// Generated by the protocol buffer compiler.  DO NOT EDIT!
// source: StubValveRequest.proto

#ifndef PROTOBUF_StubValveRequest_2eproto__INCLUDED
#define PROTOBUF_StubValveRequest_2eproto__INCLUDED

#include <string>

#include <google/protobuf/stubs/common.h>

#if GOOGLE_PROTOBUF_VERSION < 3004000
#error This file was generated by a newer version of protoc which is
#error incompatible with your Protocol Buffer headers.  Please update
#error your headers.
#endif
#if 3004000 < GOOGLE_PROTOBUF_MIN_PROTOC_VERSION
#error This file was generated by an older version of protoc which is
#error incompatible with your Protocol Buffer headers.  Please
#error regenerate this file with a newer version of protoc.
#endif

#include <google/protobuf/io/coded_stream.h>
#include <google/protobuf/arena.h>
#include <google/protobuf/arenastring.h>
#include <google/protobuf/generated_message_table_driven.h>
#include <google/protobuf/generated_message_util.h>
#include <google/protobuf/metadata.h>
#include <google/protobuf/message.h>
#include <google/protobuf/repeated_field.h>  // IWYU pragma: export
#include <google/protobuf/extension_set.h>  // IWYU pragma: export
#include <google/protobuf/unknown_field_set.h>
// @@protoc_insertion_point(includes)
namespace Tango {
namespace PMR {
namespace Stubs {
class StubValveRequest;
class StubValveRequestDefaultTypeInternal;
extern StubValveRequestDefaultTypeInternal _StubValveRequest_default_instance_;
}  // namespace Stubs
}  // namespace PMR
}  
#include "include.h"
#include <stdbool.h>
#include <stdlib.h>
#include <stdint.h>

#include "driverlib/epi.h"
#include "inc/hw_memmap.h"
#include <driverlib/gpio.h>
#include "drivers/FPGA/FPGA_GPIO/FPGA_GPIO.h"

#include "FPGA_Rename.h"
#include "FPGA_COMM.h"
#include "FPGA.h"

#include "driverlib/sysctl.h" //for SysCtlDelay
#include <driverlib/sysctl.h>
#include <DataDef.h>


unsigned short GPO_01_Reg;

extern F3_GPO_01_REG F3_GPO_01_Reg;

int FPGA_Test()
{


    F3_GPO_01_Reg.bits.F3_LUBRICANT_VALVE = 1;
    F3_GPO_01_Reg.bits.F3_GPO_LED3 = 1;
    F3_GPO_01_Reg.bits.F3_GPO_LED2 = 0;
    F3_GPO_01_Reg.bits.F3_GPO_LED1 = 1;
    F3_GPO_01_Reg.bits.F3_GPO_EXTWINDER_SSR11_CTRL = 1;
    F3_GPO_01_Reg.bits.F3_GPO_BUZZER = 0;
    F3_GPO_01_Reg.bits.F3_SPARE2_ROTENC_CLK = 1;
    F3_GPO_01_Reg.bits.F3_SPARE1_ROTENC_CLK = 1;
    F3_GPO_01_Reg.bits.RESERVE = 0xF5;

    GPO_01_Reg = F3_GPO_01_Reg.ushort;

    return 0;
}

int FPGA_Test_ReadBack(unsigned char FPGA_NUM, unsigned short Value, unsigned short *ReadBackValue)// = 0x1234)
{

    //TODO to update the deley
    unsigned short readValue = 0;
     if(FPGA_NUM == 1)
     {
         F1_Test = Value;
         SysCtlDelay(1000);
         readValue = F1_Test;
         *ReadBackValue = readValue;
         if(Value == (uint16_t) ~((unsigned int) readValue))
             return PASSED;
         if((Value == 0xFFFF) && (readValue == 0))
             return PASSED;
     }

     if(FPGA_NUM == 2)
     {
         F2_Test = Value;
         SysCtlDelay(100);
         readValue = F2_Test;
         *ReadBackValue = readValue;
         if(Value == (uint16_t) ~((unsigned int) readValue))
             return PASSED;
         if((Value == 0xFFFF) && (readValue == 0))
             return PASSED;
     }

     if(FPGA_NUM == 3)
     {
         F3_Test = Value;
         SysCtlDelay(100);
         readValue = F3_Test;
         *ReadBackValue = readValue;
         if(Value == (uint16_t) ~((unsigned int) readValue))
             return PASSED;
         if((Value == 0xFFFF) && (readValue == 0))
             return PASSED;
     }

