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MAX78630.h
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#ifndef __MAX78630__
#define __MAX78630__
// Define Arduino Library
#ifndef __Arduino__
#include <Arduino.h>
#endif
// Include External Files
#include "Definitions.h"
#include "Config.h"
// MAX78630 Class
class MAX78630 {
// Private Context
private:
// Serial Stream Pointer
Stream * Serial_Energy;
// Device Structure Definition
struct Device_Struct {
bool Found = false;
uint32_t Status = 0;
} Device;
// Limit Variables
struct Limit_Struct {
float V_Min = __MAX78630_Limit_Voltage_Min__;
float V_Max = __MAX78630_Limit_Voltage_Max__;
float I_Max = __MAX78630_Limit_Current_Max__;
float FQ_Min = __MAX78630_Limit_Frequency_Min__;
float FQ_Max = __MAX78630_Limit_Frequency_Max__;
float VImb_Max = __MAX78630_Limit_VImb_Max__;
float IImb_Max = __MAX78630_Limit_IImb_Max__;
float T_Min = __MAX78630_Limit_Temperature_Min__;
float T_Max = __MAX78630_Limit_Temperature_Max__;
} Limit_Variables;
// IC Register Address Structure
struct Register {
const uint8_t High_Address;
const uint8_t Low_Address;
const uint8_t Data_Type;
};
// Calculate CheckSum Function
uint8_t CheckSum(const uint8_t _Low_Address, const uint8_t _High_Address) {
// Calculate CheckSum
return(0x100 - ((__MAX78630_HEADER__ + __MAX78630_7_BYTES__ + __MAX78630_RW_ADRS__ + _Low_Address + _High_Address + __MAX78630_READ_3_BYTES__) % 256));
}
uint8_t CheckSum(const uint8_t _Low_Address, const uint8_t _High_Address, const uint8_t _Data1, const uint8_t _Data2, const uint8_t _Data3) {
// Calculate CheckSum
return(0x100 - ((__MAX78630_HEADER__ + __MAX78630_10_BYTES__ + __MAX78630_RW_ADRS__ + _Low_Address + _High_Address + __MAX78630_WRITE_3_BYTES__ + _Data1 + _Data2 + _Data3) % 256));
}
uint8_t CheckSum(const uint8_t _Response[6]) {
// Calculate CheckSum
return(0x100 - ((_Response[0] + _Response[1] + _Response[2] + _Response[3] + _Response[4]) % 256));
}
uint8_t CheckSum(const uint8_t _Address) {
// Calculate CheckSum
return(0x100 - ((__MAX78630_HEADER__ + __MAX78630_4_BYTES__ + _Address) % 256));
}
// Clear Serial Buffer Function
void Clear_Buffer(void) {
// Flush UART Buffer
Serial_Energy->flush();
// Clear UART Buffer
while(Serial_Energy->available() > 0) {
// Read Serial Char
Serial_Energy->read();
// Stream Delay
delayMicroseconds(20);
//delay(5);
}
}
// Register Read Function.
double Register_Pointer_Read(Register _Command) {
/*
MAX78630 Serial Communication Read Values Structure
---------------------------------------------------
Read Request : [1]-[2]-[3]-[4]-[5]-[6]-[7]
---------------------------------------------------
1. byte is the IC address byte (0xAA)
2. byte is the total sended byte (0x07)
3. byte is the package payload type (0xA3)
4. byte is the request (RMS) byte (2)
5. byte is the request (RMS) byte (1)
6. byte is the requested byte count (0xE3)
7. byte is the CRC correction byte (CHK)
*/
// Send Command
Serial_Energy->write(__MAX78630_HEADER__);
Serial_Energy->write(__MAX78630_7_BYTES__);
Serial_Energy->write(__MAX78630_RW_ADRS__);
Serial_Energy->write(_Command.Low_Address);
Serial_Energy->write(_Command.High_Address);
Serial_Energy->write(__MAX78630_READ_3_BYTES__);
Serial_Energy->write(this->CheckSum(_Command.Low_Address, _Command.High_Address));
// Command Send Delay
delay(3);
// Declare Variable
uint8_t _Response[6];
memset(_Response, '\0', 6);
uint8_t _Response_Order = 0;
// Read UART Response
while(Serial_Energy->available() > 0) {
// Read Serial Char
_Response[_Response_Order] = Serial_Energy->read();
// Increase Read Order
_Response_Order++;
// Stream Delay
delayMicroseconds(200);
//delay(1);
}
// Declare Raw Data Variable
double _Data_SUM = 0;
// Control Received Data
