inp->proc.dbnc_counter = 0;
}
static void ProcessInput(uint8_t read_lvl, inCh_t* inp)
{
if(inp->state_timer < 0xFFFF) inp->state_timer++;
if(read_lvl != inp->proc.level)
{
//Debounce ongoing
inp->proc.dbnc_counter++;
if(inp->proc.dbnc_counter < inp->cfg.dbnc_treshold) return;
//Save level
inp->proc.level = read_lvl;
//Change state
if(inp->proc.level == inp->cfg.act_level) inp->is_active = 1;
else inp->is_active = 0;
// Update new flag
inp->is_new = 1;
// Reset state timer
inp->state_timer = 0;
return;
}
else
{
//Debounce failed
if(inp->proc.dbnc_counter) inp->proc.dbnc_counter = 0;
}
}

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@@ -1,43 +0,0 @@
#ifndef INPUTS_H_
#define INPUTS_H_
/**** Includes ****/
#include <stdint.h>
#include "common/level.h"
/**** Public definitions ****/
typedef struct {
level_t act_level;
uint8_t dbnc_treshold;
} inChCfg_t;
typedef struct {
level_t level;
uint8_t dbnc_counter;
} inChRaw_t;
typedef struct {
uint8_t is_active;
uint8_t is_new;
uint16_t state_timer;
inChRaw_t proc;
inChCfg_t cfg;
} inCh_t;
typedef struct {
inCh_t handbrake;
inCh_t brakes;
inCh_t dimm;
inCh_t up;
inCh_t down;
inCh_t mode;
} inputs_t;
/**** Public function declarations ****/
void Inputs_DefInit(inputs_t* inputs);
void Inputs_UpdateAll(inputs_t* inputs);
void Inputs_SetHanbrakePullUp(uint8_t on);
#endif /* INPUTS_H_ */

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@@ -1,20 +0,0 @@
/**** Includes ****/
#include "hal/udccd_hal.h"
#include "led_display.h"
/**** Private variables ****/
/**** Private function declarations ****/
/**** Public function definitions ****/
void LED_DSP_ShowImage(uint8_t image)
{
HAL_LEDS_Set(image);
}
void LED_DSP_SetBrightness(uint8_t percent)
{
HAL_LEDS_SetPWM(percent);
}
/**** Private function definitions ****/

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@@ -1,13 +0,0 @@
#ifndef LED_DISPLAY_H_
#define LED_DISPLAY_H_
/**** Includes ****/
#include <stdint.h>
/**** Public definitions ****/
/**** Public function declarations ****/
void LED_DSP_ShowImage(uint8_t image);
void LED_DSP_SetBrightness(uint8_t percent);
#endif /* LED_DISPLAY_H_ */

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@@ -1,34 +0,0 @@
/**** Includes ****/
#include <avr/eeprom.h>
#include "memory.h"
/**** Public function definitions ****/
uint8_t MEM_Read8b(uint8_t address)
{
return eeprom_read_byte((uint8_t*)address);
}
uint16_t MEM_Read16b(uint8_t address)
{
return eeprom_read_word((uint8_t*)address);
}
uint32_t MEM_Read32b(uint8_t address)
{
return eeprom_read_dword((uint8_t*)address);
}
void MEM_Write8b(uint8_t address, uint8_t value)
{
return eeprom_write_byte((uint8_t*)address, value);
}
void MEM_Write16b(uint8_t address, uint16_t value)
{
return eeprom_write_word((uint8_t*)address, value);
}
void MEM_Write32b(uint8_t address, uint32_t value)
{
return eeprom_write_dword((uint8_t*)address, value);
}

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@@ -1,16 +0,0 @@
#ifndef MEMORY_H_
#define MEMORY_H_
/**** Includes ****/
#include <stdint.h>
/**** Public function declarations ****/
uint8_t MEM_Read8b(uint8_t address);
uint16_t MEM_Read16b(uint8_t address);
uint32_t MEM_Read32b(uint8_t address);
void MEM_Write8b(uint8_t address, uint8_t value);
void MEM_Write16b(uint8_t address, uint16_t value);
void MEM_Write32b(uint8_t address, uint32_t value);
#endif /* MEMORY_H_ */

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@@ -1,125 +0,0 @@
/**** Includes ****/
#include "display.h"
/**** Private definitions ****/
/**** Private variables ****/
static uint8_t PWM_DIMM = 50;
static uint8_t PWM_BRIGTH = 100;
static uint8_t set_image = 0x00;
static uint16_t lock_timer = 0;
/**** Private function declarations ****/
static uint8_t ImageGen_Dot10(uint8_t percent);
static uint8_t ImageGen_Dot20(uint8_t percent);
static uint8_t ImageGen_Bar(uint8_t percent);
/**** Public function definitions ****/
void Display_CfgBacklight(uint8_t brigth, uint8_t dimm)
{
//Limit values
if(brigth>100) brigth = 100;
else if(brigth==0) brigth = 1;
if(dimm>100) dimm = 100;
else if(dimm==0) dimm = 1;
//Save values
PWM_BRIGTH = brigth;
PWM_DIMM = dimm;
}
void Display_SetImage(uint8_t image)
{
if(lock_timer) return;
set_image = image & 0x3F;
}
void Display_SetPercent(uint8_t value, dspStyle_t style)
{
switch(style)
{
case BAR:
Display_SetImage(ImageGen_Bar(value));
break;
case DOT10:
Display_SetImage(ImageGen_Dot10(value));
break;
default:
Display_SetImage(ImageGen_Dot20(value));
break;
}
}
void Display_SetScale(uint16_t value, uint16_t max_value ,dspStyle_t style)
{
//Convert value to percent
uint32_t temp = (uint32_t)value *100;
temp /= max_value;
//Limit value to 100 percent
uint8_t percent = 0;
if(temp >= 100) percent = 100;
else if(temp == 0) percent = 0;
else percent = (uint8_t)temp;
Display_SetPercent(percent, style);
}
void Display_SetLock(uint16_t time)
{
lock_timer = time;
}
void Display_Update(inputs_t* inputs)
{
// Brightness control
if(inputs->dimm.is_active) LED_DSP_SetBrightness(PWM_DIMM);
else LED_DSP_SetBrightness(PWM_BRIGTH);
if(lock_timer) lock_timer--;
// Set image
LED_DSP_ShowImage(set_image);
}
/**** Private function definitions ****/
static uint8_t ImageGen_Dot10(uint8_t percent)
{
if(percent<6) return 0x01;
else if(percent<16) return 0x03;
else if(percent<26) return 0x02;
else if(percent<36) return 0x06;
else if(percent<46) return 0x04;
else if(percent<56) return 0x0C;
else if(percent<66) return 0x08;
else if(percent<76) return 0x18;
else if(percent<86) return 0x10;
else if(percent<96) return 0x30;
else return 0x20;
}
static uint8_t ImageGen_Dot20(uint8_t percent)
{
if(percent<11) return 0x01;
else if(percent<31) return 0x02;
else if(percent<51) return 0x04;
else if(percent<71) return 0x08;
else if(percent<91) return 0x10;
else return 0x20;
}
static uint8_t ImageGen_Bar(uint8_t percent)
{
if(percent<11) return 0x01;
else if(percent<31) return 0x03;
else if(percent<51) return 0x07;
else if(percent<71) return 0x0F;
else if(percent<91) return 0x1F;
else return 0x3F;
}

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@@ -1,27 +0,0 @@
#ifndef DISPLAY_DRV_H_
#define DISPLAY_DRV_H_
/**** Includes ****/
#include <avr/io.h>
#include "../devices/led_display.h"
#include "../devices/inputs.h"
/**** Public definitions ****/
typedef enum {
DOT20,
DOT10,
BAR
} dspStyle_t;
/**** Public function declarations ****/
void Display_SetImage(uint8_t image);
void Display_SetPercent(uint8_t value, dspStyle_t style);
void Display_SetScale(uint16_t value, uint16_t max_value ,dspStyle_t style);
void Display_SetLock(uint16_t time);
void Display_Update(inputs_t* inputs);
void Display_CfgBacklight(uint8_t brigth, uint8_t dimm);
#endif /* DISPLAY_DRV_H_ */

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@@ -1,341 +0,0 @@
/**** Includes ****/
#include "output.h"
/**** Private definitions ****/
typedef struct {
uint8_t active;
uint8_t time;
} warn_t;
typedef struct {
warn_t supply_voltage;
warn_t supply_current;
warn_t supply_power;
warn_t output_voltage;
warn_t output_current;
warn_t output_power;
warn_t output_open;
warn_t output_short;
warn_t output_mismatch;
} warnings_t;
typedef struct {
uint8_t supply_uvlo;
uint8_t supply_ovp;
uint8_t supply_ocp;
uint8_t supply_opp;
uint8_t output_ovp;
uint8_t output_ocp;
uint8_t output_opp;
uint8_t output_open;
uint8_t output_short;
} faults_t;
/**** Private constants ****/
static const uint16_t LIM_SUPPLY_UVLO = 8000; //mV
static const uint16_t LIM_SUPPLY_OVP = 18000; //mV
static const uint16_t LIM_SUPPLY_OCP = 7000; //mA
static const uint16_t LIM_SUPPLY_OPP = 40000; //mW
static const uint16_t LIM_OUTPUT_OVP = 12000; //mV
static const uint16_t LIM_OUTPUT_OCP = 7000; //mA
static const uint16_t LIM_OUTPUT_OPP = 40000; //mW
static const uint16_t LIM_OUTPUT_OPEN = 40000; //mR
static const uint16_t LIM_OUTPUT_SHORT = 750; //mR
static const uint16_t LIM_OUTPUT_MATCH = 100; //mV
static const uint8_t OCP_WARNING_LIMIT = 10; //cycles
static const uint8_t SHORT_WARNING_LIMIT = 50; //cycles
static const uint16_t MAX_OUTPUT_VOLTAGE = 10000; //mV
static const uint16_t MIN_OUTPUT_VOLTAGE = 100; //mV
static const uint16_t COOLDOWN_TIME = 5000;
/**** Private variables ****/
static warnings_t warnings;
static faults_t faults;
static uint16_t target_output = 0;
static uint16_t adj_target = 0;
static int32_t hb_volt_sum = 0;
static uint8_t new_target = 1;
static uint8_t steady_state = 0;
static faultState_t fault_state = F_NONE;
static uint16_t cooldown_timer = 0;
static outState_t out_state = O_OFF;
/**** Private function declarations ****/
static void Process_Warnings(analog_t* meas);
static uint8_t Process_Faults(void);
static void ProcessWarningTime(warn_t* w);
static uint8_t isAnyFaultActive(faults_t* f);
static uint8_t isFaultWarningActive(warnings_t* w, faults_t* f);
static void ResetFaults(faults_t* f);
/**** Public function definitions ****/
void Output_Enable(void)
{
ResetFaults(&faults);
target_output = 0;
out_state = O_ACTIVE;
HB_SetTarget(0) ;
HB_SetLowSide(1);
HB_Enable();
}
void Output_Update(analog_t* meas)
{
Process_Warnings(meas);
// Convert Warnings to Faults
uint8_t active_fault = Process_Faults();
/// Ignore faults
active_fault = 0;
// Determine coil state
switch(out_state)
{
case O_ACTIVE:
if(active_fault)
{
// Disable output
HB_Disable();
out_state = O_FAULTED;
break;
};
//Do target adjustment logic
if(steady_state >= 10)
{
//Calculate average HB voltage
hb_volt_sum /= 11;
// Calculate feedback adjusted HB output
int32_t error = hb_volt_sum - (int32_t)target_output;
int32_t temp = (int32_t)adj_target - error;
// Limit to 16bits
if(temp<=0) adj_target = 0;
else if(temp >= 0x0000FFFF) adj_target = 0xFFFF;
else adj_target = (uint16_t)temp;
steady_state = 0;
hb_volt_sum = 0;
}
else
{
hb_volt_sum += meas->hb_voltage;
steady_state++;
}
// Closed loop or open loop target set
if(new_target)
{
// Set open-loop HB output
HB_SetTarget(target_output);
adj_target = target_output;
steady_state = 0;
new_target = 0;
hb_volt_sum = 0;
}
else
{
HB_SetTarget(adj_target);
}
// Update output
HB_UpdateOutput(meas->supply_voltage);
break;
case O_FAULTED:
if(!active_fault)
{
//Return to normal state
HB_Enable();
out_state = O_ACTIVE;
}
break;
default: //OFF
if(HB_IsEnabled()) HB_Disable();
break;
}
}
void Output_SetTarget(uint16_t voltage)
{
if(voltage > MAX_OUTPUT_VOLTAGE) voltage = MAX_OUTPUT_VOLTAGE;
else if((voltage > 0)&&(voltage < MIN_OUTPUT_VOLTAGE)) voltage = MIN_OUTPUT_VOLTAGE;
if(voltage != target_output) new_target = 1;
target_output = voltage;
}
outState_t Output_GetOutputState(void)
{
return out_state;
}
/**** Private function definitions ****/
static void Process_Warnings(analog_t* meas)
{
// Supply UVLO and OVP
if((meas->supply_voltage > LIM_SUPPLY_OVP)||(meas->supply_voltage < LIM_SUPPLY_UVLO)) warnings.supply_voltage.active = 1;
else warnings.supply_voltage.active = 0;
// Supply OCP
if(meas->supply_current > LIM_SUPPLY_OCP) warnings.supply_current.active = 1;
else warnings.supply_current.active = 0;
// Supply OPP
if(meas->supply_power > LIM_SUPPLY_OPP) warnings.supply_power.active = 1;
else warnings.supply_power.active = 0;
// Halfbridge output conditions
// Output Target mismatch
if(HB_IsOutputMatch(meas->hb_voltage, LIM_OUTPUT_MATCH) == 0) warnings.output_mismatch.active = 1;
else warnings.output_mismatch.active = 0;
// Output OCP
if((HB_IsLowOn())&&(meas->hb_currnet > LIM_OUTPUT_OCP)) warnings.output_current.active = 1;
else warnings.output_current.active = 0;
// Output OVP
if((HB_IsLowOn())&&(meas->hb_voltage > LIM_OUTPUT_OVP)) warnings.output_voltage.active = 1;
else warnings.output_voltage.active = 0;
// Output OPP
if((HB_IsEnabled())&&(meas->hb_power > LIM_OUTPUT_OPP)) warnings.output_power.active = 1;
else warnings.output_power.active = 0;
// Output Short
if((HB_IsEnabled())&&(meas->hb_resistance < LIM_OUTPUT_SHORT)) warnings.output_short.active = 1;
else warnings.output_short.active = 0;
// Output Open - Load loss
if((HB_IsEnabled())&&(meas->hb_resistance > LIM_OUTPUT_OPEN)) warnings.output_open.active = 1;
else warnings.output_open.active = 0;
ProcessWarningTime(&warnings.supply_voltage);
ProcessWarningTime(&warnings.supply_current);
ProcessWarningTime(&warnings.supply_power);
ProcessWarningTime(&warnings.output_mismatch);
ProcessWarningTime(&warnings.output_voltage);
ProcessWarningTime(&warnings.output_current);
ProcessWarningTime(&warnings.output_power);
ProcessWarningTime(&warnings.output_open);
ProcessWarningTime(&warnings.output_short);
}
static uint8_t Process_Faults(void)
{
// Check warnings to escalate to fault
// Supply OCP
if(warnings.supply_current.time > OCP_WARNING_LIMIT) faults.supply_ocp = 1;
// Output OCP
if(warnings.output_current.time > OCP_WARNING_LIMIT) faults.output_ocp = 1;
// Output short
if(warnings.output_short.time > SHORT_WARNING_LIMIT) faults.output_short = 1;
switch(fault_state)
{
case F_ACTIVE:
// Check if fault still active
if(!isFaultWarningActive(&warnings, &faults))
{
// Fault cause ended, go to cooldown
cooldown_timer = COOLDOWN_TIME;
fault_state = F_COOLDOWN;
};
break;
case F_COOLDOWN:
// Check if fault reoccurs
if(isFaultWarningActive(&warnings, &faults))
{
fault_state = F_ACTIVE;
break;
};
// Wait for cooldown timer, reset fault flags
if(cooldown_timer) cooldown_timer--;
else
{
ResetFaults(&faults);
fault_state = F_NONE;
}
break;
default: //NONE
// Check for new faults
if(isAnyFaultActive(&faults))
{
// Start fault process
fault_state = F_ACTIVE;
};
break;
}
if(fault_state != F_NONE) return 1;
else return 0;
}
static void ProcessWarningTime(warn_t* w)
{
if((w->active)&&(w->time < 0xFF)) w->time++;
else if(w->active == 0) w->time = 0;
}
static uint8_t isAnyFaultActive(faults_t* f)
{
if(f->supply_uvlo) return 1;
if(f->supply_ovp) return 1;
if(f->supply_ocp) return 1;
if(f->supply_opp) return 1;
if(f->output_ovp) return 1;
if(f->output_ocp) return 1;
if(f->output_opp) return 1;
if(f->output_open) return 1;
if(f->output_short) return 1;
return 0;
}
static uint8_t isFaultWarningActive(warnings_t* w, faults_t* f)
{
if((f->supply_uvlo) && (w->supply_voltage.active)) return 1;
if((f->supply_ovp) && (w->supply_voltage.active)) return 1;
if((f->supply_ocp) && (w->supply_current.active)) return 1;
if((f->supply_opp) && (w->supply_power.active) ) return 1;
if((f->output_ovp) && (w->output_voltage.active)) return 1;
if((f->output_ocp) && (w->output_current.active)) return 1;
if((f->output_opp) && (w->output_power.active) ) return 1;
if((f->output_open) && (w->output_open.active) ) return 1;
if((f->output_short) && (w->output_short.active) ) return 1;
return 0;
}
static void ResetFaults(faults_t* f)
{
f->supply_uvlo = 0;
f->supply_ovp = 0;
f->supply_ocp = 0;
f->supply_opp = 0;
f->output_ovp = 0;
f->output_ocp = 0;
f->output_opp = 0;
f->output_open = 0;
f->output_short = 0;
}