    return FAILED;
}


int  FPGA_ReadVersion(unsigned char FPGA_NUM, unsigned char *Version, unsigned char *Year, unsigned char *Month, unsigned char *Day)
{
    VER1 Ver1;
    VER2 Ver2;
#ifndef EVALUATION_BOARD

    switch(FPGA_NUM)
    {
        case 1:
                Ver1.ushort = F1_Ver1_D;
                Ver2.ushort = F1_Ver2_D;
            break;
        case 2:
                Ver1.ushort = F2_Ver1_D;
                Ver2.ushort = F2_Ver2_D;
            break;
        case 3:
                Ver1.ushort = F3_Ver1_D;
                Ver2.ushort = F3_Ver2_D;
            break;
        default:
            break;
    }

 /*   if( (Ver1.bytes.Month > 12) || (Ver1.bytes.Day > 31) || (Ver2.bytes.Year < 17) )
    {
        return FAILED;
    }
*/

    *Month = Ver1.bytes.Month;
    *Day = Ver1.bytes.Day;
    *Year = Ver2.bytes.Year;  // to check how many digits is needed
    *Version = Ver2.bytes.Ver_num;
#endif
    return PASSED;
}

void FPGA_Init()
{

#ifndef EVALUATION_BOARD
    ROM_GPIOPinTypeGPIOOutput(GPIO_PORTN_BASE, GPIO_PIN_6); // start FPGA1 (clear HW RESET)
    ROM_GPIOPinWrite(GPIO_PORTN_BASE, GPIO_PIN_6, 0);
    ROM_GPIOPinTypeGPIOOutput(GPIO_PORTF_BASE, GPIO_PIN_6); // start FPGA2 (clear HW RESET)
    ROM_GPIOPinWrite(GPIO_PORTF_BASE, GPIO_PIN_6, 0);
    ROM_GPIOPinTypeGPIOOutput(GPIO_PORTH_BASE, GPIO_PIN_4); // start FPGA3 (clear HW RESET)
    ROM_GPIOPinWrite(GPIO_PORTH_BASE, GPIO_PIN_4, 0);
    delayms(1);
    ROM_GPIOPinWrite(GPIO_PORTN_BASE, GPIO_PIN_6, GPIO_PIN_6);
    ROM_GPIOPinWrite(GPIO_PORTF_BASE, GPIO_PIN_6, GPIO_PIN_6);
    ROM_GPIOPinWrite(GPIO_PORTH_BASE, GPIO_PIN_4, GPIO_PIN_4);

    // Enable EPI
    SysCtlPeripheralEnable(SYSCTL_PERIPH_EPI0);
    while (!(SysCtlPeripheralReady(SYSCTL_PERIPH_EPI0)));

    //PreScale + PWM
    //60MHz / PreScaler / (PWM High + PWM Low)
    //for SPI Motor driver the maximum is 5MHz the default is the FPGA is 4 (60/2/(2+3)) = 4

    //EPI Host-Bus 8 Configuration 3 (EPIHB8CFG3)
    //    Value Description
    //    0x0 Active WRn is 2 EPI clocks
    //    0x1 Active WRn is 4 EPI clocks <--
    //    0x2 Active WRn is 6 EPI clocks
    //    0x3 Active WRn is 8 EPI clocks

//    EPIModeSet(EPI0_BASE, EPI_MODE_HB16);
//    EPIConfigHB16Set(EPI0_BASE, EPI_HB16_MODE_ADMUX | EPI_HB16_WRWAIT_1 | EPI_HB16_RDWAIT_1 | EPI_HB16_ALE_LOW | EPI_HB16_WORD_ACCESS, 0);
//    EPIConfigHB16Set(EPI0_BASE, EPI_HB16_WRWAIT_1 | EPI_HB16_RDWAIT_1, 0);

    EPIModeSet(EPI0_BASE, EPI_MODE_GENERAL);
    //uint32_t temp = *(uint32_t)(EPI0_BASE+0x10);

//    volatile uint32_t *temp;
//    temp = (volatile uint32_t *) (EPI0_BASE+0x10);

    // Set EPI Mode
    EPIConfigGPModeSet(EPI0_BASE, EPI_GPMODE_CLKPIN |EPI_GPMODE_FRAME50 | EPI_GPMODE_ASIZE_12 | EPI_GPMODE_DSIZE_16, 4, 0);
    //Set EPI CLK
    EPIDividerSet(EPI0_BASE, 10);//60MHz