if (_Response[0] == __MAX78630_HEADER__ and _Response[1] == __MAX78630_6_BYTES__ and _Response[5] == this->CheckSum(_Response)) {
// Combine Read Bytes
uint32_t _Data_RAW = ((uint32_t)(_Response[4]) << 16 | ((uint32_t)_Response[3]) << 8 | ((uint32_t)_Response[2]));
// Calculate Response
if (_Command.Data_Type == 0) {
// Handle Response (int)
_Data_SUM = _Data_RAW;
} else {
// Handle Bits
for (uint8_t i = 0; i < 23; i++) if (bitRead(_Data_RAW, i) == true) _Data_SUM += pow(2, (i - _Command.Data_Type));
if (bitRead(_Data_RAW, 23) == true) _Data_SUM += (-1 * pow(2, (23 - _Command.Data_Type)));
}
}
// End Function
return(_Data_SUM);
}
// Write Register Function
bool Register_Pointer_Set(Register _Command, const uint32_t _Data) {
// Clear Buffer
this->Clear_Buffer();
// Convert Parameters
uint8_t _Parameter1 = _Data;
uint8_t _Parameter2 = _Data >> 8;
uint8_t _Parameter3 = _Data >> 16;
// Send Command
Serial_Energy->write(__MAX78630_HEADER__);
Serial_Energy->write(__MAX78630_10_BYTES__);
Serial_Energy->write(__MAX78630_RW_ADRS__);
Serial_Energy->write(_Command.Low_Address);
Serial_Energy->write(_Command.High_Address);
Serial_Energy->write(__MAX78630_WRITE_3_BYTES__);
Serial_Energy->write(_Parameter1);
Serial_Energy->write(_Parameter2);
Serial_Energy->write(_Parameter3);
Serial_Energy->write(this->CheckSum(_Command.Low_Address, _Command.High_Address, _Parameter1, _Parameter2, _Parameter3));
// Command Delay
delay(5);
// End Function
if (Serial_Energy->read() == __MAX78630_ACK_NO_DATA__) return(true);
// End Function
return(false);
}
// Data Converter Function
int32_t FtoS(double _Variable, uint8_t _Data_Type) {
// Declare Data Variable
uint32_t _Data = 0x00;
// Convert Loop
for (uint8_t i = 0; i < 24; i++) {
// Calculate Bit Multiplier
double _Bit_Multiplier = pow(2, (-_Data_Type - (i - 23)));
// Control for Bit
if (_Variable >= _Bit_Multiplier) {
// Set Bit Control
bitSet(_Data, 23 - i);
// Handle Data
_Variable -= _Bit_Multiplier;
} else {
// Set Bit Control
bitClear(_Data, 23 - i);
}
}
// End Function
return(_Data);
}
/* Scale Config Functions */
// VScale Function
uint32_t VScale(const uint8_t _Function = __MAX78630_SET__) {
// Define Register
Register VSCALE {0x01, 0x44, 0}; // Scratch register (see Scaling Registers section)
// Control for Function
if (_Function == __MAX78630_SET__) {
// Set Register
return(this->Register_Pointer_Set(VSCALE, __MAX78630_Config_VScale__));
} else if (_Function == __MAX78630_GET__) {
// Read Register
return(this->Register_Pointer_Read(VSCALE));
} else {
// End Function
return(false);
}
// End Function
return(false);
}
// IScale Function
uint32_t IScale(const uint8_t _Function = __MAX78630_SET__) {
// Define Register
Register ISCALE {0x01, 0x41, 0}; // Scratch register (see Scaling Registers section)
// Control for Function
if (_Function == __MAX78630_SET__) {
// Set Register
return(this->Register_Pointer_Set(ISCALE, __MAX78630_Config_IScale__));
} else if (_Function == __MAX78630_GET__) {
// Read Register
return(this->Register_Pointer_Read(ISCALE));
} else {
// End Function
return(false);
}
// End Function
return(false);
}
// Bucket High Function
uint32_t Bucket_H(const uint8_t _Function = __MAX78630_SET__) {
// Define Register
Register BUCKET_HIGH {0x01, 0xD4, 0}; // Energy Bucket Size – High word
// Control for Function
if (_Function == __MAX78630_SET__) {
// Set Register
return(this->Register_Pointer_Set(BUCKET_HIGH, __MAX78630_Config_BucketH__));
} else if (_Function == __MAX78630_GET__) {
// Read Register
return(this->Register_Pointer_Read(BUCKET_HIGH));
} else {
// End Function
return(false);
}
// End Function
return(false);
}
// Bucket Low Function
uint32_t Bucket_L(const uint8_t _Function = __MAX78630_SET__) {
// Define Register
Register BUCKET_LOW {0x01, 0xD1, 0}; // Energy Bucket Size – Low word