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@@ -1,30 +0,0 @@
#ifndef OUTPUT_DRV_H_
#define OUTPUT_DRV_H_
/**** Includes ****/
#include <avr/io.h>
#include "../devices/analog.h"
#include "../devices/halfbridge.h"
/**** Public definitions ****/
typedef enum {
F_NONE,
F_ACTIVE,
F_COOLDOWN
} faultState_t;
typedef enum {
O_OFF,
O_ACTIVE,
O_FAULTED
} outState_t;
/**** Public function declarations ****/
void Output_Enable(void);
void Output_Update(analog_t* meas);
void Output_SetTarget(uint16_t voltage);
outState_t Output_GetOutputState(void);
#endif /* OUTPUT_DRV_H_ */

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@@ -1,127 +0,0 @@
/**** Includes ****/
#include "coil.h"
/**** Private definitions ****/
/**** Private constants ****/
/**** Private variables ****/
static uint16_t lock_current = 4500; //mA
static uint16_t min_current = 100; //mA
static uint16_t target_current = 0; //mA
static uint8_t new_target = 1;
static uint16_t adj_target_current = 0; //mA
static uint16_t target_voltage = 0; //mV
static uint8_t act_force = 0;
static uint16_t nominal_resitance = 1500; //mR
static int32_t sum_current = 0;
static uint8_t sum_cnt = 0;
/**** Private function declarations ****/
static uint16_t UpdateVoltage(uint16_t cur, uint16_t res);
/**** Public function definitions ****/
void Coil_SetLockCurrent(uint16_t lock_i)
{
lock_current = lock_i;
}
void Coil_SetTarget_Force(uint8_t force)
{
// Check if worth doing
if(force == act_force) return;
// Calculate new target current
act_force = force;
// Check simple answer
uint16_t new_current = 0;
if(force==0) new_current = 0;
else if(force >= 100) new_current = lock_current;
else
{
uint32_t temp = (uint32_t)force * lock_current;
temp /= 100;
if(temp > 0x0000FFFF) new_current = lock_current;
else new_current = (uint16_t) temp;
}
// Update new target
Coil_SetTarget_Current(new_current);
}
void Coil_SetTarget_Current(uint16_t current)
{
if(current >= lock_current) current = lock_current;
else if((current > 0)&&(current <= min_current)) current = min_current;
if(current != target_current) new_target = 1;
target_current = current;
}
uint16_t Coil_GetTargetVolatge(void)
{
return target_voltage;
}
uint16_t Coil_Update(analog_t* meas)
{
// Collect average current
sum_current += meas->hb_currnet;
sum_cnt++;
// Update measurement
if(sum_cnt >= 10)
{
// Calculate average
sum_current /= sum_cnt;
// Calculate error
int32_t error = sum_current - (int32_t)target_current;
int32_t temp = (int32_t)adj_target_current - error;
// Limit to 16bits
if(temp<0) adj_target_current = 0;
else if(temp > 0x0000FFFF) adj_target_current = 0xFFFF;
else adj_target_current = (uint16_t)temp;
sum_cnt = 0;
sum_current = 0;
};
// Closed loop or open loop target set
if(new_target)
{
// Set open-loop HB output
target_voltage = UpdateVoltage(target_current, nominal_resitance);
adj_target_current = target_current;
new_target = 0;
sum_cnt = 0;
sum_current = 0;
}
else
{
target_voltage = UpdateVoltage(adj_target_current, nominal_resitance);
}
return target_voltage;
}
/**** Private function definitions ****/
static uint16_t UpdateVoltage(uint16_t cur, uint16_t res)
{
// Update settable voltage
if(cur==0) return 0;
else
{
uint32_t volt = (uint32_t)cur * res;
volt /= 1000;
if(volt > 0x0000FFFF) return 0xFFFF;
else return (uint16_t)volt;
}
}

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@@ -1,19 +0,0 @@
#ifndef COIL_LOGIC_H_
#define COIL_LOGIC_H_
/**** Includes ****/
#include <stdint.h>
#include "../devices/analog.h"
/**** Public definitions ****/
/**** Public function declarations ****/
void Coil_SetTarget_Force(uint8_t force);
void Coil_SetTarget_Current(uint16_t current);
uint16_t Coil_GetTargetVolatge(void);
uint16_t Coil_Update(analog_t* meas);
void Coil_SetLockCurrent(uint16_t lock_i);
#endif /* COIL_LOGIC_H_ */

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@@ -1,186 +0,0 @@
/**** Includes ****/
#include "force.h"
/**** Private definitions ****/
/**** Private constants ****/
static const int8_t BUTTONS_STEP = 10;
static const uint16_t BUTTON_HOLD_TIME = 250;
static const uint16_t MODE_HOLD_TIME = 500;
/**** Private variables ****/
static inputMode_t input_mode = IM_BUTTONS;
static uint8_t user_force = 0;
static uint8_t new_user_force = 0;
static brakeMode_t brake_mode = BM_OPEN;
static uint8_t new_brake_mode = 1;
/**** Private function declarations ****/
static uint8_t SaturatedAdd(uint8_t base, int8_t delta);
/**** Public function definitions ****/
inputMode_t Force_GetInputMode(void)
{
return input_mode;
}
void Force_CfgInputMode(inputMode_t in_mode)
{
input_mode = in_mode;
}
void Force_SetUserForce(uint8_t force)
{
if(force > 100) force = 100;
user_force = force;
}
void Force_SetBrakeMode(uint8_t bmode)
{
brake_mode = bmode;
}
uint8_t Force_Update(inputs_t* inputs, analog_t* meas)
{
// Process user inputs
if(input_mode==IM_POT)
{
// Process potentiometer
if(meas->pot_voltage <= 500) user_force = 0;
else if(meas->pot_voltage >= 4500 ) user_force = 100;
else
{
uint16_t pot_u = meas->pot_voltage;
pot_u /= 50;
//Limit to 100
if(pot_u > 100) user_force = 100;
else if(pot_u < 10) user_force = 10;
else user_force = (uint8_t)pot_u;
}
}
else
{
// Process +/- timer
if((inputs->down.is_active)&&(inputs->down.state_timer > BUTTON_HOLD_TIME))
{
inputs->down.is_new = 1;
inputs->down.state_timer = 0;
};
if((inputs->up.is_active)&&(inputs->up.state_timer > BUTTON_HOLD_TIME))
{
inputs->up.is_new = 1;
inputs->up.state_timer = 0;
};
// Process +/- logic
if((inputs->down.is_new)&&(inputs->down.is_active))
{
user_force = SaturatedAdd(user_force, -1 * BUTTONS_STEP);
new_user_force = 1;
}
else if((inputs->up.is_new)&&(inputs->up.is_active))
{
user_force = SaturatedAdd(user_force, BUTTONS_STEP);
new_user_force = 1;
};
inputs->down.is_new = 0;
inputs->up.is_new = 0;
}
// Process mode timer
if((inputs->mode.is_active)&&(inputs->mode.state_timer > MODE_HOLD_TIME))
{
inputs->mode.is_new = 1;
inputs->mode.state_timer = 0;
};
// Process mode logic
if((inputs->mode.is_new)&&(inputs->mode.is_active))
{
//Cycle mode
switch(brake_mode)
{
case BM_OPEN:
brake_mode = BM_KEEP;
break;
case BM_KEEP:
brake_mode = BM_LOCK;
break;
case BM_LOCK:
brake_mode = BM_OPEN;
break;
default:
brake_mode = BM_OPEN;
break;
}
new_brake_mode = 1;
};
inputs->mode.is_new = 0;
// Determine next target force from inputs
if(inputs->handbrake.is_active)
{
return 0;
}
else if(inputs->brakes.is_active)
{
switch(brake_mode)
{
case BM_LOCK:
return 100;
case BM_KEEP:
return user_force;
default:
return 0;
}
}
else
{
return user_force;
}
}
uint8_t Force_IsNewUserForce(void)
{
return new_user_force;
}
void Force_ResetNewUserForce(void)
{
new_user_force = 0;
}
brakeMode_t Force_GetBrakeMode(void)
{
return brake_mode;
}
uint8_t Force_IsNewBrakeMode(void)
{
return new_brake_mode;
}
void Force_ResetNewBrakeMode(void)
{
new_brake_mode = 0;
}
/**** Private function definitions ****/
static uint8_t SaturatedAdd(uint8_t base, int8_t delta)
{
int16_t temp = (int16_t)base + delta;
if(temp < 0) return 0;
else if(temp >= 100) return 100;
else return (uint8_t)temp;
}

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@@ -1,36 +0,0 @@
#ifndef FORCE_LOGIC_H_
#define FORCE_LOGIC_H_
/**** Includes ****/
#include <stdint.h>
#include "../devices/analog.h"
#include "../devices/inputs.h"
/**** Public definitions ****/
typedef enum {
BM_OPEN,
BM_KEEP,
BM_LOCK
} brakeMode_t;
typedef enum {
IM_BUTTONS,
IM_POT
} inputMode_t;
/**** Public function declarations ****/
void Force_CfgInputMode(inputMode_t in_mode);
inputMode_t Force_GetInputMode(void);
uint8_t Force_Update(inputs_t* inputs, analog_t* meas);
void Force_SetBrakeMode(uint8_t bmode);
brakeMode_t Force_GetBrakeMode(void);
uint8_t Force_IsNewBrakeMode(void);
void Force_ResetNewBrakeMode(void);
void Force_SetUserForce(uint8_t force);
uint8_t Force_IsNewUserForce(void);
void Force_ResetNewUserForce(void);
#endif /* FORCE_LOGIC_H_ */

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@@ -1,184 +0,0 @@
/**** Includes ****/
#include "settings.h"
/**** Private definitions ****/
/**** Private constants ****/
static const uint8_t addr_force = 0x01;
static const uint8_t addr_bmode = 0x02;
static const uint8_t addr_inmode = 0x03;
static const uint8_t addr_dsp_bright = 0x04;
static const uint8_t addr_dsp_dimm = 0x05;
static const uint8_t addr_lock_amps = 0x06;
/**** Private variables ****/
static uint16_t save_force_timer = 0;
static uint16_t save_bmode_timer = 0;
/**** Private function declarations ****/
/**** Public function definitions ****/
void Setings_Update(uint8_t is_new_force, uint8_t force, uint8_t is_new_bmode, brakeMode_t bmode)
{
if(is_new_force) save_force_timer = 5000;
if(is_new_bmode) save_bmode_timer = 5000;
if(save_force_timer)
{
save_force_timer--;
if(!save_force_timer)
{
// Save force setting
Setings_SaveForce(force);
};
};
if(save_bmode_timer)
{
save_bmode_timer--;
if(!save_bmode_timer)
{
// Save mode setting
Setings_SaveBrakeMode(bmode);
};
};
}
void Setings_SaveForce(uint8_t value)
{
MEM_Write8b(addr_force, value);
}
uint8_t Setings_GetForce(void)
{
uint8_t val = MEM_Read8b(addr_force);
if(val > 100) return 0;
else return val;
}
void Setings_SaveBrakeMode(brakeMode_t bmode)
{
// Convert and save input mode setting
// Convert and save mode setting
uint8_t val = 0x00;
switch(bmode)
{
case BM_LOCK:
val = 'L';
break;
case BM_KEEP:
val = 'K';
break;
default:
val = 'O';
break;
}
MEM_Write8b(addr_bmode, val);
}
brakeMode_t Setings_GetBrakeMode(void)
{
// Convert and return mode setting
uint8_t val = MEM_Read8b(addr_bmode);
switch(val)
{
case 'L':
return BM_LOCK;
case 'K':
return BM_KEEP;
default:
return BM_OPEN;
}
}
void Setings_SaveInputMode(inputMode_t inmode)
{
// Convert and save input mode setting
uint8_t val = 0x00;
switch(inmode)
{
case IM_POT:
val = 'P';
break;
default:
val = 'B';
break;
}
MEM_Write8b(addr_inmode, val);
}
inputMode_t Setings_GetInputMode(void)
{
// Convert and return input mode setting
uint8_t val = MEM_Read8b(addr_inmode);
switch(val)
{
case 'P':
return IM_POT;
default:
return IM_BUTTONS;
}
}
void Setings_SaveDisplayBrigthLvl(uint8_t value)
{
MEM_Write8b(addr_dsp_bright, value);
}
uint8_t Setings_GetDisplayBrigthLvl(void)
{
uint8_t val = MEM_Read8b(addr_dsp_bright);
if(val > 100) return 100;
else return val;
}
void Setings_SaveDisplayDimmLvl(uint8_t value)
{
MEM_Write8b(addr_dsp_dimm, value);
}
uint8_t Setings_GetDisplayDimmLvl(void)
{
uint8_t val = MEM_Read8b(addr_dsp_dimm);
if(val > 100) return 50;
else return val;
}
void Setings_SaveLockCurrent(uint16_t value)
{
MEM_Write16b(addr_lock_amps, value);
}
uint16_t Setings_GetLockCurrent(void)
{
uint16_t val = MEM_Read16b(addr_lock_amps);
if(val > 6000) return 4500;
else return val;
}
void Setings_SaveDefault(void)
{
Setings_SaveForce(0);
Setings_SaveBrakeMode(BM_OPEN);
Setings_SaveInputMode(IM_BUTTONS);
Setings_SaveDisplayBrigthLvl(100);
Setings_SaveDisplayDimmLvl(50);
Setings_SaveLockCurrent(4500);
}
/**** Private function definitions ****/

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@@ -1,34 +0,0 @@
#ifndef SETTINGS_LOGIC_H_
#define SETTINGS_LOGIC_H_
/**** Includes ****/
#include <stdint.h>
#include "../devices/memory.h"
#include "force.h"
/**** Public definitions ****/
/**** Public function declarations ****/
void Setings_Update(uint8_t is_new_force, uint8_t force, uint8_t is_new_bmode, brakeMode_t bmode);
void Setings_SaveForce(uint8_t value);
uint8_t Setings_GetForce(void);
void Setings_SaveBrakeMode(brakeMode_t bmode);
brakeMode_t Setings_GetBrakeMode(void);
void Setings_SaveInputMode(inputMode_t inmode);
inputMode_t Setings_GetInputMode(void);
void Setings_SaveDisplayBrigthLvl(uint8_t value);
uint8_t Setings_GetDisplayBrigthLvl(void);
void Setings_SaveDisplayDimmLvl(uint8_t value);
uint8_t Setings_GetDisplayDimmLvl(void);
void Setings_SaveLockCurrent(uint16_t value);
uint16_t Setings_GetLockCurrent(void);
void Setings_SaveDefault(void);
#endif /* SETTINGS_LOGIC_H_ */