    EPIAddressMapSet(EPI0_BASE, EPI_ADDR_RAM_BASE_6  | EPI_ADDR_RAM_SIZE_64KB);

//    *temp |= 0x50;


    //FPGA_WRITE();
    //1. Disable all FPGA's WD:
    Control_WD(DISABLE,0);
#endif

}


//---------------------------------- Limit_Switches ------------------------------------------------

//Limit_Switch1_REG   Limit_Switch1;
//Limit_Switch2_REG   Limit_Switch2;
//Limit_Switch3_REG   Limit_Switch3;
//
//void FPGA_Read_limit_Switches()
//{
//    Limit_Switch1.ushort = F1_GPI_LS1_D;
//    Limit_Switch2.ushort = F1_GPI_LS2_D;
//    Limit_Switch3.ushort = F1_GPI_LS3_D;
//}

uint32_t Calculate_Tacho_Fan_Speed(uint32_t OSC_IN, uint8_t PPR, uint16_t Prescaler, uint16_t Tacho_reg) //Oscilator IN , Pulse/Round
{
    uint32_t   temp, Fan_Speed_RPM;

    temp = 60 / PPR;//60 Sec
    temp = temp   * OSC_IN;
    temp = temp / Tacho_reg;
    Fan_Speed_RPM = (temp /  Prescaler);
    return Fan_Speed_RPM;

}

uint32_t Fans_Speed_RPM[MAX_FANS];


uint8_t Read_Fans_Tacho()
{
    FANS_STATUS Fans_Status;

#ifndef EVALUATION_BOARD

    // The big Fan in the drawer
    Fans_Speed_RPM[DRAWER_B]  = Calculate_Tacho_Fan_Speed(FPGA_Freq, 0X02, F1_Prescaler1_reg5, F1_Tacho_reg0);
    Fans_Speed_RPM[DRAWER_S0] = Calculate_Tacho_Fan_Speed(FPGA_Freq, 0X02, F1_Prescaler1_reg5, F1_Tacho_reg1);
    Fans_Speed_RPM[DRAWER_S1] = Calculate_Tacho_Fan_Speed(FPGA_Freq, 0X02, F1_Prescaler1_reg5, F1_Tacho_reg2);
    Fans_Speed_RPM[DRAWER_S2] = Calculate_Tacho_Fan_Speed(FPGA_Freq, 0X02, F1_Prescaler1_reg5, F1_Tacho_reg3);
    Fans_Speed_RPM[DRAWER_S3] = Calculate_Tacho_Fan_Speed(FPGA_Freq, 0X02, F1_Prescaler1_reg5, F1_Tacho_reg4);
    Fans_Speed_RPM[SYSTEM_0]  = Calculate_Tacho_Fan_Speed(FPGA_Freq, 0X02, F1_Prescaler1_reg5, F1_Tacho_reg5);
    Fans_Speed_RPM[SYSTEM_1]  = Calculate_Tacho_Fan_Speed(FPGA_Freq, 0X02, F1_Prescaler1_reg5, F1_Tacho_reg6);
    Fans_Speed_RPM[SYSTEM_2]  = Calculate_Tacho_Fan_Speed(FPGA_Freq, 0X02, F1_Prescaler1_reg5, F1_Tacho_reg7);

    if( Fans_Speed_RPM[DRAWER_B] < 1000 )  // need to work around 3000 RPM
        Fans_Status.bit.DRAWER_BIG = ERROR;// not working / Low Speed
    else
        Fans_Status.bit.DRAWER_BIG = OK;//working (Speed ~0x400)

    // The 4 small Fans in the drawer
    // F1_gpi_FANS
    // �0� Fan not working
    // �1� Fan working
    if (F1_gpi_FANS == 0x0F )
    {
        Fans_Status.bit.DRAWER_SMALL0 = OK;//working
        Fans_Status.bit.DRAWER_SMALL1 = OK;//working
        Fans_Status.bit.DRAWER_SMALL2 = OK;//working
        Fans_Status.bit.DRAWER_SMALL3 = OK;//working
    }
    else
    {
        bool F1_FAN1_TACH =  F1_gpi_FANS & 0x01;
        bool F1_FAN2_TACH = (F1_gpi_FANS & 0x02)>>0x01;
        bool F1_FAN3_TACH = (F1_gpi_FANS & 0x04)>>0x02;
        bool F1_FAN4_TACH = (F1_gpi_FANS & 0x08)>>0x03;