// Control for Function
if (_Function == __MAX78630_SET__) {
// Set Register
return(this->Register_Pointer_Set(BUCKET_LOW, __MAX78630_Config_BucketL__));
} else if (_Function == __MAX78630_GET__) {
// Read Register
return(this->Register_Pointer_Read(BUCKET_LOW));
} else {
// End Function
return(false);
}
// End Function
return(false);
}
/* Min Max Functions */
// Set Min-Max Control Address
bool Set_Min_Max_Mask(const uint8_t _MM_ADDR) {
// Control for Mask
if (_MM_ADDR > 8) return(false);
// Decide Address
switch (_MM_ADDR) {
case __MAX78630_MONITOR_1__: {
// Define Register
Register MMADDR0 {0x01, 0xB9, 0}; // Min/Max Monitor address 1
// Set Register
bool _Set = this->Register_Pointer_Set(MMADDR0, __MAX78630_Monitor_1_Type__);
// End Function
return(_Set);
}
case __MAX78630_MONITOR_2__: {
// Define Register
Register MMADDR1 {0x01, 0xBC, 0}; // Min/Max Monitor address 2
// Set Register
bool _Set = this->Register_Pointer_Set(MMADDR1, __MAX78630_Monitor_2_Type__);
// Clear Register
this->Min_Value(__MAX78630_CLEAR__, __MAX78630_MONITOR_2__, __MAX78630_Monitor_2_Scale__);
this->Max_Value(__MAX78630_CLEAR__, __MAX78630_MONITOR_2__, __MAX78630_Monitor_2_Scale__);
// End Function
return(_Set);
}
case __MAX78630_MONITOR_3__: {
// Define Register
Register MMADDR2 {0x01, 0xBF, 0}; // Min/Max Monitor address 3
// Set Register
bool _Set = this->Register_Pointer_Set(MMADDR2, __MAX78630_Monitor_3_Type__);
// Clear Register
this->Min_Value(__MAX78630_CLEAR__, __MAX78630_MONITOR_3__, __MAX78630_Monitor_3_Scale__);
this->Max_Value(__MAX78630_CLEAR__, __MAX78630_MONITOR_3__, __MAX78630_Monitor_3_Scale__);
// End Function
return(_Set);
}
case __MAX78630_MONITOR_4__: {
// Define Register
Register MMADDR3 {0x01, 0xC2, 0}; // Min/Max Monitor address 4
// Set Register
bool _Set = this->Register_Pointer_Set(MMADDR3, __MAX78630_Monitor_4_Type__);
// Clear Register
this->Min_Value(__MAX78630_CLEAR__, __MAX78630_MONITOR_4__, __MAX78630_Monitor_4_Scale__);
this->Max_Value(__MAX78630_CLEAR__, __MAX78630_MONITOR_4__, __MAX78630_Monitor_4_Scale__);
// End Function
return(_Set);
}
case __MAX78630_MONITOR_5__: {
// Define Register
Register MMADDR4 {0x01, 0xC5, 0}; // Min/Max Monitor address 5
// Set Register
bool _Set = this->Register_Pointer_Set(MMADDR4, __MAX78630_Monitor_5_Type__);
// Clear Register
this->Min_Value(__MAX78630_CLEAR__, __MAX78630_MONITOR_5__, __MAX78630_Monitor_5_Scale__);
this->Max_Value(__MAX78630_CLEAR__, __MAX78630_MONITOR_5__, __MAX78630_Monitor_5_Scale__);
// End Function
return(_Set);
}
case __MAX78630_MONITOR_6__: {
// Define Register
Register MMADDR5 {0x01, 0xC8, 0}; // Min/Max Monitor address 6
// Set Register
bool _Set = this->Register_Pointer_Set(MMADDR5, __MAX78630_Monitor_6_Type__);
// Clear Register
this->Min_Value(__MAX78630_CLEAR__, __MAX78630_MONITOR_6__, __MAX78630_Monitor_6_Scale__);
this->Max_Value(__MAX78630_CLEAR__, __MAX78630_MONITOR_6__, __MAX78630_Monitor_6_Scale__);
// End Function
return(_Set);
}
case __MAX78630_MONITOR_7__: {
// Define Register
Register MMADDR6 {0x01, 0xCB, 0}; // Min/Max Monitor address 7
// Set Register
bool _Set = this->Register_Pointer_Set(MMADDR6, __MAX78630_Monitor_7_Type__);
// Clear Register
this->Min_Value(__MAX78630_CLEAR__, __MAX78630_MONITOR_7__, __MAX78630_Monitor_7_Scale__);
this->Max_Value(__MAX78630_CLEAR__, __MAX78630_MONITOR_7__, __MAX78630_Monitor_7_Scale__);
// End Function
return(_Set);
}
case __MAX78630_MONITOR_8__: {
// Define Register
Register MMADDR7 {0x01, 0xCE, 0}; // Min/Max Monitor address 8
// Set Register
bool _Set = this->Register_Pointer_Set(MMADDR7, __MAX78630_Monitor_8_Type__);
// End Function
return(_Set);
}
}
// End Function
return(false);
}
/* Alarm Functions */
// Alarm Sticky Interrupt Function.