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@@ -1,170 +0,0 @@
/**** Includes ****/
#include <stdint.h>
#include "devices/config.h"
#include "devices/analog.h"
#include "devices/inputs.h"
#include "devices/memory.h"
#include "drivers/output.h"
#include "drivers/display.h"
#include "logic/force.h"
#include "logic/coil.h"
#include "logic/settings.h"
/**** Private definitions ****/
/**** Private constants ****/
/**** Private variables ****/
inputs_t inputs;
analog_t analog;
/**** Private function declarations ****/
void Setup(void);
void GatherData(uint8_t times);
/**** Public function definitions ****/
int main(void)
{
Setup();
while(1)
{
// Read all inputs
GatherData(1);
// Process force logic
uint8_t force = Force_Update(&inputs, &analog);
// Save values
uint8_t new_bmode = Force_IsNewBrakeMode();
uint8_t new_force = Force_IsNewUserForce();
if(Force_GetInputMode()==IM_POT) new_force = 0;
Setings_Update(new_force, force, new_bmode, Force_GetBrakeMode());
// Set coil current target
Coil_SetTarget_Force(force);
// Calculate next target voltage
uint16_t next_u = Coil_Update(&analog);
// Set next output voltage
Output_SetTarget(next_u);
// Update output
Output_Update(&analog);
// Display logic
if(Output_GetOutputState()==O_FAULTED)
{
// Show fault code
Display_SetLock(0);
Display_SetImage(0x33);
}
else if(Force_IsNewBrakeMode())
{
Display_SetLock(0);
switch(Force_GetBrakeMode())
{
case BM_LOCK:
Display_SetImage(0x38);
break;
case BM_KEEP:
Display_SetImage(0x1E);
break;
default:
Display_SetImage(0x07);
break;
}
Display_SetLock(1000);
}
else
{
Display_SetPercent(force, DOT10);
}
// Update display
Display_Update(&inputs);
// Reset new flags
Force_ResetNewBrakeMode();
Force_ResetNewUserForce();
}
return 0;
}
/**** Private function definitions ****/
void Setup(void)
{
// Initialize low level hardware
Init_HW();
// Prime EEPROM
//Setings_SaveDefault();
// Configure inputs
Inputs_DefInit(&inputs);
inputs.handbrake.cfg.act_level = HIGH;
inputs.handbrake.cfg.dbnc_treshold = 10;
inputs.brakes.cfg.act_level = LOW;
inputs.brakes.cfg.dbnc_treshold = 20;
inputs.dimm.cfg.act_level = LOW;
inputs.dimm.cfg.dbnc_treshold = 20;
inputs.up.cfg.act_level = LOW;
inputs.up.cfg.dbnc_treshold = 20;
inputs.down.cfg.act_level = LOW;
inputs.down.cfg.dbnc_treshold = 20;
inputs.mode.cfg.act_level = LOW;
inputs.mode.cfg.dbnc_treshold = 20;
Inputs_SetHanbrakePullUp(0);
// Configure display
Display_CfgBacklight(100,50);
// Show startup display
Display_SetImage(0xFF);
Display_Update(&inputs);
// Configure force logic
Force_CfgInputMode(IM_POT); //IM_BUTTONS IM_POT
// Restore saved force
Force_SetUserForce(Setings_GetForce());
// Restore saved brake mode
Force_SetBrakeMode(Setings_GetBrakeMode());
// Prime analog channels
GatherData(100);
// Show default display
Display_SetImage(0x01);
Display_Update(&inputs);
// Enable output
Output_Enable();
Output_SetTarget(0);
}
void GatherData(uint8_t times)
{
do
{
Analog_UpdateAll(&analog);
Inputs_UpdateAll(&inputs);
if(times) times--;
}
while(times);
}

35
firmware/src/bsp/ain.cpp Normal file
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/**** Includes ****/
#include "../utils/utils.h"
#include "mcu/mcu_hal.h"
#include "ain.h"
using namespace bsp;
/**** Private definitions ****/
/**** Private constants ****/
/**** Private variables ****/
/**** Private function declarations ****/
/**** Public function definitions ****/
bsp::AnalogIn::AnalogIn(uint8_t adc_ch)
{
this->adc_ch = adc_ch;
this->mul = DEF_AIN_MUL;
this->div = DEF_AIN_DIV;
this->offset = DEF_AIN_OFFSET;
this->last_read = 0;
}
uint16_t bsp::AnalogIn::read(void)
{
//Read ADC
uint16_t raw = mcu::adc_read(this->adc_ch);
//Convert to mV
this->last_read = util::convert_muldivoff(raw, this->mul, this->div, this->offset);
return this->last_read;
}
/**** Private function definitions ****/

37
firmware/src/bsp/ain.h Normal file
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@@ -0,0 +1,37 @@
#ifndef ANALOG_IN_H_
#define ANALOG_IN_H_
/**** Includes ****/
#include <stdint.h>
namespace bsp {
/**** Public definitions ****/
static const uint8_t DEF_AIN_MUL = 215;
static const uint8_t DEF_AIN_DIV = 44;
static const int16_t DEF_AIN_OFFSET = 0;
class AnalogIn
{
protected:
uint8_t adc_ch;
public:
AnalogIn(uint8_t adc_ch);
uint8_t mul;
uint8_t div;
int16_t offset;
uint16_t last_read;
uint16_t read(void);
};
/**** Public function declarations ****/
#ifdef TESTING
#endif
} //namespace
#endif /* ANALOG_IN_H_ */

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/**** Includes ****/
#include "../utils/utils.h"
#include "board.h"
/**** Private definitions ****/
/**** Private constants ****/
/**** Private variables ****/
/**** Private function declarations ****/
/**** Public function definitions ****/
void board_init(void)
{
// MCU setup
mcu::startupCfg_t mcu_cfg;
mcu_cfg.adc_clk = mcu::ADC_DIV2;
mcu_cfg.pwm_clk = mcu::TIM_DIV1;
mcu_cfg.pwm_top = 200;
mcu_cfg.pwm_ch1_en = 1;
mcu::startup(&mcu_cfg);
// Board setup
// Fixed function AIN mV and mA scale
dccd_i.mul = 215;
dccd_i.div = 22;
dccd_i.offset = 0;
dccd_i.last_read = 0;
dccd_u.mul = 20;
dccd_u.div = 1;
dccd_u.offset = 0;
dccd_u.last_read = 0;
bat_u.mul = 20;
bat_u.div = 1;
bat_u.offset = 0;
bat_u.last_read = 12000;
bat_i.mul = 235;
bat_i.div = 6;
bat_i.offset = 0;
bat_i.last_read = 0;
}
void board_read(void)
{
dccd_i.read();
dccd_u.read();
bat_u.read();
bat_i.read();
ain1.read();
ain2.read();
din1.read();
din2.read();
din3.read();
din4.read();
hvdin1.read();
hvdin2.read();
hvdin3.read();
}
/**** Private function definitions ****/

41
firmware/src/bsp/board.h Normal file
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@@ -0,0 +1,41 @@
#ifndef BSP_BOARD_H_
#define BSP_BOARD_H_
/**** Includes ****/
#include <stdint.h>
#include "mcu/mcu_hal.h"
#include "ain.h"
#include "din.h"
#include "dout.h"
#include "dio.h"
#include "halfbridge.h"
#include "pwm.h"
static bsp::AnalogIn dccd_i = bsp::AnalogIn(mcu::ADC0);
static bsp::AnalogIn dccd_u = bsp::AnalogIn(mcu::ADC1);
static bsp::AnalogIn bat_u = bsp::AnalogIn(mcu::ADC2);
static bsp::AnalogIn bat_i = bsp::AnalogIn(mcu::ADC3);
static bsp::Hafbridge hbridge = bsp::Hafbridge(mcu::PWM0, mcu::GPIO15, 95);
static bsp::AnalogIn ain1 = bsp::AnalogIn(mcu::ADC5); // mode
static bsp::AnalogIn ain2 = bsp::AnalogIn(mcu::ADC4); // pot
static bsp::DigitalIn din1 = bsp::DigitalIn(mcu::GPIO0, 0, bsp::DIN_HIGH); //mode
static bsp::DigitalIn din2 = bsp::DigitalIn(mcu::GPIO1, 0, bsp::DIN_HIGH); //pot
static bsp::DigitalIn din3 = bsp::DigitalIn(mcu::GPIO2, 0, bsp::DIN_HIGH); //down
static bsp::DigitalIn din4 = bsp::DigitalIn(mcu::GPIO3, 0, bsp::DIN_HIGH); //up
static bsp::DigitalIn hvdin1 = bsp::DigitalIn(mcu::GPIO4, 1, bsp::DIN_LOW); //dimm
static bsp::DigitalIn hvdin2 = bsp::DigitalIn(mcu::GPIO5, 1, bsp::DIN_LOW); //brakes
static bsp::DigitalIn hvdin3 = bsp::DigitalIn(mcu::GPIO6, 1, bsp::DIN_LOW); //hbrake
static bsp::DigitalIO hvdin3_pull = bsp::DigitalIO(mcu::GPIO7, bsp::DIN_HIGH); //hbrake pull
static bsp::DigitalOut odout1 = bsp::DigitalOut(mcu::GPIO9, 1);
static bsp::DigitalOut odout2 = bsp::DigitalOut(mcu::GPIO10, 1);
static bsp::DigitalOut odout3 = bsp::DigitalOut(mcu::GPIO11, 1);
static bsp::DigitalOut odout4 = bsp::DigitalOut(mcu::GPIO12, 1);
static bsp::DigitalOut odout5 = bsp::DigitalOut(mcu::GPIO13, 1);
static bsp::DigitalOut odout6 = bsp::DigitalOut(mcu::GPIO14, 1);
static bsp::PWMout od_pwm = bsp::PWMout(mcu::PWM1);
void board_init(void);
void board_read(void);
#endif /* BSP_BOARD_H_ */

40
firmware/src/bsp/din.cpp Normal file
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/**** Includes ****/
#include "../utils/utils.h"
#include "mcu/mcu_hal.h"
#include "din.h"
using namespace bsp;
/**** Private definitions ****/
/**** Private constants ****/
/**** Private variables ****/
/**** Private function declarations ****/
/**** Public function definitions ****/
bsp::DigitalIn::DigitalIn(uint8_t gpio_ch, uint8_t inverted, uint8_t init_value)
{
this->gpio_ch = gpio_ch;
this->invert = inverted;
if(init_value) this->last_read = DIN_HIGH;
else this->last_read = DIN_LOW;
}
bsp::DigitalIn::~DigitalIn(void)
{
return;
}
uint8_t bsp::DigitalIn::read(void)
{
uint8_t lvl = mcu::gpio_read(this->gpio_ch);
if(this->invert) lvl = util::invert(lvl);
if(lvl>0) this->last_read = DIN_HIGH;
else this->last_read = DIN_LOW;
return this->last_read;
}
/**** Private function definitions ****/

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firmware/src/bsp/din.h Normal file
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#ifndef DIGITAL_INPUT_H_
#define DIGITAL_INPUT_H_
/**** Includes ****/
#include <stdint.h>
namespace bsp {
/**** Public definitions ****/
const uint8_t DIN_LOW = 0;
const uint8_t DIN_HIGH = 1;
class DigitalIn
{
protected:
uint8_t gpio_ch;
uint8_t invert;
public:
DigitalIn(uint8_t gpio_ch, uint8_t inverted, uint8_t init_value);
~DigitalIn(void);
uint8_t last_read;
uint8_t read(void);
};
/**** Public function declarations ****/
#ifdef TESTING
#endif
} //namespace
#endif /* DIGITAL_INPUT_H_ */

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firmware/src/bsp/dio.cpp Normal file
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/**** Includes ****/
#include "../utils/utils.h"
#include "mcu/mcu_hal.h"
#include "dio.h"
using namespace bsp;
/**** Private definitions ****/
/**** Private constants ****/
/**** Private variables ****/
/**** Private function declarations ****/
/**** Public function definitions ****/
bsp::DigitalIO::DigitalIO(uint8_t gpio_ch, uint8_t init_value) : DigitalIn(gpio_ch, 0, init_value), DigitalOut(gpio_ch, 0)
{
return;
}
bsp::DigitalIO::~DigitalIO(void)
{
this->write(DOUT_HIZ);
}
uint8_t bsp::DigitalIO::is_io_match(void)
{
if(this->last_set == DOUT_HIZ) return 1;
uint8_t read_lvl = this->read();
if(read_lvl == (uint8_t)this->last_set) return 1;
else return 0;
}
/**** Private function definitions ****/

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firmware/src/bsp/dio.h Normal file
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#ifndef DIGITAL_IO_H_
#define DIGITAL_IO_H_
/**** Includes ****/
#include <stdint.h>
#include "din.h"
#include "dout.h"
namespace bsp {
/**** Public definitions ****/
const int8_t DIO_LOW = 0;
const int8_t DIO_HIGH = 1;
const int8_t DIO_HIZ = -1;
class DigitalIO : public DigitalIn, public DigitalOut
{
public:
DigitalIO(uint8_t gpio_ch, uint8_t init_value);
~DigitalIO(void);
uint8_t is_io_match(void);
};
/**** Public function declarations ****/
#ifdef TESTING
#endif
} //namespace
#endif /* DIGITAL_IO_H_ */

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firmware/src/bsp/dout.cpp Normal file
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/**** Includes ****/
#include "../utils/utils.h"
#include "mcu/mcu_hal.h"
#include "dout.h"
using namespace bsp;
/**** Private definitions ****/
/**** Private constants ****/
/**** Private variables ****/
/**** Private function declarations ****/
/**** Public function definitions ****/
bsp::DigitalOut::DigitalOut(uint8_t gpio_ch, uint8_t inverted)
{
this->gpio_ch = gpio_ch;
this->invert = inverted;
this->write(DOUT_HIZ);
}
bsp::DigitalOut::~DigitalOut(void)
{
this->write(DOUT_HIZ);
}
void bsp::DigitalOut::write(int8_t level)
{
if(level > 0)
{
this->last_set = DOUT_HIGH;
if(this->invert) mcu::gpio_write(this->gpio_ch, mcu::LEVEL_LOW);
else mcu::gpio_write(this->gpio_ch, mcu::LEVEL_HIGH);
}
else if(level == 0)
{
this->last_set = DOUT_LOW;
if(this->invert) mcu::gpio_write(this->gpio_ch, mcu::LEVEL_HIGH);
else mcu::gpio_write(this->gpio_ch, mcu::LEVEL_LOW);
}
else
{
this->last_set = DOUT_HIZ;
mcu::gpio_write(this->gpio_ch, mcu::LEVEL_HIZ);
}
}
int8_t bsp::DigitalOut::get_set_level(void)
{
return this->last_set;
}
/**** Private function definitions ****/

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firmware/src/bsp/dout.h Normal file
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#ifndef DIGITAL_OUTPUT_H_
#define DIGITAL_OUTPUT_H_
/**** Includes ****/
#include <stdint.h>
namespace bsp {
/**** Public definitions ****/
const int8_t DOUT_LOW = 0;
const int8_t DOUT_HIGH = 1;
const int8_t DOUT_HIZ = -1;
class DigitalOut
{
protected:
uint8_t gpio_ch;
uint8_t invert;
int8_t last_set;
public:
DigitalOut(uint8_t gpio_ch, uint8_t inverted);
~DigitalOut(void);
void write(int8_t level);
int8_t get_set_level(void);
};
/**** Public function declarations ****/
#ifdef TESTING
#endif
} //namespace
#endif /* DIGITAL_OUTPUT_H_ */