        if(( Fans_Speed_RPM[DRAWER_S0] < 3000 ) && ( F1_FAN1_TACH == 0)) // need to work around  5000 RPM
        {
            Fans_Status.bit.DRAWER_SMALL0 = ERROR;/// not working / Low Speed
        }
        else
        {
            Fans_Status.bit.DRAWER_SMALL0 = OK;//working (Speed ~0x400)
        }

        if(( Fans_Speed_RPM[DRAWER_S1] < 3000 ) && ( F1_FAN2_TACH == 0)) // Small Fan in the drawer // need to work around 5000 RPM
        {
            Fans_Status.bit.DRAWER_SMALL1 = ERROR;// not working / Low Speed
        }
        else
        {
            Fans_Status.bit.DRAWER_SMALL1 = OK;//working (Speed ~0x400)
        }
        if(( Fans_Speed_RPM[DRAWER_S2] < 3000 ) && ( F1_FAN3_TACH == 0)) // Small Fan in the drawer // need to work around 5000 RPM
        {
            Fans_Status.bit.DRAWER_SMALL2 = ERROR;// not working / Low Speed
        }
        else
        {
            Fans_Status.bit.DRAWER_SMALL2 = OK;//working (Speed ~0x400)
        }
        if(( Fans_Speed_RPM[DRAWER_S3] < 3000 ) && ( F1_FAN4_TACH == 0)) // Small Fan in the drawer // need to work around 3050 RPM
        {
            Fans_Status.bit.DRAWER_SMALL3 = ERROR;// not working / Low Speed
        }
        else
        {
            Fans_Status.bit.DRAWER_SMALL3 = OK;//working (Speed ~0x400) < 1000 )  // need to work around 5000 RPM
        }

    }

    if( Fans_Speed_RPM[SYSTEM_0] < 1000 )  // need to work around  3050 RPM
    {
        Fans_Status.bit.SYSTEM_FAN0 = ERROR;// not working / Low Speed
    }
    else
    {
        Fans_Status.bit.SYSTEM_FAN0 = OK;//working (Speed ~0x400)
    }

    if( Fans_Speed_RPM[SYSTEM_1] < 1000 )  // need to work around 3050 RPM
    {
        Fans_Status.bit.SYSTEM_FAN1 = ERROR;// not working / Low Speed
    }
    else
    {
        Fans_Status.bit.SYSTEM_FAN1 = OK;//working (Speed ~0x400)
    }

    if( Fans_Speed_RPM[SYSTEM_2] < 1000 )  // need to work around 3050 RPM
    {
        Fans_Status.bit.SYSTEM_FAN2 = ERROR;// not working / Low Speed
    }
    else
    {
        Fans_Status.bit.SYSTEM_FAN2 = OK;//working (Speed ~0x400)
    }

#endif

    return Fans_Status.Uchar;
}

//------------------------- WHS ----------------------
//uint32_t WHS_Read_Blower_Tach()
//{
//    //TODO: check if we need to change the Prescaler
//    //F2_Prescaler1_reg10  - prescaled clocks for counter of signal Blower Tacho. 8 bits
//
//
//    /*
//    RPM=60* (Sys_clk/PreScalar)/ F2_Tacho_reg0
//
//    Where :
//
//    Sys_clk                                =25*10^6 (25Mhz)
//    PresScalar(default)           =250
//
//    Mati
//     */
//    uint32_t RPM;
//    uint32_t Temp = 6000000; // 60* (Sys_clk/PreScalar)
//    RPM = Temp / GPI_BLOWER_TACH;
//
//    return RPM;
//}

//------------------------- Dryer Blower ----------------------
/*
uint32_t Dryer_Read_Blower_Tach()
{
    uint32_t RPM;
    //TBD
    RPM =  WHS_Read_Blower_Tach(); // Temporary using WHS Tacho
    return RPM;
}
*/
uint32_t Drayer_Fan_Speed_RPM = 0;

uint32_t Get_Dryer_Fan_Tacho()
{
    return Drayer_Fan_Speed_RPM;
}
uint32_t Read_Dryer_Fan_Tacho()
{
#ifndef EVALUATION_BOARD
    Drayer_Fan_Speed_RPM = Calculate_Tacho_Fan_Speed(FPGA_Freq, 12, F1_Prescaler1_reg5, F1_Tacho_reg8);
    return Drayer_Fan_Speed_RPM;
#else
    return 100;
#endif
}

void Control_Dryer_Fan_PWM(uint8_t PWM_Command_Precent)// 0 - 100%
{
    // change to cycle to 100 in order to work with %, with constant FREQ