bool Sticky(const uint8_t _Function = __MAX78630_GET__, const bool _Sticky = false) {
// Define Register
Register STICKY {0x00, 0x2D, 0};
// Get Current Register
uint32_t _Current_Sticky = this->Register_Pointer_Read(STICKY);
// Control for Function
if (_Function == __MAX78630_SET__) {
// Set Sticky Bit
if (_Sticky) {
// Set Register
_Current_Sticky |= 0x7FFFFC;
} else {
// Set Register
_Current_Sticky &= 0xFF800003;
}
// End Function
this->Register_Pointer_Set(STICKY, _Current_Sticky);
}
// End Function
return(bitRead(_Current_Sticky, 0) && bitRead(_Current_Sticky, 23));
}
// Alarm Mask Function.
uint32_t Alarm_Mask(const uint8_t _Function, const uint8_t _Mask, const uint8_t _Bit, const bool _Status) {
// Control for Mask
if (_Mask == __MASK_AL1__) {
// Define Register
Register MASK1 {0x00, 0x1E, 0}; // Alarm Mask address 1
// Read Register
uint32_t _MASK = this->Register_Pointer_Read(MASK1);
// Set Mask bit
if (_Function == __MAX78630_SET__) {
// Set Mask bit
if (_Status) {
// Set Bit
bitSet(_MASK, _Bit);
} else {
// Clear Bit
bitClear(_MASK, _Bit);
}
// Write MASK1 Register
this->Register_Pointer_Set(MASK1, _MASK);
// End Function
return(_MASK);
}
// End Function
return(_MASK);
} else if (_Mask == __MASK_AL2__) {
// Define Register
Register MASK2 {0x00, 0x21, 0}; // Alarm Mask address 2
// Read Register
uint32_t _MASK = this->Register_Pointer_Read(MASK2);
// Set Mask bit
if (_Function == __MAX78630_SET__) {
// Set Mask bit
if (_Status) {
// Set Bit
bitSet(_MASK, _Bit);
} else {
// Clear Bit
bitClear(_MASK, _Bit);
}
// Write MASK2 Register
this->Register_Pointer_Set(MASK2, _MASK);
// End Function
return(_MASK);
}
// End Function
return(_MASK);
} else {
// End Function
return(0);
}
// End Function
return(0);
}
// Protected Context
protected:
/* IC Utility Functions */
// Get Device Firmware Function
uint32_t Firmware(void) {
// Define Register
Register FW_VERSION {0x00, 0x03, 0}; // Hardware and firmware version
// Return Register
return(this->Register_Pointer_Read(FW_VERSION));
// Default Firmware: 0x0004D912
}
// Get Device Address Function.