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/**** Includes ****/
#include "../utils/utils.h"
#include "mcu/mcu_hal.h"
#include "halfbridge.h"
using namespace bsp;
/**** Private definitions ****/
/**** Private constants ****/
/**** Private variables ****/
/**** Private function declarations ****/
/**** Public function definitions ****/
bsp::Hafbridge::Hafbridge(uint8_t hs_pwm_ch, uint8_t ls_gpio_ch, uint8_t max_dc)
{
this->pwm_ch = hs_pwm_ch;
this->gpio_ch = ls_gpio_ch;
if(max_dc>100) max_dc = 100;
this->max_dc = util::percent_to_16b(max_dc);
this->disable();
}
bsp::Hafbridge::~Hafbridge(void)
{
this->last_duty = 0;
this->disable();
}
void bsp::Hafbridge::write(uint16_t dividend)
{
// Limit duty
if(dividend > this->max_dc) dividend = this->max_dc;
this->last_duty = dividend;
if(this->enabled == 0) return;
// Set PWM
mcu::pwm_write(this->pwm_ch, dividend);
}
void bsp::Hafbridge::write(uint8_t percent)
{
// Convert to dividend/0xFFFF
this->write(util::percent_to_16b(percent));
}
void bsp::Hafbridge::enable(void)
{
mcu::gpio_write(this->gpio_ch, mcu::LEVEL_HIGH);
this->enabled = 1;
this->write(this->last_duty);
}
void bsp::Hafbridge::disable(void)
{
mcu::pwm_write(this->pwm_ch, 0);
mcu::gpio_write(this->gpio_ch, mcu::LEVEL_LOW);
this->enabled = 0;
}
uint8_t bsp::Hafbridge::get_set_duty(void)
{
return this->last_duty;
}
uint8_t bsp::Hafbridge::is_enabled(void)
{
return this->enabled;
}
/**** Private function definitions ****/

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#ifndef HALFBRIDGE_H_
#define HALFBRIDGE_H_
/**** Includes ****/
#include <stdint.h>
namespace bsp {
/**** Public definitions ****/
class Hafbridge
{
protected:
uint8_t pwm_ch;
uint8_t gpio_ch;
uint16_t last_duty;
uint8_t enabled;
uint16_t max_dc;
public:
Hafbridge(uint8_t hs_pwm_ch, uint8_t ls_gpio_ch, uint8_t max_dc);
~Hafbridge(void);
void write(uint16_t dividend);
void write(uint8_t percent);
void enable(void);
void disable(void);
uint8_t get_set_duty(void);
uint8_t is_enabled(void);
};
/**** Public function declarations ****/
#ifdef TESTING
#endif
} //namespace
#endif /* HALFBRIDGE_H_ */

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#ifndef MCU_HAL_H_
#define MCU_HAL_H_
/**** Includes ****/
#include <stdint.h>
namespace mcu {
/**** Public definitions ****/
/*
*/
const uint8_t GPIO0 = 0; //PC5 Mode
const uint8_t GPIO1 = 1; //PC4 Pot
const uint8_t GPIO2 = 2; //PE1 Down
const uint8_t GPIO3 = 3; //PE3 Up
const uint8_t GPIO4 = 4; //PD7 Dimm
const uint8_t GPIO5 = 5; //PB7 Brakes
const uint8_t GPIO6 = 6; //PB6 Handbrake
const uint8_t GPIO7 = 7; //PB5 Handbrake pull
const uint8_t GPIO8 = 8; //PD6 Speed pull
const uint8_t GPIO9 = 9; //PD0 LED0
const uint8_t GPIO10 = 10; //PD1 LED1
const uint8_t GPIO11 = 11; //PD2 LED2
const uint8_t GPIO12 = 12; //PD3 LED3
const uint8_t GPIO13 = 13; //PD4 LED4
const uint8_t GPIO14 = 14; //PD5 LED5
const uint8_t GPIO15 = 15; //PB0 DCCD Enable
const uint8_t GPIO16 = 16; //PB1 DCCD PWM
const uint8_t GPIO17 = 17; //PB2 LED PWM
const uint8_t LEVEL_LOW = 0;
const uint8_t LEVEL_HIGH = 1;
const int8_t LEVEL_HIZ = -1;
const uint8_t ADC0 = 0; //Output current
const uint8_t ADC1 = 1; //Output voltage
const uint8_t ADC2 = 2; //Battery voltage
const uint8_t ADC3 = 3; //Battery current
const uint8_t ADC4 = 4; //Potentiometer
const uint8_t ADC5 = 5; //Mode
const uint8_t ADC8 = 8; //MCU temperature
const uint8_t ADC14 = 14; //MCU internal reference
const uint8_t ADC15 = 15; //MCU ground
const uint8_t PWM0 = 0; //DCCD
const uint8_t PWM1 = 1; //LED
//ADC definitions
typedef enum {
ADC_DIV2 = 0x01,
ADC_DIV4 = 0x02,
ADC_DIV8 = 0x03,
ADC_DIV16 = 0x04,
ADC_DIV32 = 0x05,
ADC_DIV64 = 0x06,
ADC_DIV128 = 0x07
} adcClkDiv_t;
//Timer definitions
typedef enum {
TIM_DIV1 = 0x01,
TIM_DIV8 = 0x02,
TIM_DIV64 = 0x03,
TIM_DIV256 = 0x04,
TIM_DIV1024 = 0x05
} timerClkDiv_t;
typedef struct {
adcClkDiv_t adc_clk;
timerClkDiv_t pwm_clk;
uint16_t pwm_top;
uint8_t pwm_ch1_en;
} startupCfg_t;
/**** Public function declarations ****/
void startup(startupCfg_t* hwCfg);
uint8_t gpio_read(uint8_t ch);
void gpio_write(uint8_t ch, int8_t lvl);
void gpio_write_pull(uint8_t ch, int8_t lvl);
uint16_t adc_read(uint8_t ch);
void pwm_write(uint8_t ch, uint16_t dc);
uint16_t pwm_read(uint8_t ch);
uint8_t eeprom_read8b(uint16_t address);
uint16_t eeprom_read16b(uint16_t address);
uint32_t eeprom_read32b(uint16_t address);
void eeprom_write8b(uint16_t address, uint8_t value);
void eeprom_write16b(uint16_t address, uint16_t value);
void eeprom_write32b(uint16_t address, uint32_t value);
} //namespace
#endif /* MCU_HAL_H_ */

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/**** Includes ****/
#include <avr/io.h>
#include <avr/eeprom.h>
#include "mcu_hal.h"
using namespace mcu;
/**** Private definitions ****/
/**** Private constants ****/
/**** Private variables ****/
/**** Private function declarations ****/
static uint8_t gpio_read_level(uint8_t pin_reg, uint8_t mask);
static void pwm_write_ocx(uint8_t ch, uint16_t value);
static uint16_t pwm_read_ocx(uint8_t ch);
/**** Public function definitions ****/
void mcu::startup(startupCfg_t* hwCfg)
{
// Fail-safe GPIO init
PORTB = 0xF8; // Set PORTB pull-ups
DDRB = 0x00; // Set all as inputs
PORTC = 0x40; // Set PORTC pull-ups
DDRC = 0x00; // Set all as inputs
PORTD = 0x80; // Set PORTD pull-ups
DDRD = 0x00; // Set all as inputs
PORTE = 0x0A; // Set PORTE pull-ups
DDRE = 0x00; // Set all as inputs
// Half-bridge related pins
PORTB &= ~0x03; //Set low
DDRB |= 0x03; //Set as output
// Common OD PWM pin
if(hwCfg->pwm_ch1_en) PORTB &= ~0x04; //Set low
else PORTB |= 0x04; //Set high
DDRB |= 0x04; //Set as output
// OD control pins
PORTD &= ~0x3F; //Set low (off)
DDRD |= 0x3F; //Set as outputs
// Handbrake pull-up pin
PORTB |= 0x20; //Set high
DDRB |= 0x20; //Set as output
// Handbrake and brakes pins
PORTB |= 0xC0; //Set pull-up on
DDRB &= ~0xC0; //Set as inputs
// Dimm
PORTD |= 0x80; //Set pull-up on
DDRD &= ~0x80; //Set as input
// Up and Down
PORTE |= 0x0A; //Set pull-up on
DDRE &= ~0x0A; //Set as inputs
// Internal ADC inputs
PORTC &= ~0x0F; //Pull-up off
DDRC &= ~0x0F; //Set as inputs
// Potentiometer & Mode
PORTC &= ~0x30; //Pull-up off
DDRC &= ~0x30; //Set as inputs
//ADC configuration
PRR0 &= ~0x01; //Enable ADC power
DIDR0 |= 0x0F; //Disable digital inputs, ADC0-ADC3
ADMUX = 0x40; //Set AVCC reference, Right adjust
ADCSRA = 0x00; //ADC Disabled, Single conversion, no IT
ADCSRA |= (uint8_t)hwCfg->adc_clk;
ADCSRB = 0x00; //no trigger input
ADCSRA |= 0x80; //Enable ADC
//DCCD and LED PWM configuration
PRR0 &= ~0x80; //Enable Timer1 power
TCCR1A = 0xC2; //Connect OC1A, inverted mode
if(hwCfg->pwm_ch1_en) TCCR1A |= 0x30; //Connect OC1B, inverted mode
TCCR1B = 0x18; //PWM, Phase & Frequency Correct ICR1 top, no clock, WGM:0xE
TCCR1C = 0x00;
TCNT1 = 0x0000;
OCR1A = 0xFFFF;
OCR1B = 0xFFFF;
ICR1 = hwCfg->pwm_top;
TIMSK1 = 0x00; //No interrupts
TIFR1 = 0x00; //Clear all flags
uint8_t tim1_prescaler = (uint8_t)hwCfg->pwm_clk;
TCCR1B |= tim1_prescaler; //Enable timer
}
// ADC Interface functions
uint16_t mcu::adc_read(uint8_t ch)
{
//check if ADC is enabled
if(!(ADCSRA&0x80)) return 0xFFFF;
//Safe guard mux
if(ch > 15) return 0xFFFF;
// Not available channels
if((ch > 8) && (ch<14)) return 0xFFFF;
ADMUX &= ~0x0F;
ADMUX |= ch;
ADCSRA |= 0x40;
while(ADCSRA&0x40); //wait to finish
return ADC;
}
// PWM Timer Interface functions
void mcu::pwm_write(uint8_t ch, uint16_t dc)
{
dc = 0xFFFF - dc;
// Calculate value as % of TOP
uint32_t top = (uint32_t)ICR1;
uint32_t temp = (uint32_t)dc * top;
temp = temp/0x0000FFFF;
//Limit temp
if(temp>0x0000FFFF) temp = 0x0000FFFF;
uint16_t ocrx = (uint16_t)temp;
// Write register
pwm_write_ocx(ch, ocrx);
}
uint16_t mcu::pwm_read(uint8_t ch)
{
uint16_t ocrx = pwm_read_ocx(ch);
// Check easy answers
if(ocrx == 0) return 0;
if(ocrx >= ICR1) return 0xFFFF;
// Calculate
uint32_t top = (uint32_t)ICR1;
uint32_t temp = (uint32_t)ocrx * 0xFFFF;
temp = temp/top;
//Limit temp
if(temp>0x0000FFFF) return 0xFFFF;
return (uint16_t)temp;
}
uint8_t mcu::gpio_read(uint8_t ch)
{
switch(ch)
{
case GPIO0: // Mode DIN1
return gpio_read_level(PINC,0x20);
case GPIO1: // Pot DIN2
return gpio_read_level(PINC,0x10);
case GPIO2: // Down DIN3
return gpio_read_level(PINE,0x02);
case GPIO3: // Up DIN4
return gpio_read_level(PINE,0x08);
case GPIO4: // Dimm DIN5
return gpio_read_level(PIND,0x80);
case GPIO5: // Brakes DIN6
return gpio_read_level(PINB,0x80);
case GPIO6: // Handbrake DIN7
return gpio_read_level(PINB,0x40);
case GPIO7: // Handbrake pull DIN8
return gpio_read_level(PINB,0x20);
case GPIO8: // Speed-pull
return gpio_read_level(PIND,0x40);
case GPIO9: // LED 0
return gpio_read_level(PIND,0x01);
case GPIO10: // LED 1
return gpio_read_level(PIND,0x02);
case GPIO11: // LED 2
return gpio_read_level(PIND,0x04);
case GPIO12: // LED 3
return gpio_read_level(PIND,0x08);
case GPIO13: // LED 4
return gpio_read_level(PIND,0x10);
case GPIO14: // LED 5
return gpio_read_level(PIND,0x20);
case GPIO15: // DCCD Enable
return gpio_read_level(PINB,0x01);
case GPIO16: // DCCD PWM
return gpio_read_level(PINB,0x02);
case GPIO17: // LED PWM
return gpio_read_level(PINB,0x04);
default:
return 0;
}
}
void mcu::gpio_write(uint8_t ch, int8_t lvl)
{
switch(ch)
{
case GPIO0: // Mode DIN1
if(lvl>0)
{
PORTC |= 0x20;
DDRC |= 0x20;
}
else if(lvl<0)
{
DDRC &= ~0x20;
PORTC &= ~0x20;
}
else
{
PORTC &= ~0x20;
DDRC |= 0x20;
}
return;
case GPIO1: // Pot DIN2
if(lvl>0)
{
PORTC |= 0x10;
DDRC |= 0x10;
}
else if(lvl<0)
{
DDRC &= ~0x10;
PORTC &= ~0x10;
}
else
{
PORTC &= ~0x10;
DDRC |= 0x10;
}
return;
case GPIO2: // Down DIN3
if(lvl>0)
{
PORTE |= 0x02;
DDRE |= 0x02;
}
else if(lvl<0)
{
DDRE &= ~0x02;
PORTE &= ~0x02;
}
else
{
PORTE &= ~0x02;
DDRE |= 0x02;
}
return;
case GPIO3: // Up DIN4
if(lvl>0)
{
PORTE |= 0x08;
DDRE |= 0x08;
}
else if(lvl<0)
{
DDRE &= ~0x08;
PORTE &= ~0x08;
}
else
{
PORTE &= ~0x08;
DDRE |= 0x08;
}
return;
case GPIO7: // Handbrake pull DIN
if(lvl>0)
{
PORTB |= 0x20;
DDRB |= 0x20;
}
else if(lvl<0)
{
DDRB &= ~0x20;
PORTB &= ~0x20;
}
else
{
PORTB &= ~0x20;
DDRB |= 0x20;
}
return;
case GPIO8: // Speed-pull
if(lvl>0) PORTD |= 0x40;
else PORTD &= ~0x40;
return;
case GPIO9: // LED 0
if(lvl>0) PORTD |= 0x01;
else PORTD &= ~0x01;
return;
case GPIO10: // LED 1
if(lvl>0) PORTD |= 0x02;
else PORTD &= ~0x02;
return;
case GPIO11: // LED 2
if(lvl>0) PORTD |= 0x04;
else PORTD &= ~0x04;
return;
case GPIO12: // LED 3
if(lvl>0) PORTD |= 0x08;
else PORTD &= ~0x08;
return;
case GPIO13: // LED 4
if(lvl>0) PORTD |= 0x10;
else PORTD &= ~0x10;
return;
case GPIO14: // LED 5
if(lvl>0) PORTD |= 0x20;
else PORTD &= ~0x20;
return;
case GPIO15: // DCCD Enable
if(lvl>0) PORTB |= 0x01;
else PORTB &= ~0x01;
return;
default:
return;
}
}
void mcu::gpio_write_pull(uint8_t ch, int8_t lvl)
{
switch(ch)
{
case GPIO0: // Mode DIN1
if(lvl>0) PORTC |= 0x20;
else PORTC &= ~0x20;
return;
case GPIO1: // Pot DIN2
if(lvl>0) PORTC |= 0x10;
else PORTC &= ~0x10;
return;
case GPIO2: // Down DIN3
if(lvl>0) PORTE |= 0x02;
else PORTE &= ~0x02;
return;
case GPIO3: // Up DIN4
if(lvl>0) PORTE |= 0x08;
else PORTE &= ~0x08;
return;
case GPIO4: // Dimm
if(lvl>0) PORTD |= 0x80;
else PORTD &= ~0x80;
return;
case GPIO5: // Brakes
if(lvl>0) PORTB |= 0x80;
else PORTB &= ~0x80;
return;
case GPIO6: // Handbrake
if(lvl>0) PORTB |= 0x40;
else PORTB &= ~0x40;
return;
default:
return;
}
}
uint8_t mcu::eeprom_read8b(uint16_t address)
{
return eeprom_read_byte((uint8_t*)address);
}
uint16_t mcu::eeprom_read16b(uint16_t address)
{
return eeprom_read_word((uint16_t*)address);
}
uint32_t mcu::eeprom_read32b(uint16_t address)
{
return eeprom_read_dword((uint32_t*)address);
}
void mcu::eeprom_write8b(uint16_t address, uint8_t value)
{
eeprom_write_byte((uint8_t*)address, value);
}
void mcu::eeprom_write16b(uint16_t address, uint16_t value)
{
eeprom_write_word((uint16_t*)address, value);
}
void mcu::eeprom_write32b(uint16_t address, uint32_t value)
{
eeprom_write_dword((uint32_t*)address, value);
}
/**** Private function definitions ****/
static uint8_t gpio_read_level(uint8_t pin_reg, uint8_t mask)
{
if(pin_reg&mask) return LEVEL_HIGH;
else return LEVEL_LOW;
}
static void pwm_write_ocx(uint8_t ch, uint16_t value)
{
switch(ch)
{
case PWM0:
OCR1A = value;
return;
case PWM1:
OCR1B = value;
return;
default:
return;
}
}
static uint16_t pwm_read_ocx(uint8_t ch)
{
switch(ch)
{
case PWM0:
return OCR1A;
case PWM1:
return OCR1B ;
default:
return 0x0000;
}
}