    uint8_t Freq = 0xFF;//divider Clock = 25M/divider

    if(PWM_Command_Precent > 100)
        PWM_Command_Precent = 100;
#ifndef EVALUATION_BOARD
    GPO_BLOWER_PWM_FREQ = Freq;
    GPO_BLOWER_PWM_LOW  = PWM_Command_Precent + 1;
    GPO_BLOWER_PWM_HIGH = 101 - PWM_Command_Precent;
#endif
    // low + high = 0xFF in order use the same freq (and change the freq only by Add 0x112).
    // there is option to change only the high (low + freq constasnt) this will chnga the freq
}

void Machine_Idle_Breathing_Led() //if (Ten_msTick)
{
    static uint8_t PWM_Command_Precent = 0;// 0 - 100%
    static uint8_t  direction = UP;

    F3_low_var_LED1  = PWM_Command_Precent + 1;
    F3_high_var_LED1 = MAX_PWM_Command + 1 - PWM_Command_Precent;

    if(direction == UP)
    {
        if (PWM_Command_Precent ==  MAX_PWM_Command)
        {
            direction = DOWN; //"0"
        }
        else
        {
            PWM_Command_Precent++;
        }
    }
    else
    if(direction == DOWN)
    {
        if (PWM_Command_Precent ==  0)
        {
            direction = UP;//"1"
        }
        else
        {
            PWM_Command_Precent--;
        }
    }
}

///////////////////////////////////////// Speed_Sensor_TypeII ////////////////////////////////////////////////
void Set_Speed_Sensor_TypeII_Registers(uint32_t Counter, uint32_t Prescaler)
{
    /* Counter  -   Increase the number to higher resolution *
     * Prescaler  - Deccrease the number to higher resolution*/
    F1_Prescaler1_reg6 = Prescaler;
    F1_gpo_cnt_A_reg   = Counter;
}

uint32_t Read_Speed_Sensor_TypeII()//must be delay between Set_Speed_Sensor_TypeII_Registers to Read_Speed_Sensor_TypeII
{

    uint32_t Speed_Hz = 0, temp, temp1;
#ifndef EVALUATION_BOARD

    temp = F1_Tacho_reg9;
    temp1 = FPGA_Freq;
    temp1*=F1_gpo_cnt_A_reg;
    temp1/=temp;
    temp1/=F1_Prescaler1_reg6;
    Speed_Hz = temp1;
#endif

    return Speed_Hz;
}
/////////////////////////////////////////////////////////////////////////////////////////////////////////////////


typedef union
{
    struct
    {
        uint16_t M:10;//0..10
        uint8_t  Spare:5;//11-15
    }Bits;
    uint32_t Word;
}SCREW_ENC_M;

typedef union
{
    struct
    {
         uint16_t L;
         uint16_t M;
    }Word;
    uint32_t Position;
}SCREW_POS;




SCREW_ENC Screw_RotEnc;

uint32_t Read_Screw_Encoder()//the value of Screw_RotEnc.Position is legal only when the status is OK
{
    uint32_t status = OK;

    //uint16_t Save_M = 0;
    //uint16_t Save_L = 0;

    SCREW_ENC_M Screw_Enc_M;
    SCREW_POS Screw_Pos;
/*
    Screw_Enc_M.Word = F1_SCREW_ROTENC_M;;
    Screw_Pos.Word.M = Screw_Enc_M.Bits.M;
    Screw_Pos.Word.L = F1_SCREW_ROTENC_L;
    //read again
    Screw_Enc_M.Word = F1_SCREW_ROTENC_M;
    Save_M = Screw_Enc_M.Bits.M;
    Save_L = F1_SCREW_ROTENC_L;

    if(Save_M != Screw_Pos.Word.M)
    {
        Screw_Pos.Word.M = Save_M;
        Screw_Pos.Word.L = Save_L;
    }

*/
    //First read the LSB (The FPGA Locks the MSB when reading the LSB)
    Screw_Pos.Word.L = F1_SCREW_ROTENC_L;
    Screw_Enc_M.Word = F1_SCREW_ROTENC_M;
    Screw_Pos.Word.M = Screw_Enc_M.Bits.M;

    Screw_RotEnc.Position = Screw_Pos.Position;

    Screw_RotEnc.Index_Counter = F1_SCREW_ROTENC_I;

    return status;
}


void Reset_Screw_Encoder()
{
    F1_SCREW_ROTENC_M = 0;
    F1_SCREW_ROTENC_L = 0;
}