uint32_t Address(void) {
// Define Register
Register DEVADDR {0x00, 0x4E, 0}; // High order address bits for I2C and UART interfaces
// Return Register
return(this->Register_Pointer_Read(DEVADDR));
}
// Select IC Function
bool Select_IC(uint8_t _Address) {
// Send Command
Serial_Energy->write(__MAX78630_HEADER__); // Header (0xAA)
Serial_Energy->write(__MAX78630_4_BYTES__); // Total Sended Byte (0x04)
Serial_Energy->write(_Address); // IC Address (0xC1, 0xC2, 0xC3, 0xC4)
Serial_Energy->write(this->CheckSum(_Address)); // CheckSum (0x__)
// Command Send Delay
delay(2);
// End Function
if (Serial_Energy->read() == __MAX78630_ACK_NO_DATA__) return(true);
// End Function
return(false);
}
// Baud Rate Function
uint32_t Baud(const uint8_t _Function, const uint32_t _Baud) {
// Define Register
Register BAUD {0x00, 0x51, 0}; // Baud rate for UART interface
// Control for Function
if (_Function == __MAX78630_SET__) {
// Set Register
return(this->Register_Pointer_Set(BAUD, _Baud));
} else if (_Function == __MAX78630_GET__) {
// Read Register
return(this->Register_Pointer_Read(BAUD));
}
// End Function
return(false);
}
// Get Device Frame Rate Function.
uint32_t Frame(void) {
// Define Register
Register FRAME {0x00, 0x12, 0}; // Low-rate sample counter
// Return Register
return(this->Register_Pointer_Read(FRAME));
}
// Get Sample Counter Function
uint32_t Cycle(void) {
// Define Register
Register CYCLE {0x00, 0x0F, 0}; // High-rate sample counter
// Return Register
return(this->Register_Pointer_Read(CYCLE));
}
// Get Divisor Value Function
uint32_t Divisor(void) {
// Define Register
Register DIVISOR {0x00, 0x0C, 0}; // Actual samples in previous accumulation interval
// Return Register
return(this->Register_Pointer_Read(DIVISOR));
}
// Get Samples per Accumulation Interval Function.
uint32_t Samples(void) {
// Define Register
Register SAMPLES {0x00, 0x09, 0}; // Minimum high-rate samples per accumulation interval
// Return Register
return(this->Register_Pointer_Read(SAMPLES));
}
// Get System Status Function.
uint32_t System_Status(void) {
// Define Register
Register SYSSTAT {0x02, 0x43, 0}; // Bit 23 is a sticky register with status of any SPI Errors
// Return Register
return(this->Register_Pointer_Read(SYSSTAT));
}
/* Calibration Functions */
// Calibration Function
bool Calibration(const uint8_t _Type, const uint8_t _Phase, const float _Gain, const float _Offset) {
// Control Input Parameters
if (_Phase > 3) return(false);
// Control for Calibration Type
switch (_Type) {
// Voltage Calibration
case __Voltage__: {
// Control for Phase
switch (_Phase) {
// Phase R
case __Phase_R__: {
// Define Register
Register V1_GAIN {0x00, 0x5D, 21};
Register V1_OFFS {0x00, 0x6F, 23};
bool _Result_Gain = this->Register_Pointer_Set(V1_GAIN, this->FtoS(_Gain, V1_GAIN.Data_Type)); // Write Gain
bool _Result_Offset = this->Register_Pointer_Set(V1_OFFS, this->FtoS(_Offset, V1_GAIN.Data_Type)); // Write Offset
// End Function
return(_Result_Gain and _Result_Offset);
}
// Phase S
case __Phase_S__: {
// Define Register
Register V2_GAIN {0x00, 0x60, 21};
Register V2_OFFS {0x00, 0x72, 23};
bool _Result_Gain = this->Register_Pointer_Set(V2_GAIN, this->FtoS(_Gain, V2_GAIN.Data_Type)); // Write Gain
bool _Result_Offset = this->Register_Pointer_Set(V2_OFFS, this->FtoS(_Offset, V2_GAIN.Data_Type)); // Write Offset
// End Function
return(_Result_Gain and _Result_Offset);
}
// Phase T
case __Phase_T__: {
// Define Register
Register V3_GAIN {0x00, 0x63, 21};
Register V3_OFFS {0x00, 0x75, 23};
bool _Result_Gain = this->Register_Pointer_Set(V3_GAIN, this->FtoS(_Gain, V3_GAIN.Data_Type)); // Write Gain
bool _Result_Offset = this->Register_Pointer_Set(V3_OFFS, this->FtoS(_Offset, V3_GAIN.Data_Type)); // Write Offset
// End Function
return(_Result_Gain and _Result_Offset);