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firmware/src/bsp/pwm.cpp Normal file
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/**** Includes ****/
#include "../utils/utils.h"
#include "mcu/mcu_hal.h"
#include "pwm.h"
using namespace bsp;
/**** Private definitions ****/
/**** Private constants ****/
/**** Private variables ****/
/**** Private function declarations ****/
/**** Public function definitions ****/
bsp::PWMout::PWMout(uint8_t pwm_ch)
{
this->pwm_ch = pwm_ch;
this->write(0);
}
bsp::PWMout::~PWMout(void)
{
this->write(0);
}
void bsp::PWMout::write(uint8_t duty)
{
// Convert percent to 16b duty cycle
uint16_t dc = util::percent_to_16b(duty);
// Set PWM
mcu::pwm_write(this->pwm_ch, dc);
this->last_duty = duty;
}
uint8_t bsp::PWMout::get_set_duty(void)
{
return this->last_duty;
}
/**** Private function definitions ****/

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#ifndef PWM_H_
#define PWM_H_
/**** Includes ****/
#include <stdint.h>
namespace bsp {
/**** Public definitions ****/
class PWMout
{
protected:
uint8_t pwm_ch;
uint8_t last_duty;
public:
PWMout(uint8_t pwm_ch);
~PWMout(void);
void write(uint8_t duty);
uint8_t get_set_duty(void);
};
/**** Public function declarations ****/
#ifdef TESTING
#endif
} //namespace
#endif /* PWM_H_ */

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/**** Includes ****/
#include "../utils/utils.h"
#include "button.h"
using namespace hw;
/**** Private definitions ****/
/**** Private constants ****/
/**** Private variables ****/
/**** Private function declarations ****/
/**** Public function definitions ****/
hw::Button::Button(bsp::DigitalIn* din_ch, uint8_t act_lvl, uint8_t dbnc_lim, uint8_t init_state)
{
this->din_ch = din_ch;
if(act_lvl) this->act_lvl = bsp::DIN_HIGH;
else this->act_lvl = bsp::DIN_LOW;
this->dbnc_cnter = 0;
this->dbnc_lim = dbnc_lim;
if(init_state) this->state = BUTTON_ON;
else this->state = BUTTON_OFF;
this->time = 0;
this->is_new = 0;
this->hold_time = 0;
}
hw::Button::~Button(void)
{
return;
}
uint8_t hw::Button::update(void)
{
// Read din level
uint8_t lvl = this->din_ch->last_read;
// Increase state counter
this->time = util::sat_add(this->time, 1);
// Repeat new flag after hold time
if((this->state == BUTTON_ON)&&(this->time > this->hold_time)&&(this->hold_time > 0))
{
this->time = 0;
this->is_new = 1;
};
// Determine next state
uint8_t next_state = BUTTON_OFF;
if(lvl==this->act_lvl) next_state = BUTTON_ON;
// Advance debounce sample counter
if(next_state != this->state) this->dbnc_cnter++;
else this->dbnc_cnter = 0;
// Check for debounce end
if(this->dbnc_cnter < this->dbnc_lim) return this->state;
// Debounce end. Apply new state.
this->state = next_state;
this->time = 0;
this->is_new = 1;
this->dbnc_cnter = 0;
return this->state;
}
uint8_t hw::Button::force_update(void)
{
// Read din level
uint8_t lvl = this->din_ch->read();
// Cancels active debounce
this->dbnc_cnter = 0;
// Determine next state
uint8_t next_state = BUTTON_OFF;
if(lvl==this->act_lvl) next_state = BUTTON_ON;
if(next_state != this->state)
{
this->state = next_state;
this->time = 0;
this->is_new = 1;
};
return this->state;
}
/**** Private function definitions ****/

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#ifndef BUTTON_H_
#define BUTTON_H_
/**** Includes ****/
#include <stdint.h>
#include "../bsp/din.h"
namespace hw {
/**** Public definitions ****/
const uint8_t BUTTON_OFF = 0;
const uint8_t BUTTON_ON = 1;
class Button
{
protected:
bsp::DigitalIn* din_ch;
uint8_t act_lvl;
uint8_t dbnc_cnter;
public:
Button(bsp::DigitalIn* din_ch, uint8_t act_lvl, uint8_t dbnc_lim, uint8_t init_state);
~Button(void);
uint8_t state;
uint16_t time;
uint8_t dbnc_lim;
uint8_t is_new;
uint16_t hold_time;
uint8_t update(void);
uint8_t force_update(void);
};
/**** Public function declarations ****/
#ifdef TESTING
#endif
} //namespace
#endif /* BUTTON_H_ */

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/**** Includes ****/
#include "../utils/utils.h"
#include "cc_output.h"
using namespace hw;
/**** Private definitions ****/
/**** Private constants ****/
/**** Private variables ****/
/**** Private function declarations ****/
/**** Public function definitions ****/
hw::CCoutput::CCoutput(bsp::Hafbridge* hbridge, bsp::AnalogIn* supply_u, bsp::AnalogIn* out_u, bsp::AnalogIn* out_i) : CVoutput(hbridge, supply_u)
{
this->out_voltage = out_u;
this->out_currnet = out_i;
this->out_impedance = 0xFFFF;
this->target_voltage = 0;
}
void hw::CCoutput::update(void)
{
// Calculate output impedance
if((this->out_currnet == 0)||(this->out_voltage->last_read == 0)) this->out_impedance = 0xFFFF;
else
{
this->out_impedance = util::sat_div_kilo(this->out_voltage->last_read, this->out_currnet->last_read);
}
// Check target
if((this->target < this->min_out)&&(this->target > 0)) this->target = this->min_out;
// Convert target current to voltage
this->target_voltage = util::sat_mul_kilo(this->target, this->out_impedance);
// Set output
this->hbridge->write(util::sat_ratio(this->target_voltage, this->supply->last_read));
}
/**** Private function definitions ****/

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#ifndef CONST_CURRENT_OUTPUT_H_
#define CONST_CURRENT_OUTPUT_H_
/**** Includes ****/
#include <stdint.h>
#include "../bsp/ain.h"
#include "cv_output.h"
namespace hw {
/**** Public definitions ****/
class CCoutput : public CVoutput
{
protected:
bsp::AnalogIn* out_voltage;
bsp::AnalogIn* out_currnet;
public:
CCoutput(bsp::Hafbridge* hbridge, bsp::AnalogIn* supply_u, bsp::AnalogIn* out_u, bsp::AnalogIn* out_i);
void update(void);
uint16_t out_impedance;
uint16_t target_voltage;
};
/**** Public function declarations ****/
#ifdef TESTING
#endif
} //namespace
#endif /* CONST_VOLTAGE_OUTPUT_H_ */

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/**** Includes ****/
#include "../utils/utils.h"
#include "cv_output.h"
using namespace hw;
/**** Private definitions ****/
/**** Private constants ****/
/**** Private variables ****/
/**** Private function declarations ****/
/**** Public function definitions ****/
hw::CVoutput::CVoutput(bsp::Hafbridge* hbridge, bsp::AnalogIn* supply_u)
{
this->hbridge = hbridge;
this->supply = supply_u;
this->target = 0;
this->min_out = 0;
this->hbridge->disable();
}
hw::CVoutput::~CVoutput(void)
{
this->hbridge->write((uint16_t)0x0000);
this->hbridge->disable();
return;
}
void hw::CVoutput::update(void)
{
// Check target
if((this->target < this->min_out)&&(this->target > 0)) this->target = this->min_out;
// Set output
this->hbridge->write(util::sat_ratio(this->target, this->supply->last_read));
}
void hw::CVoutput::enable(void)
{
this->hbridge->enable();
}
void hw::CVoutput::disable(void)
{
this->hbridge->disable();
}
uint8_t hw::CVoutput::is_enabled(void)
{
return this->hbridge->is_enabled();
}
/**** Private function definitions ****/

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#ifndef CONST_VOLTAGE_OUTPUT_H_
#define CONST_VOLTAGE_OUTPUT_H_
/**** Includes ****/
#include <stdint.h>
#include "../bsp/ain.h"
#include "../bsp/halfbridge.h"
namespace hw {
/**** Public definitions ****/
class CVoutput
{
protected:
bsp::Hafbridge* hbridge;
bsp::AnalogIn* supply;
public:
CVoutput(bsp::Hafbridge* hbridge, bsp::AnalogIn* supply_u);
~CVoutput(void);
uint16_t target;
uint16_t min_out;
void update(void);
void enable(void);
void disable(void);
uint8_t is_enabled(void);
};
/**** Public function declarations ****/
#ifdef TESTING
#endif
} //namespace
#endif /* CONST_VOLTAGE_OUTPUT_H_ */

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/**** Includes ****/
#include "../utils/utils.h"
#include "devices.h"
/**** Private definitions ****/
/**** Private constants ****/
static const uint16_t def_button_hold_time = 1000;
static const uint16_t def_max_voltage = 7000;
static const uint16_t def_min_voltage = 100;
static const uint16_t def_fuse_treshold = 6000;
static const uint16_t def_fuse_hold_cycles = 50;
static const uint16_t def_fuse_cooldown_cycles = 1000;
/**** Private variables ****/
/**** Private function declarations ****/
/**** Public function definitions ****/
void devices_init(void)
{
board_init();
btn_up.hold_time = def_button_hold_time;
btn_down.hold_time = def_button_hold_time;
ccout.max_voltage = def_max_voltage;
ccout.max_current = 0;
ccout.min_voltage = def_min_voltage;
sup_fuse.hold_current = def_fuse_treshold;
sup_fuse.trip_cycles = def_fuse_hold_cycles;
sup_fuse.cooldown_cycles = def_fuse_cooldown_cycles;
out_fuse.hold_current = def_fuse_treshold;
out_fuse.trip_cycles = def_fuse_hold_cycles;
out_fuse.cooldown_cycles = def_fuse_cooldown_cycles;
hvdin3_pull.write(bsp::DOUT_HIGH);
devices_update_inputs();
display.write(0x00);
display.set_brigthness(100);
ccout.update();
ccout.enable();
}
void devices_update_inputs(void)
{
board_read();
pot.update();
btn_mode.update();
btn_up.update();
btn_down.update();
sw_dimm.update();
sw_brakes.update();
sw_hbrake.update();
sup_fuse.update();
out_fuse.update();
display.process_timer();
}
/**** Private function definitions ****/

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#ifndef HW_DEVICES_H_
#define HW_DEVICES_H_
/**** Includes ****/
#include <stdint.h>
#include "../bsp/board.h"
#include "button.h"
#include "potentiometer.h"
#include "display_led.h"
#include "reg_out.h"
#include "fuse.h"
static hw::Button btn_mode = hw::Button(&din1, bsp::DIN_LOW, 10, hw::BUTTON_OFF);
static hw::Button btn_up = hw::Button(&din4, bsp::DIN_LOW, 10, hw::BUTTON_OFF);
static hw::Button btn_down = hw::Button(&din3, bsp::DIN_LOW, 10, hw::BUTTON_OFF);
static hw::Button sw_dimm = hw::Button(&hvdin1, bsp::DIN_HIGH, 10, hw::BUTTON_OFF);
static hw::Button sw_brakes = hw::Button(&hvdin2, bsp::DIN_HIGH, 10, hw::BUTTON_OFF);
static hw::Button sw_hbrake = hw::Button(&hvdin3, bsp::DIN_LOW, 10, hw::BUTTON_OFF);
static hw::Potentiometer pot = hw::Potentiometer(&ain2, 500, 4500);
static hw::DisplayLed display = hw::DisplayLed(&odout1, &odout2, &odout3, &odout4, &odout5, &odout6, &od_pwm);
static hw::RegOut ccout = hw::RegOut(&hbridge, &bat_u, &dccd_u, &dccd_i);
static hw::Fuse sup_fuse = hw::Fuse(&bat_i);
static hw::Fuse out_fuse = hw::Fuse(&dccd_i);
void devices_init(void);
void devices_update_inputs(void);
#endif /* BSP_BOARD_H_ */

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/**** Includes ****/
#include "../utils/utils.h"
#include "display_led.h"
using namespace hw;
/**** Private definitions ****/
/**** Private constants ****/
/**** Private variables ****/
/**** Private function declarations ****/
static uint8_t img_gen_dot10(uint8_t percent);
static uint8_t img_gen_dot20(uint8_t percent);
static uint8_t img_gen_bar(uint8_t percent);
/**** Public function definitions ****/
hw::DisplayLed::DisplayLed(bsp::DigitalOut* led0, bsp::DigitalOut* led1, bsp::DigitalOut* led2, bsp::DigitalOut* led3, bsp::DigitalOut* led4, bsp::DigitalOut* led5, bsp::PWMout* common)
{
this->led0 = led0;
this->led1 = led1;
this->led2 = led2;
this->led3 = led3;
this->led4 = led4;
this->led5 = led5;
this->common = common;
this->led0->write(0);
this->led1->write(0);
this->led2->write(0);
this->led3->write(0);
this->led4->write(0);
this->led5->write(0);
this->common->write(0);
this->lock_counter = 0;
this->locked = 1;
}
hw::DisplayLed::~DisplayLed(void)
{
this->led0->write(0);
this->led1->write(0);
this->led2->write(0);
this->led3->write(0);
this->led4->write(0);
this->led5->write(0);
this->common->write(0);
}
void hw::DisplayLed::show_percent(uint8_t percent, style_t style)
{
uint8_t image = 0x00;
switch(style)
{
case LED_DSP_BAR:
image = img_gen_bar(percent);
break;
case LED_DSP_DOT10:
image = img_gen_dot10(percent);
break;
default:
image = img_gen_dot20(percent);
break;
}
this->write(image);
}
void hw::DisplayLed::write(uint8_t image)
{
if(image&0x01) this->led0->write(1);
else this->led0->write(0);
if(image&0x02) this->led1->write(1);
else this->led1->write(0);
if(image&0x04) this->led2->write(1);
else this->led2->write(0);
if(image&0x08) this->led3->write(1);
else this->led3->write(0);
if(image&0x10) this->led4->write(1);
else this->led4->write(0);
if(image&0x20) this->led5->write(1);
else this->led5->write(0);
}
void hw::DisplayLed::set_brigthness(uint8_t percent)
{
this->common->write(percent);
}
void hw::DisplayLed::set_lock(uint16_t timeout)
{
this->lock_counter = timeout;
this->locked = 1;
}
void hw::DisplayLed::process_timer(void)
{
if(this->lock_counter) this->lock_counter--;
else this->locked = 0;
}
/**** Private function definitions ****/
static uint8_t img_gen_dot10(uint8_t percent)
{
switch(percent)
{
case 0 ... 5:
return 0x01;
case 6 ... 15:
return 0x03;
case 16 ... 25:
return 0x02;
case 26 ... 35:
return 0x06;
case 36 ... 45:
return 0x04;
case 46 ... 55:
return 0x0C;
case 56 ... 65:
return 0x08;
case 66 ... 75:
return 0x18;
case 76 ... 85:
return 0x10;
case 86 ... 95:
return 0x30;
default:
return 0x20;
}
}
static uint8_t img_gen_dot20(uint8_t percent)
{
switch(percent)
{
case 0 ... 10:
return 0x01;
case 11 ... 30:
return 0x02;
case 31 ... 50:
return 0x04;
case 51 ... 70:
return 0x08;
case 71 ... 90:
return 0x10;
default:
return 0x20;
}
}
static uint8_t img_gen_bar(uint8_t percent)
{
switch(percent)
{
case 0 ... 10:
return 0x01;
case 11 ... 30:
return 0x03;
case 31 ... 50:
return 0x07;
case 51 ... 70:
return 0x0F;
case 71 ... 90:
return 0x1F;
default:
return 0x3F;
}
}