}
// No Phase
default: {
// End Function
return(false);
}
}
}
// Current Calibration
case __Current__: {
// Control for Phase
switch (_Phase) {
// Phase R
case __Phase_R__: {
// Define Register
Register I1_GAIN {0x00, 0x54, 21};
Register I1_OFFS {0x00, 0x66, 23};
bool _Result_Gain = this->Register_Pointer_Set(I1_GAIN, this->FtoS(_Gain, I1_GAIN.Data_Type)); // Write Gain
bool _Result_Offset = this->Register_Pointer_Set(I1_OFFS, this->FtoS(_Offset, I1_GAIN.Data_Type)); // Write Offset
// End Function
return(_Result_Gain and _Result_Offset);
}
// Phase S
case __Phase_S__: {
// Define Register
Register I2_GAIN {0x00, 0x57, 21};
Register I2_OFFS {0x00, 0x69, 23};
bool _Result_Gain = this->Register_Pointer_Set(I2_GAIN, this->FtoS(_Gain, I2_GAIN.Data_Type)); // Write Gain
bool _Result_Offset = this->Register_Pointer_Set(I2_OFFS, this->FtoS(_Offset, I2_GAIN.Data_Type)); // Write Offset
// End Function
return(_Result_Gain and _Result_Offset);
}
// Phase T
case __Phase_T__: {
// Define Register
Register I3_GAIN {0x00, 0x5A, 21};
Register I3_OFFS {0x00, 0x6C, 23};
bool _Result_Gain = this->Register_Pointer_Set(I3_GAIN, this->FtoS(_Gain, I3_GAIN.Data_Type)); // Write Gain
bool _Result_Offset = this->Register_Pointer_Set(I3_OFFS, this->FtoS(_Offset, I3_GAIN.Data_Type)); // Write Offset
// End Function
return(_Result_Gain and _Result_Offset);
}
// No Phase
default: {
// End Function
return(false);
}
}
}
// Temperature Calibration
case __Temperature__: {
// Define Register
Register T_GAIN {0x00, 0x78, 0};
Register T_OFFS {0x00, 0x7B, 0};
bool _Result_Gain = this->Register_Pointer_Set(T_GAIN, this->FtoS(_Gain, T_GAIN.Data_Type)); // Write Gain
bool _Result_Offset = this->Register_Pointer_Set(T_OFFS, this->FtoS(_Offset, T_GAIN.Data_Type)); // Write Offset
// End Function
return(_Result_Gain and _Result_Offset);
}
// No Calibration
default: {
// End Function
return(false);
}
}
}
// Coefficients Function
float HPF_COEF(const uint8_t _Function, const uint8_t _Type, float _COEF) {
// Control for Type
if (_Type == __Voltage__) {
// Define Register
Register HPF_COEF_V {0x00, 0x3F, 23}; // Voltage input HPF coefficient. Positive values only
// Read Register
float _Result = this->Register_Pointer_Read(HPF_COEF_V);
// Set Register
if (_Function == __MAX78630_SET__) this->Register_Pointer_Set(HPF_COEF_V, this->FtoS(_COEF, 23));
// End Function
return(_Result);
} else if (_Type == __Current__) {
// Define Register
Register HPF_COEF_I {0x00, 0x3C, 23}; // Current input HPF coefficient. Positive values only
// Read Register
float _Result = this->Register_Pointer_Read(HPF_COEF_I);
// Set Register
if (_Function == __MAX78630_SET__) this->Register_Pointer_Set(HPF_COEF_I, this->FtoS(_COEF, 23));
// End Function
return(_Result);
} else {
// End Function
return(0);
}
// End Function
return(0);
}
// Offset Function
float Offset(const uint8_t _Function, const uint8_t _Type, const uint8_t _Phase, float _Offset) {
// Control for Type
if (_Type == __Current__) {
// Control for _Phase
if (_Phase == __Phase_R__) {
// Define Register
Register IARMS_OFF {0x00, 0xC3, 23};
// Read Register
float _Result = this->Register_Pointer_Read(IARMS_OFF);
// Control for Function
if (_Function == __MAX78630_SET__) this->Register_Pointer_Set(IARMS_OFF, this->FtoS(_Offset, 23));
// End Function
return(_Result);
} else if (_Phase == __Phase_S__) {
// Define Register
Register IBRMS_OFF {0x00, 0xC6, 23};
// Read Register
float _Result = this->Register_Pointer_Read(IBRMS_OFF);
// Control for Function
if (_Function == __MAX78630_SET__) this->Register_Pointer_Set(IBRMS_OFF, this->FtoS(_Offset, 23));
// End Function
return(_Result);
} else if (_Phase == __Phase_T__) {
// Define Register
Register ICRMS_OFF {0x00, 0xC9, 23};
// Read Register
float _Result = this->Register_Pointer_Read(ICRMS_OFF);