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#ifndef DISPLAY_LED_H_
#define DISPLAY_LED_H_
/**** Includes ****/
#include <stdint.h>
#include "../bsp/dout.h"
#include "../bsp/pwm.h"
namespace hw {
/**** Public definitions ****/
class DisplayLed
{
protected:
bsp::DigitalOut* led0;
bsp::DigitalOut* led1;
bsp::DigitalOut* led2;
bsp::DigitalOut* led3;
bsp::DigitalOut* led4;
bsp::DigitalOut* led5;
bsp::PWMout* common;
uint16_t lock_counter;
public:
typedef enum {
LED_DSP_DOT20,
LED_DSP_DOT10,
LED_DSP_BAR
} style_t;
DisplayLed(bsp::DigitalOut* led0, bsp::DigitalOut* led1, bsp::DigitalOut* led2, bsp::DigitalOut* led3, bsp::DigitalOut* led4, bsp::DigitalOut* led5, bsp::PWMout* common);
~DisplayLed(void);
void show_percent(uint8_t percent, style_t style);
void write(uint8_t image);
void set_brigthness(uint8_t percent);
void set_lock(uint16_t timeout);
void process_timer(void);
uint8_t locked;
};
/**** Public function declarations ****/
#ifdef TESTING
#endif
} //namespace
#endif /* DISPLAY_LED_H_ */

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/**** Includes ****/
#include "../utils/utils.h"
#include "fuse.h"
using namespace hw;
/**** Private definitions ****/
/**** Private constants ****/
/**** Private variables ****/
/**** Private function declarations ****/
/**** Public function definitions ****/
hw::Fuse::Fuse(bsp::AnalogIn* ain_ch)
{
this->hold_current = 0;
this->trip_cycles = 0;
this->warning = 0;
this->fault = 0;
this->cooldown_counter = 0;
this->cooldown_cycles = 0;
this->retry_cnt = 0;
}
hw::Fuse::~Fuse(void)
{
return;
}
void hw::Fuse::update(void)
{
// Under threshold
if(this->ain_ch->last_read <= this->hold_current)
{
// Clear warning flag
this->warning = 0;
// OC energy counter
if(this->oc_counter > 0) this->oc_counter--;
// Cool down fuse
if(this->cooldown_counter > 0) this->cooldown_counter--;
// Auto reset logic
if((this->fault)&&(this->cooldown_counter==0))
{
this->fault = 0;
this->retry_cnt = util::sat_add(this->retry_cnt, 1);
};
return;
};
// Over current condition
this->warning = 1;
// PC energy counter
this->oc_counter = util::sat_add(this->oc_counter, 1);
// Check for trip threshold
if(this->oc_counter < this->trip_cycles) return;
// Trip fuse
this->fault = 1;
this->cooldown_counter = this->cooldown_cycles;
}
/**** Private function definitions ****/

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#ifndef FUSE_H_
#define FUSE_H_
/**** Includes ****/
#include <stdint.h>
#include "../bsp/ain.h"
namespace hw {
/**** Public definitions ****/
class Fuse
{
protected:
bsp::AnalogIn* ain_ch;
uint16_t oc_counter;
uint16_t cooldown_counter;
public:
Fuse(bsp::AnalogIn* ain_ch);
~Fuse(void);
uint16_t hold_current;
uint16_t trip_cycles;
uint8_t warning;
uint8_t fault;
uint16_t cooldown_cycles;
uint8_t retry_cnt;
void update(void);
};
/**** Public function declarations ****/
#ifdef TESTING
#endif
} //namespace
#endif /* POTENTIOMETER_H_ */

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/**** Includes ****/
#include "../utils/utils.h"
#include "../utils/interpolate.h"
#include "potentiometer.h"
using namespace hw;
/**** Private definitions ****/
/**** Private constants ****/
/**** Private variables ****/
/**** Private function declarations ****/
/**** Public function definitions ****/
hw::Potentiometer::Potentiometer(bsp::AnalogIn* ain_ch, uint16_t low_deadzone, uint16_t high_deadzone)
{
this->ain_ch = ain_ch;
this->low_deadzone = low_deadzone;
this->high_deadzone = high_deadzone;
this->percent = 0;
}
hw::Potentiometer::~Potentiometer(void)
{
return;
}
uint8_t hw::Potentiometer::update(void)
{
// Calculate percent
if(this->ain_ch->last_read <= this->low_deadzone) this->percent = 0;
else if(this->ain_ch->last_read >= this->high_deadzone ) this->percent = 100;
else this->percent = util::interpolate(this->ain_ch->last_read, this->low_deadzone, this->high_deadzone, 0, 100);
return this->percent;
}
/**** Private function definitions ****/

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#ifndef POTENTIOMETER_H_
#define POTENTIOMETER_H_
/**** Includes ****/
#include <stdint.h>
#include "../bsp/ain.h"
namespace hw {
/**** Public definitions ****/
class Potentiometer
{
protected:
bsp::AnalogIn* ain_ch;
public:
Potentiometer(bsp::AnalogIn* ain_ch, uint16_t low_deadzone, uint16_t high_deadzone);
~Potentiometer(void);
uint16_t low_deadzone;
uint16_t high_deadzone;
uint8_t percent;
uint8_t update(void);
};
/**** Public function declarations ****/
#ifdef TESTING
#endif
} //namespace
#endif /* POTENTIOMETER_H_ */

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/**** Includes ****/
#include "../utils/utils.h"
#include "reg_out.h"
using namespace hw;
/**** Private definitions ****/
/**** Private constants ****/
/**** Private variables ****/
/**** Private function declarations ****/
/**** Public function definitions ****/
hw::RegOut::RegOut(bsp::Hafbridge* hbridge, bsp::AnalogIn* sup_u, bsp::AnalogIn* out_u, bsp::AnalogIn* out_i)
{
this->hbridge = hbridge;
this->supply_voltage = sup_u;
this->out_voltage = out_u;
this->out_currnet = out_i;
this->max_voltage = 6750;
this->max_current = 4500;
this->min_voltage = 200;
this->set_voltage = 0;
this->out_impedance = 0xFFFF;
this->hbridge->disable();
}
hw::RegOut::~RegOut(void)
{
this->hbridge->write((uint16_t)0x0000);
this->hbridge->disable();
return;
}
void hw::RegOut::update(void)
{
// Calculate output impedance
if((this->out_currnet == 0)||(this->out_voltage->last_read == 0)) this->out_impedance = 0xFFFF;
else this->out_impedance = util::sat_div_kilo(this->out_voltage->last_read, this->out_currnet->last_read);
// Recalculate output set voltage
if((this->max_voltage==0)||(this->max_current==0)) this->set_voltage = 0;
else this->set_voltage = util::sat_mul_kilo(this->max_current, this->out_impedance);
// Limit set voltage
if(this->set_voltage > this->max_voltage) this->set_voltage = this->max_voltage;
if((this->set_voltage>0)&&(this->set_voltage < this->min_voltage)) this->set_voltage = this->min_voltage;
// Set output
this->hbridge->write(util::sat_ratio(this->set_voltage, this->supply_voltage->last_read));
}
void hw::RegOut::enable(void)
{
this->hbridge->enable();
}
void hw::RegOut::disable(void)
{
this->hbridge->disable();
}
uint8_t hw::RegOut::is_enabled(void)
{
return this->hbridge->is_enabled();
}
/**** Private function definitions ****/

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#ifndef REGULATED_OUTPUT_H_
#define REGULATED_OUTPUT_H_
/**** Includes ****/
#include <stdint.h>
#include "../bsp/ain.h"
#include "../bsp/halfbridge.h"
namespace hw {
/**** Public definitions ****/
class RegOut
{
protected:
bsp::Hafbridge* hbridge;
bsp::AnalogIn* supply_voltage;
bsp::AnalogIn* out_voltage;
bsp::AnalogIn* out_currnet;
public:
RegOut(bsp::Hafbridge* hbridge, bsp::AnalogIn* sup_u, bsp::AnalogIn* out_u, bsp::AnalogIn* out_i);
~RegOut(void);
uint16_t max_voltage;
uint16_t max_current;
uint16_t min_voltage;
uint16_t set_voltage;
uint16_t out_impedance;
void update(void);
void enable(void);
void disable(void);
uint8_t is_enabled(void);
};
/**** Public function declarations ****/
#ifdef TESTING
#endif
} //namespace
#endif /* REGULATED_OUTPUT_H_ */

View File

@@ -0,0 +1,51 @@
/**** Includes ****/
#include "../utils/utils.h"
#include "button_force.h"
using namespace logic;
/**** Private definitions ****/
/**** Private constants ****/
/**** Private variables ****/
/**** Private function declarations ****/
/**** Public function definitions ****/
logic::ButtonForce::ButtonForce(hw::Button* btn_up, hw::Button* btn_down)
{
this->btn_up = btn_up;
this->btn_down = btn_down;
this->force = 0;
this->step = 10;
this->is_new = 0;
}
logic::ButtonForce::~ButtonForce(void)
{
return;
}
uint8_t logic::ButtonForce::update(void)
{
uint8_t next_force = 0;
if((this->btn_up->is_new)&&(this->btn_up->state == hw::BUTTON_ON))
{
next_force = util::sat_add(this->force, this->step);
if(next_force > 100) next_force = 100;
this->btn_up->is_new = 0;
};
if((this->btn_down->is_new)&&(this->btn_down->state == hw::BUTTON_ON))
{
next_force = util::sat_subtract(this->force, this->step);
this->btn_down->is_new = 0;
};
if(next_force != this->force) this->is_new = 1;
this->force = next_force;
return this->force;
}
/**** Private function definitions ****/

View File

@@ -0,0 +1,36 @@
#ifndef BUTTON_FORCE_H_
#define BUTTON_FORCE_H_
/**** Includes ****/
#include <stdint.h>
#include "../hw/button.h"
namespace logic {
/**** Public definitions ****/
class ButtonForce
{
protected:
hw::Button* btn_up;
hw::Button* btn_down;
public:
ButtonForce(hw::Button* btn_up, hw::Button* btn_down);
~ButtonForce(void);
uint8_t force;
uint8_t step;
uint8_t is_new;
uint8_t update(void);
};
/**** Public function declarations ****/
#ifdef TESTING
#endif
} //namespace
#endif /* BUTTON_FORCE_H_ */

View File

@@ -0,0 +1,193 @@
/**** Includes ****/
#include "cfg_mem.h"
#include "../bsp/mcu/mcu_hal.h"
using namespace logic;
/**** Private definitions ****/
/**** Private constants ****/
static const uint16_t addr_btn_force = 0x0000;
static const uint16_t addr_bmode = 0x0001;
static const uint16_t addr_pot_mode = 0x0002;
static const uint16_t addr_dsp_brigth = 0x0003;
static const uint16_t addr_dsp_dimm = 0x0004;
static const uint16_t addr_brake_force = 0x0005;
static const uint16_t addr_max_hbrake_time = 0x0006;
static const uint16_t addr_lock_current = 0x0008;
static const uint16_t addr_max_out_voltage = 0x000A;
static const uint16_t addr_min_out_voltage = 0x000C;
static const uint16_t addr_cfg_good = 0x000D;
static const uint8_t def_btn_force = 0;
static const uint8_t def_pot_mode = 0;
static const uint8_t def_bmode = 0;
static const uint8_t def_dimm = 50;
static const uint8_t def_brigth = 100;
static const uint8_t def_brake_force = 100;
static const uint16_t def_max_hbrake_time = 1000;
static const uint16_t def_lock_current = 4500;
static const uint16_t def_max_out_voltage = 7000;
static const uint16_t def_min_out_voltage = 200;
/**** Private variables ****/
/**** Private function declarations ****/
/**** Public function definitions ****/
logic::CfgMemory::CfgMemory(void)
{
this->cfg_good = 0;
this->mem_btn_force = 0;
this->mem_bmode = 0;
this->mem_pot_mode = 0;
this->mem_dsp_brigth = 0;
this->mem_dsp_dimm = 0;
this->mem_brake_force = 0;
this->mem_max_hbrake_time = 0;
this->mem_lock_current = 0;
this->mem_max_out_voltage = 0;
this->mem_min_out_voltage = 0;
this->restore();
}
logic::CfgMemory::~CfgMemory(void)
{
return;
}
void logic::CfgMemory::init(void)
{
uint8_t cfg_good_magic = mcu::eeprom_read8b(addr_cfg_good);
this->mem_btn_force = mcu::eeprom_read8b(addr_btn_force);
this->mem_bmode = mcu::eeprom_read8b(addr_bmode);
this->mem_pot_mode = mcu::eeprom_read8b(addr_pot_mode);
this->mem_dsp_brigth = mcu::eeprom_read8b(addr_dsp_brigth);
this->mem_dsp_dimm = mcu::eeprom_read8b(addr_dsp_dimm);
this->mem_brake_force = mcu::eeprom_read8b(addr_brake_force);
this->mem_max_hbrake_time = mcu::eeprom_read16b(addr_max_hbrake_time);
this->mem_lock_current = mcu::eeprom_read16b(addr_lock_current);
this->mem_max_out_voltage = mcu::eeprom_read16b(addr_max_out_voltage);
this->mem_min_out_voltage = mcu::eeprom_read16b(addr_min_out_voltage);
// Validate EEPROM data
if(cfg_good_magic == 0x37) this->cfg_good = 1;
else this->cfg_good = 0;
if(this->cfg_good != 1)
{
this->mem_btn_force = def_btn_force;
this->mem_bmode = def_bmode;
this->mem_pot_mode = def_pot_mode;
this->mem_dsp_brigth = def_brigth;
this->mem_dsp_dimm = def_dimm;
this->mem_brake_force = def_brake_force;
this->mem_max_hbrake_time = def_max_hbrake_time;
this->mem_lock_current = def_lock_current;
this->mem_max_out_voltage = def_max_out_voltage;
this->mem_min_out_voltage = def_min_out_voltage;
}
this->restore();
}
void logic::CfgMemory::save(void)
{
if(this->btn_force != this->mem_btn_force)
{
this->mem_btn_force = this->btn_force;
mcu::eeprom_write8b(addr_btn_force, this->mem_btn_force);
};
if(this->bmode != this->mem_bmode)
{
this->mem_bmode = this->bmode;
mcu::eeprom_write8b(addr_bmode, this->mem_bmode);
};
}
void logic::CfgMemory::save_all(void)
{
this->save();
if(this->pot_mode != this->mem_pot_mode)
{
this->mem_pot_mode = this->pot_mode;
mcu::eeprom_write8b(addr_pot_mode, this->mem_pot_mode);
};
if(this->dsp_brigth != this->mem_dsp_brigth)
{
this->mem_dsp_brigth = this->dsp_brigth;
mcu::eeprom_write8b(addr_dsp_brigth, this->mem_dsp_brigth);
};
if(this->dsp_dimm != this->mem_dsp_dimm)
{
this->mem_dsp_dimm = this->dsp_dimm;
mcu::eeprom_write8b(addr_dsp_dimm, this->mem_dsp_dimm);
};
if(this->brake_force != this->mem_brake_force)
{
this->mem_brake_force = this->brake_force;
mcu::eeprom_write8b(addr_brake_force, this->mem_brake_force);
};
if(this->max_hbrake_time != this->mem_max_hbrake_time)
{
this->mem_max_hbrake_time = this->max_hbrake_time;
mcu::eeprom_write16b(addr_max_hbrake_time, this->mem_max_hbrake_time);
};
if(this->lock_current != this->mem_lock_current)
{
this->mem_lock_current = this->lock_current;
mcu::eeprom_write16b(addr_lock_current, this->mem_lock_current);
};
if(this->max_out_voltage != this->mem_max_out_voltage)
{
this->mem_max_out_voltage = this->max_out_voltage;
mcu::eeprom_write16b(addr_max_out_voltage, this->mem_max_out_voltage);
};
if(this->min_out_voltage != this->mem_min_out_voltage)
{
this->mem_min_out_voltage = this->min_out_voltage;
mcu::eeprom_write16b(addr_min_out_voltage, this->mem_min_out_voltage);
};
}
void logic::CfgMemory::restore(void)
{
this->btn_force = this->mem_btn_force;
this->bmode = this->mem_bmode;
this->pot_mode = this->mem_pot_mode;
this->dsp_brigth = this->mem_dsp_brigth;
this->dsp_dimm = this->mem_dsp_dimm;
this->brake_force = this->mem_brake_force;
this->max_hbrake_time = this->mem_max_hbrake_time;
this->lock_current = this->mem_lock_current;
this->max_out_voltage = this->mem_max_out_voltage;
this->min_out_voltage = this->mem_min_out_voltage;
}
uint8_t logic::CfgMemory::checksum(void)
{
uint32_t cs = 0;
cs += (uint32_t)this->mem_btn_force;
cs += (uint32_t)this->mem_bmode;
cs += (uint32_t)this->mem_pot_mode;
cs += (uint32_t)this->mem_dsp_brigth;
cs += (uint32_t)this->mem_dsp_dimm;
cs += (uint32_t)this->mem_brake_force;
cs += (uint32_t)this->mem_max_hbrake_time;
cs += (uint32_t)this->mem_lock_current;
cs += (uint32_t)this->mem_max_out_voltage;
cs += (uint32_t)this->mem_min_out_voltage;
return (uint8_t)cs;
}
/**** Private function definitions ****/

View File

@@ -0,0 +1,56 @@
#ifndef CONFIG_H_
#define CONFIG_H_
/**** Includes ****/
#include <stdint.h>
#include "../hw/button.h"
namespace logic {
/**** Public definitions ****/
class CfgMemory
{
protected:
uint8_t mem_btn_force;
uint8_t mem_bmode;
uint8_t mem_pot_mode;
uint8_t mem_dsp_brigth;
uint8_t mem_dsp_dimm;
uint8_t mem_brake_force;
uint16_t mem_max_hbrake_time;
uint16_t mem_lock_current;
uint16_t mem_max_out_voltage;
uint16_t mem_min_out_voltage;
public:
CfgMemory(void);
~CfgMemory(void);
uint8_t cfg_good;
uint8_t btn_force;
uint8_t bmode;
uint8_t pot_mode;
uint8_t dsp_brigth;
uint8_t dsp_dimm;
uint8_t brake_force;
uint16_t max_hbrake_time;
uint16_t lock_current;
uint16_t max_out_voltage;
uint16_t min_out_voltage;
void init(void);
void save(void);
void save_all(void);
void restore(void);
uint8_t checksum(void);
};
/**** Public function declarations ****/
#ifdef TESTING
#endif
} //namespace
#endif /* DCCD_FORCE_H_ */

View File

@@ -0,0 +1,84 @@
/**** Includes ****/
#include "../utils/utils.h"
#include "dccd_force.h"
using namespace logic;
/**** Private definitions ****/
/**** Private constants ****/
static const uint16_t def_max_hbrake_time = 1000;
static const uint16_t def_brake_force = 100;
/**** Private variables ****/
/**** Private function declarations ****/
/**** Public function definitions ****/
logic::DccdForce::DccdForce(hw::Button* btn_mode, hw::Button* sw_hbrake, hw::Button* sw_brakes)
{
this->mode = btn_mode;
this->handbrake = sw_hbrake;
this->brakes = sw_brakes;
this->is_new = 0;
this->force = 0;
this->brake_mode = 0;
this->max_hbrake_time = def_max_hbrake_time;
this->brake_force = def_brake_force;
}
logic::DccdForce::~DccdForce(void)
{
return;
}
uint8_t logic::DccdForce::update(uint8_t user_force)
{
// Process mode button
if((this->mode->is_new)&&(this->mode->state == hw::BUTTON_ON))
{
// Cycle brake mode
switch(this->brake_mode)
{
case 0:
this->brake_mode = 1;
case 1:
this->brake_mode = 2;
default:
this->brake_mode = 0;
}
this->mode->is_new = 0;
this->is_new_bmode = 1;
};
// Determine target force source
uint8_t next_force = user_force;
if((this->handbrake->state == hw::BUTTON_ON)&&((this->handbrake->time < this->max_hbrake_time)||(this->max_hbrake_time == 0)))
{
next_force = 0;
}
else if(this->brakes->state == hw::BUTTON_ON)
{
switch(this->brake_mode)
{
case 0:
next_force = 0;
case 1:
next_force = user_force;
default:
next_force = this->brake_force;
}
};
if(next_force != this->force) this->is_new = 1;
this->force = next_force;
return this->force;
}
/**** Private function definitions ****/

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@@ -0,0 +1,42 @@
#ifndef DCCD_FORCE_H_
#define DCCD_FORCE_H_
/**** Includes ****/
#include <stdint.h>
#include "../hw/button.h"
namespace logic {
/**** Public definitions ****/
class DccdForce
{
protected:
hw::Button* mode;
hw::Button* handbrake;
hw::Button* brakes;
public:
DccdForce(hw::Button* btn_mode, hw::Button* sw_hbrake, hw::Button* sw_brakes);
~DccdForce(void);
uint8_t force;
uint8_t is_new;
uint8_t brake_mode;
uint8_t is_new_bmode;
uint16_t max_hbrake_time;
uint8_t brake_force;
uint8_t update(uint8_t user_force);
};
/**** Public function declarations ****/
#ifdef TESTING
#endif
} //namespace
#endif /* DCCD_FORCE_H_ */

128
firmware/src/main.cpp Normal file
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@@ -0,0 +1,128 @@
/**** Includes ****/
#include "utils/utils.h"
#include "hw/devices.h"
#include "logic/button_force.h"
#include "logic/dccd_force.h"
#include "logic/cfg_mem.h"
/**** Private definitions ****/
/**** Private constants ****/
static const uint16_t dsp_lock_bmode = 1000;
static const uint16_t dsp_lock_force = 50;
/**** Private variables ****/
static logic::CfgMemory cfg_mem = logic::CfgMemory();
static logic::ButtonForce button_force = logic::ButtonForce(&btn_up, &btn_down);
static logic::DccdForce dccd_force = logic::DccdForce(&btn_mode, &sw_hbrake, &sw_brakes);
/**** Private function declarations ****/
/**** Public function definitions ****/
int main(void)
{
// HW setup
devices_init();
// Read saved config
cfg_mem.init();
if(cfg_mem.cfg_good !=1 )
{
cfg_mem.btn_force = 0;
cfg_mem.bmode = 0;
cfg_mem.pot_mode = 0;
cfg_mem.dsp_brigth = 100;
cfg_mem.dsp_dimm = 50;
cfg_mem.brake_force = 100;
cfg_mem.max_hbrake_time = 1000;
cfg_mem.lock_current = 4200;
cfg_mem.max_out_voltage = 6500;
cfg_mem.min_out_voltage = 500;
cfg_mem.save_all();
};
uint8_t user_force = 0;
ccout.max_voltage = cfg_mem.max_out_voltage;
ccout.min_voltage = cfg_mem.min_out_voltage;
button_force.force = cfg_mem.btn_force;
dccd_force.brake_mode = cfg_mem.bmode;
dccd_force.max_hbrake_time = cfg_mem.max_hbrake_time;
dccd_force.brake_force = cfg_mem.brake_force;
// Super loop
while(1)
{
// Update inputs
devices_update_inputs();
// Update user setting
button_force.update();
// Select user force input
if(cfg_mem.pot_mode) user_force = pot.percent;
else user_force = button_force.force;
// Calculate next target force
dccd_force.update(user_force);
// Override force in case of fault
if((sup_fuse.fault)||(out_fuse.fault)) dccd_force.force = 0;
// Convert force to current
ccout.max_current = util::percent_of(dccd_force.force, cfg_mem.lock_current);
// Execute outputs
ccout.update();
// Set display
if(dccd_force.is_new_bmode)
{
uint8_t bmode_img = 0x03;
switch(dccd_force.brake_mode)
{
case 1:
bmode_img = 0x0C;
break;
case 2:
bmode_img = 0x30;
break;
default:
bmode_img = 0x03;
break;
}
display.write(bmode_img);
display.set_lock(dsp_lock_bmode);
dccd_force.is_new_bmode = 0;
}
else if((button_force.is_new)&&(cfg_mem.pot_mode==0))
{
display.show_percent(dccd_force.force, hw::DisplayLed::LED_DSP_DOT10);
display.set_lock(dsp_lock_force);
button_force.is_new = 0;
}
else if(display.locked==0) display.show_percent(dccd_force.force, hw::DisplayLed::LED_DSP_DOT10);
// Process dimm
if(sw_dimm.state == hw::BUTTON_ON) display.set_brigthness(cfg_mem.dsp_dimm);
else display.set_brigthness(cfg_mem.dsp_brigth);
// Save user setting changes
cfg_mem.btn_force = button_force.force;
cfg_mem.bmode = dccd_force.brake_mode;
cfg_mem.save();
continue; // End of super loop
}
// Escape the matrix
return 0;
}
/**** Private function definitions ***/

View File

@@ -3,7 +3,7 @@ Microsoft Visual Studio Solution File, Format Version 12.00
# Atmel Studio Solution File, Format Version 11.00
VisualStudioVersion = 14.0.23107.0
MinimumVisualStudioVersion = 10.0.40219.1
Project("{54F91283-7BC4-4236-8FF9-10F437C3AD48}") = "uDCCD_Controller", "uDCCD_Controller.cproj", "{DCE6C7E3-EE26-4D79-826B-08594B9AD897}"
Project("{E66E83B9-2572-4076-B26E-6BE79FF3018A}") = "uDCCD", "uDCCD.cppproj", "{DCE6C7E3-EE26-4D79-826B-08594B9AD897}"
EndProject
Global
GlobalSection(SolutionConfigurationPlatforms) = preSolution

View File

@@ -41,7 +41,7 @@
<Attribute>template</Attribute>
<Category>source</Category>
<Condition>C Exe</Condition>
<FileContentHash>YLr2MkKo6ZooP7MhARWYNA==</FileContentHash>
<FileContentHash>KjvOcFWd++tbnsEMfVPd/w==</FileContentHash>
<FileVersion></FileVersion>
<Name>templates/main.c</Name>
<SelectString>Main file (.c)</SelectString>
@@ -52,7 +52,7 @@
<Attribute>template</Attribute>
<Category>source</Category>
<Condition>C Exe</Condition>
<FileContentHash>mkKaE95TOoATsuBGv6jmxg==</FileContentHash>
<FileContentHash>w5aB/d0+DbxGZ7yY0aMMjw==</FileContentHash>
<FileVersion></FileVersion>
<Name>templates/main.cpp</Name>
<SelectString>Main file (.cpp)</SelectString>

282
firmware/src/uDCCD.cppproj Normal file
View File

@@ -0,0 +1,282 @@
<?xml version="1.0" encoding="utf-8"?>
<Project DefaultTargets="Build" xmlns="http://schemas.microsoft.com/developer/msbuild/2003" ToolsVersion="14.0">
<PropertyGroup>
<SchemaVersion>2.0</SchemaVersion>
<ProjectVersion>7.0</ProjectVersion>
<ToolchainName>com.Atmel.AVRGCC8.CPP</ToolchainName>
<ProjectGuid>dce6c7e3-ee26-4d79-826b-08594b9ad897</ProjectGuid>
<avrdevice>ATmega328PB</avrdevice>
<avrdeviceseries>none</avrdeviceseries>
<OutputType>Executable</OutputType>
<Language>CPP</Language>
<OutputFileName>$(MSBuildProjectName)</OutputFileName>
<OutputFileExtension>.elf</OutputFileExtension>
<OutputDirectory>$(MSBuildProjectDirectory)\$(Configuration)</OutputDirectory>
<AssemblyName>uDCCD</AssemblyName>
<Name>uDCCD</Name>
<RootNamespace>uDCCD</RootNamespace>
<ToolchainFlavour>Native</ToolchainFlavour>
<KeepTimersRunning>true</KeepTimersRunning>
<OverrideVtor>false</OverrideVtor>
<CacheFlash>true</CacheFlash>
<ProgFlashFromRam>true</ProgFlashFromRam>
<RamSnippetAddress>0x20000000</RamSnippetAddress>
<UncachedRange />
<preserveEEPROM>true</preserveEEPROM>
<OverrideVtorValue>exception_table</OverrideVtorValue>
<BootSegment>2</BootSegment>
<ResetRule>0</ResetRule>
<eraseonlaunchrule>0</eraseonlaunchrule>
<EraseKey />
<AsfFrameworkConfig>
<framework-data xmlns="">
<options />
<configurations />
<files />
<documentation help="" />
<offline-documentation help="" />
<dependencies>
<content-extension eid="atmel.asf" uuidref="Atmel.ASF" version="3.52.0" />
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</ToolchainSettings>
</PropertyGroup>
<PropertyGroup Condition=" '$(Configuration)' == 'Debug' ">
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/**** Includes ****/
#include "utils.h"
#include "interpolate.h"
using namespace util;
/**** Private definitions ****/
/**** Private constants ****/
/**** Private variables ****/
/**** Private function declarations ****/
/**** Public function definitions ****/
uint16_t util::interpolate_1d(uint16_t x, uint16_t* x_axis, uint16_t* y_values, uint8_t len_axis)
{
// validate axis length
if(len_axis==0) return 0; // Empty data set
if(len_axis==1) return y_values[0]; // Only one data point
uint16_t y;
uint8_t i = find_interval_end_index(x, x_axis, len_axis);
if(i==0)
{
//Less then start
y = y_values[0];
}
else if(i==len_axis)
{
//More than end
y = y_values[len_axis-1];
}
else
{
// Do interpolate
y = interpolate(x, x_axis[i-1], x_axis[i], y_values[i-1], y_values[i]);
}
return y;
}
uint16_t util::interpolate_2d(uint16_t x, uint16_t y, uint16_t* x_axis, uint8_t len_x_axis, uint16_t* y_axis, uint8_t len_y_axis, uint16_t* z_values)
{
// validate axis length
if((len_x_axis==0)&&(len_y_axis==0)) return 0; // Empty data set
if((len_x_axis==1)&&(len_y_axis==1)) return z_values[0]; // Only one data point
uint8_t ix = find_interval_end_index(x, x_axis, len_x_axis);
uint8_t iy = find_interval_end_index(y, y_axis, len_y_axis);
// Check corners - easy answers
if((ix==0)&&(iy==0))
{
return z_values[0]; //[0][0] [Y][X]
}
else if((ix==len_x_axis)&&(iy==0))
{
return z_values[len_x_axis-1]; //[0][end]
}
else if((ix==0)&&(iy==len_y_axis))
{
uint16_t i = index2d_to_index1d(0, len_y_axis-1, len_x_axis);
return z_values[i]; //[end][0]
}
else if((ix==len_x_axis)&&(iy==len_y_axis))
{
uint16_t i = index2d_to_index1d(len_x_axis-1, len_y_axis-1, len_x_axis);
return z_values[i]; //[end][end]
};
// Check boundaries - 1D interpolation
if(ix==0)
{
// On ix=0 line
uint16_t i = 0;
uint16_t z0 = z_values[i];
i = index2d_to_index1d(0, len_y_axis-1, len_x_axis);
uint16_t z1 = z_values[i];
return interpolate(y, y_axis[0], y_axis[len_y_axis-1], z0, z1);
}
else if(ix==len_x_axis)
{
// On ix=END line
uint16_t i = len_x_axis-1;
uint16_t z0 = z_values[i];
i = index2d_to_index1d(len_x_axis-1, len_y_axis-1, len_x_axis);
uint16_t z1 = z_values[i];
return interpolate(y, y_axis[0], y_axis[len_y_axis-1], z0, z1);
}
else if(iy==0)
{
// On iy=0 line
uint16_t i = 0;
uint16_t z0 = z_values[i];
i = len_x_axis-1;
uint16_t z1 = z_values[i];
return interpolate(x, x_axis[0], x_axis[len_x_axis-1], z0, z1);
}
else if(iy==len_y_axis)
{
// On iy=END line
uint16_t i = index2d_to_index1d(0, len_y_axis-1, len_x_axis);
uint16_t z0 = z_values[i];
i = index2d_to_index1d(len_x_axis-1, len_y_axis-1, len_x_axis);
uint16_t z1 = z_values[i];
return interpolate(x, x_axis[0], x_axis[len_x_axis-1], z0, z1);
}
// Do interpolation
// Get axis values
uint16_t x0 = x_axis[ix-1];
uint16_t x1 = x_axis[ix];
uint16_t y0 = y_axis[iy-1];
uint16_t y1 = y_axis[iy];
// Do y0 line calculation
// Get z values at x0 and x1 points on y0 line
uint16_t i = index2d_to_index1d(ix-1, iy-1, len_x_axis);
uint16_t z0 = z_values[i];
uint16_t z1 = z_values[i+1];
// Interpolate z value on y0 line
uint16_t zy0 = interpolate(x, x0, x1, z0, z1);
// Do y1 line calculation
// Get z values at x0 and x1 points on y1 line
i = index2d_to_index1d(ix-1, iy, len_x_axis);
z0 = z_values[i];
z1 = z_values[i+1];
// Interpolate z value on y0 line
uint16_t zy1 = interpolate(x, x0, x1, z0, z1);
// Do calculation in y axis on xz line
return interpolate(y, y0, y1, zy0, zy1);
}
uint16_t util::interpolate(uint16_t x, uint16_t x0, uint16_t x1, uint16_t y0, uint16_t y1)
{
int32_t dy = (int32_t)y1 - (int32_t)y0;
int32_t dx = (int32_t)x1 - (int32_t)x0;
int32_t d = (int32_t)x - (int32_t)x0;
int32_t y = dy * d;
y /= dx;
y += y0;
return util::sat_cast(y);
}
uint8_t util::find_interval_end_index(uint16_t val, uint16_t* axis_values, uint8_t len_axis)
{
for(uint8_t i=0; i<len_axis; i++)
{
if(val < axis_values[i]) return i;
continue;
}
return len_axis;
}
uint16_t util::index2d_to_index1d(uint8_t ix, uint8_t iy, uint8_t len_x)
{
return ((uint16_t)len_x * iy) + ix;
}
/**** Private function definitions ****/

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#ifndef UTILS_INTERPOLATE_H_
#define UTILS_INTERPOLATE_H_
/**** Includes ****/
#include <stdint.h>
namespace util {
/**** Public definitions ****/
/**** Public function declarations ****/
uint16_t interpolate_1d(uint16_t x, uint16_t* x_axis, uint16_t* y_values, uint8_t len_axis);
uint16_t interpolate_2d(uint16_t x, uint16_t y, uint16_t* x_axis, uint8_t len_x_axis, uint16_t* y_axis, uint8_t len_y_axis, uint16_t* z_values);
uint8_t find_interval_end_index(uint16_t val, uint16_t* axis_values, uint8_t len_axis);
uint16_t interpolate(uint16_t x, uint16_t x0, uint16_t x1, uint16_t y0, uint16_t y1);
uint16_t index2d_to_index1d(uint8_t ix, uint8_t iy, uint8_t len_x);
#ifdef TESTING
#endif
} //namespace
#endif /* UTILS_INTERPOLATE_H_ */

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/**** Includes ****/
#include "utils.h"
using namespace util;
/**** Private definitions ****/
/**** Private constants ****/
/**** Private variables ****/
/**** Private function declarations ****/
#ifndef TESTING
#endif
/**** Public function definitions ****/
uint8_t util::invert(uint8_t x)
{
if(x!=0) return 0;
else return 1;
}
uint8_t util::sat_add(uint8_t x, uint8_t y)
{
uint8_t z = x + y;
// Check for overflow
if((z < x)||(z < y)) return 0xFF;
else return z;
}
uint16_t util::sat_add(uint16_t x, uint16_t y)
{
uint16_t z = x + y;
// Check for overflow
if((z < x)||(z < y)) return 0xFF;
else return z;
}
uint32_t util::sat_add(uint32_t x, uint32_t y)
{
uint32_t z = x + y;
// Check for overflow
if((z < x)||(z < y)) return 0xFF;
else return z;
}
uint8_t util::sat_subtract(uint8_t x, uint8_t y)
{
uint8_t z = x - y;
// Check for underflow
if(z > x) return 0;
else return z;
}
uint16_t util::sat_subtract(uint16_t x, uint16_t y)
{
uint16_t z = x - y;
// Check for underflow
if(z > x) return 0;
else return z;
}
uint32_t util::sat_subtract(uint32_t x, uint32_t y)
{
uint32_t z = x - y;
// Check for underflow
if(z > x) return 0;
else return z;
}
uint8_t util::abs_subtract(uint8_t x, uint8_t y)
{
if(x > y) return x - y;
else return y-x;
}
uint16_t util::abs_subtract(uint16_t x, uint16_t y)
{
if(x > y) return x - y;
else return y-x;
}
uint32_t util::abs_subtract(uint32_t x, uint32_t y)
{
if(x > y) return x - y;
else return y-x;
}
uint16_t util::sat_cast(uint32_t x)
{
if(x > 0x0000FFFF) return 0xFFFF;
else return (uint16_t)x;
}
uint16_t util::sat_cast(int32_t x)
{
if(x < 0) return 0x0000;
else if(x > 0x0000FFFF) return 0xFFFF;
else return (uint16_t)x;
}
uint16_t util::convert_muldivoff(uint16_t raw, uint8_t mul, uint8_t div, int16_t offset)
{
int32_t temp = (int32_t)raw;
temp = temp * mul;
if(div>1) temp /= div;
temp += offset;
return sat_cast(temp);
}
uint16_t util::sat_mul_kilo(uint16_t xk, uint16_t yk)
{
uint32_t temp = (uint32_t)xk * (uint32_t)yk;
temp /= 1000;
return sat_cast(temp);
}
uint16_t util::sat_div_kilo(uint16_t top, uint16_t bot)
{
//Sanity check bot
if(bot==0) return 0xFFFF; //aka infinity
uint32_t temp = (uint32_t)top * 1000;
temp /= (uint32_t)bot;
return sat_cast(temp);
}
uint16_t util::sat_ratio(uint16_t top, uint16_t bot)
{
//Sanity check bot
if(bot==0) return 0xFFFF; //aka infinity
//Easy option
if(top>=bot) return 0xFFFF;
uint32_t temp = (uint32_t)top * 0x0000FFFF;
temp /= (uint32_t)bot;
return sat_cast(temp);
}
uint16_t util::percent_to_16b(uint8_t percent)
{
uint32_t temp = (uint32_t)percent * 0x0000FFFF;
temp /= 100;
// Limit to 16 bits
uint16_t pwm = sat_cast(temp);
return pwm;
}
uint16_t util::percent_of(uint8_t percent, uint16_t value)
{
if(percent == 0) return 0;
else if(percent >= 100) return value;
uint32_t temp = (uint32_t)value * percent;
return temp/100;
}
/**** Private function definitions ****/

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#ifndef UTILS_H_
#define UTILS_H_
/**** Includes ****/
#include <stdint.h>
namespace util {
/**** Public definitions ****/
/**** Public function declarations ****/
uint8_t invert(uint8_t x);
uint16_t sat_cast(uint32_t x);
uint16_t sat_cast(int32_t x);
uint16_t convert_muldivoff(uint16_t raw, uint8_t mul, uint8_t div, int16_t offset);
uint16_t sat_mul_kilo(uint16_t xk, uint16_t yk);
uint16_t sat_div_kilo(uint16_t top, uint16_t bot);
uint16_t sat_ratio(uint16_t top, uint16_t bot);
uint16_t percent_to_16b(uint8_t percent);
uint16_t percent_of(uint8_t percent, uint16_t value);
uint8_t sat_add(uint8_t x, uint8_t y);
uint16_t sat_add(uint16_t x, uint16_t y);
uint32_t sat_add(uint32_t x, uint32_t y);
uint8_t sat_subtract(uint8_t x, uint8_t y);
uint16_t sat_subtract(uint16_t x, uint16_t y);
uint32_t sat_subtract(uint32_t x, uint32_t y);
uint8_t abs_subtract(uint8_t x, uint8_t y);
uint16_t abs_subtract(uint16_t x, uint16_t y);
uint32_t abs_subtract(uint32_t x, uint32_t y);
uint16_t interpolate_1d(uint16_t x, uint16_t* x_axis, uint16_t* y_values, uint8_t len_axis);
uint16_t interpolate_2d(uint16_t x, uint16_t y, uint16_t* x_axis, uint8_t len_x_axis, uint16_t* y_axis, uint8_t len_y_axis, uint16_t* z_values);
#ifdef TESTING
#endif
} //namespace
#endif /* UTILS_H_ */

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@@ -1,231 +0,0 @@
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<avrgcc.compiler.warnings.AllWarnings>True</avrgcc.compiler.warnings.AllWarnings>
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<Value>libm</Value>
</ListValues>
</avrgcc.linker.libraries.Libraries>
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<Value>%24(PackRepoDir)\atmel\ATmega_DFP\1.7.374\include\</Value>
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</AvrGcc>
</ToolchainSettings>
</PropertyGroup>
<PropertyGroup Condition=" '$(Configuration)' == 'Debug' ">
<ToolchainSettings>
<AvrGcc>
<avrgcc.common.Device>-mmcu=atmega328pb -B "%24(PackRepoDir)\atmel\ATmega_DFP\1.7.374\gcc\dev\atmega328pb"</avrgcc.common.Device>
<avrgcc.common.outputfiles.hex>True</avrgcc.common.outputfiles.hex>
<avrgcc.common.outputfiles.lss>True</avrgcc.common.outputfiles.lss>
<avrgcc.common.outputfiles.eep>True</avrgcc.common.outputfiles.eep>
<avrgcc.common.outputfiles.srec>True</avrgcc.common.outputfiles.srec>
<avrgcc.common.outputfiles.usersignatures>False</avrgcc.common.outputfiles.usersignatures>
<avrgcc.compiler.general.ChangeDefaultCharTypeUnsigned>True</avrgcc.compiler.general.ChangeDefaultCharTypeUnsigned>
<avrgcc.compiler.general.ChangeDefaultBitFieldUnsigned>True</avrgcc.compiler.general.ChangeDefaultBitFieldUnsigned>
<avrgcc.compiler.symbols.DefSymbols>
<ListValues>
<Value>DEBUG</Value>
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</avrgcc.compiler.symbols.DefSymbols>
<avrgcc.compiler.directories.IncludePaths>
<ListValues>
<Value>%24(PackRepoDir)\atmel\ATmega_DFP\1.7.374\include\</Value>
</ListValues>
</avrgcc.compiler.directories.IncludePaths>
<avrgcc.compiler.optimization.PackStructureMembers>True</avrgcc.compiler.optimization.PackStructureMembers>
<avrgcc.compiler.optimization.AllocateBytesNeededForEnum>True</avrgcc.compiler.optimization.AllocateBytesNeededForEnum>
<avrgcc.compiler.optimization.DebugLevel>Default (-g2)</avrgcc.compiler.optimization.DebugLevel>
<avrgcc.compiler.warnings.AllWarnings>True</avrgcc.compiler.warnings.AllWarnings>
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<ListValues>
<Value>libm</Value>
</ListValues>
</avrgcc.linker.libraries.Libraries>
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<ListValues>
<Value>%24(PackRepoDir)\atmel\ATmega_DFP\1.7.374\include\</Value>
</ListValues>
</avrgcc.assembler.general.IncludePaths>
<avrgcc.assembler.debugging.DebugLevel>Default (-Wa,-g)</avrgcc.assembler.debugging.DebugLevel>
</AvrGcc>
</ToolchainSettings>
</PropertyGroup>
<ItemGroup>
<Compile Include="devices\analog.c">
<SubType>compile</SubType>
</Compile>
<Compile Include="devices\analog.h">
<SubType>compile</SubType>
</Compile>
<Compile Include="devices\common\level.h">
<SubType>compile</SubType>
</Compile>
<Compile Include="devices\config.c">
<SubType>compile</SubType>
</Compile>
<Compile Include="devices\config.h">
<SubType>compile</SubType>
</Compile>
<Compile Include="devices\led_display.c">
<SubType>compile</SubType>
</Compile>
<Compile Include="devices\led_display.h">
<SubType>compile</SubType>
</Compile>
<Compile Include="devices\filter_iir_lpf.c">
<SubType>compile</SubType>
</Compile>
<Compile Include="devices\filter_iir_lpf.h">
<SubType>compile</SubType>
</Compile>
<Compile Include="devices\halfbridge.c">
<SubType>compile</SubType>
</Compile>
<Compile Include="devices\halfbridge.h">
<SubType>compile</SubType>
</Compile>
<Compile Include="devices\hal\udccd_r7_hal.c">
<SubType>compile</SubType>
</Compile>
<Compile Include="devices\hal\udccd_hal.h">
<SubType>compile</SubType>
</Compile>
<Compile Include="devices\inputs.c">
<SubType>compile</SubType>
</Compile>
<Compile Include="devices\inputs.h">
<SubType>compile</SubType>
</Compile>
<Compile Include="devices\memory.c">
<SubType>compile</SubType>
</Compile>
<Compile Include="devices\memory.h">
<SubType>compile</SubType>
</Compile>
<Compile Include="drivers\display.c">
<SubType>compile</SubType>
</Compile>
<Compile Include="drivers\display.h">
<SubType>compile</SubType>
</Compile>
<Compile Include="drivers\output.c">
<SubType>compile</SubType>
</Compile>
<Compile Include="drivers\output.h">
<SubType>compile</SubType>
</Compile>
<Compile Include="logic\coil.c">
<SubType>compile</SubType>
</Compile>
<Compile Include="logic\coil.h">
<SubType>compile</SubType>
</Compile>
<Compile Include="logic\force.c">
<SubType>compile</SubType>
</Compile>
<Compile Include="logic\force.h">
<SubType>compile</SubType>
</Compile>
<Compile Include="logic\settings.c">
<SubType>compile</SubType>
</Compile>
<Compile Include="logic\settings.h">
<SubType>compile</SubType>
</Compile>
<Compile Include="main.c">
<SubType>compile</SubType>
</Compile>
</ItemGroup>
<ItemGroup>
<Folder Include="devices" />
<Folder Include="devices\hal" />
<Folder Include="devices\common" />
<Folder Include="drivers" />
<Folder Include="logic" />
</ItemGroup>
<Import Project="$(AVRSTUDIO_EXE_PATH)\\Vs\\Compiler.targets" />
</Project>