Delete HBXzTest.ino

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ozarchie 2019-02-11 12:05:48 +10:00 zatwierdzone przez GitHub
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/*
* Copyright 2017, 2018 John Archbold
*/
#include <Arduino.h>
/********************************************************
Utility functions to test HBX comms
===================================
The test is enabled by reading the state of the TESTHBX pin.
The pin definition is set in EQG2HBX and changes depending on the interface board:
#ifdef m2560
#define MONITORHBX 11 // Mega2560 D3
#define TESTHBX 9 // Mega2560 D2
#endif
#ifdef ESP32
#define MONITORHBX 35
#define TESTHBX 32
#endif
This mode overrides the EQG2HBX protocol conversion.
It uses the HBX interface to perform a series of tests.
ToDo:
Change to H2XISR for interrupt driven receive
*********************************************************/
/********************************************************
Test HBX communications
=======================
*********************************************************/
void HBXTestLoop(void) {
TestCount = 0;
while (digitalRead(TESTHBX) == 0) {
dbgSerial.println("Test HBX commands to ETX");
HBXTest();
TestCount += 1;
TestLoopTime = millis();
// Read motor status until jumper removed
while((millis() - TestLoopTime) < 5000) { // 5s between tests
HBXGet2Status();
}
}
}
void HBXTest(void)
{
int i;
// Initialize HBX communications as outputs
// It will use I2C-like communications
dbgSerial.println("**********************************************");
dbgSerial.print("Test Number - ");
dbgSerial.println(TestCount);
dbgSerial.println("**********************************************");
HCL1Talk(); // Set for Talking on RAClk
HCL2Talk(); // Set for Talking on DECClk
HDAListen();
TimerDelaymS(STARTTIME);
axis[AzMotor].PrintStatus0 = 1; // Enable print of status = no change
axis[AltMotor].PrintStatus0 = 1; // Enable print of status = no change
//if (TestCount == 0) {
dbgSerial.println("Test - HBX Initialization");
axis[AzMotor].Position = ETX_AzCENTRE;
axis[AzMotor].Target = axis[AzMotor].Position;
axis[AzMotor].DirnSpeed = 0x000;
axis[AzMotor].Speed = 0x000000;
axis[AzMotor].ETXMotorStatus = MOVESLEW;
axis[AltMotor].Position = ETX_AltCENTRE;
axis[AltMotor].Target = axis[AltMotor].Position;
axis[AltMotor].DirnSpeed = 0x000;
axis[AltMotor].Speed = 0x000000;
axis[AltMotor].ETXMotorStatus = MOVESLEW;
// Reset the motors (RA and DEC)
dbgSerial.println("Test - Wait for motors");
// GetLED commands always return a vaild value - motors not online until this happens
// Valid values are not 0 and not 0xFF for Az, Alt. (exception here is if LEDRA || LEDAlt == 0xff)
do {
P1 = 0;
if (HBXSendCommand(GetLEDI, AzMotor))
P2 = HBXGetByte(AzMotor);
if ((P2 != 0) && (P2 != 0xFF)) P1 += 1;
TimerDelaymS(CMNDTIME);
if (HBXSendCommand(GetLEDI, AltMotor))
P2 = HBXGetByte(AltMotor);
if ((P2 != 0) && (P2 != 0xFF)) P1 += 1;
TimerDelaymS(CMNDTIME);
} while (P1 < 2);
// Stop the motors (Az and Alt)
dbgSerial.println("Test - Stop motors");
HBXStop2Motors();
// Read status
dbgSerial.println("Test - Read Status");
HBXGet2Status(); // Check and read both motor states
if (!check_eeprom_crc() || !EEPROM.read(EEPROMAzLEDI) || !EEPROM.read(EEPROMAltLEDI)) {
// Calibrate Az, Alt Motor Encoder LED currents
dbgSerial.println("Test - Calibrate RA, DEC Motor Encoder LED currents");
if (HBXSendCommand(CalibrateLED, AzMotor));
TimerDelaymS(2500);
HBXPrintStatus(AzMotor);
if (HBXSendCommand(CalibrateLED, AltMotor))
TimerDelaymS(2500);
HBXPrintStatus(AltMotor);
if (HBXSendCommand(GetLEDI, AzMotor))
axis[AzMotor].HBXLEDI = HBXGetByte(AzMotor);
EEPROM.write(EEPROMAzLEDI, axis[AzMotor].HBXLEDI);
set_eeprom_crc();
axis[AzMotor].HBXP1 = axis[AzMotor].HBXLEDI;
HBXPrintStatus(AzMotor);
if (HBXSendCommand(GetLEDI, AltMotor))
axis[AltMotor].HBXLEDI = HBXGetByte(AltMotor);
EEPROM.write(EEPROMAltLEDI, axis[AltMotor].HBXLEDI);
set_eeprom_crc();
axis[AltMotor].HBXP1 = axis[AltMotor].HBXLEDI;
HBXPrintStatus(AltMotor);
}
dbgSerial.println("Test - Get Motor Type and set ETX Encoder LED currents");
axis[AzMotor].MotorType = 0x00;
while (!axis[AzMotor].MotorType) {
if (HBXSendCommand(GetMotorType, AzMotor))
axis[AzMotor].MotorType = HBXGetByte(AzMotor);
HBXPrintStatus(AzMotor);
}
axis[AzMotor].HBXLEDI = EEPROM.read(EEPROMAzLEDI);
axis[AltMotor].HBXLEDI = EEPROM.read(EEPROMAltLEDI);
if (HBXSendCommand(SetLEDI, AzMotor))
HBXSendByte(axis[AzMotor].HBXLEDI, AzMotor);
axis[AzMotor].HBXP1 = axis[AzMotor].HBXLEDI;
HBXPrintStatus(AzMotor);
if (HBXSendCommand(SetLEDI, AltMotor))
HBXSendByte(axis[AltMotor].HBXLEDI, AltMotor);
axis[AltMotor].HBXP1 = axis[AltMotor].HBXLEDI;
HBXPrintStatus(AltMotor);
// Set the Offset to Zero
axis[AzMotor].HBXP1 = 0x00;
axis[AzMotor].HBXP2 = 0x00;
axis[AzMotor].HBXP3 = 0x00;
axis[AltMotor].HBXP1 = 0x00;
axis[AltMotor].HBXP2 = 0x00;
axis[AltMotor].HBXP3 = 0x00;
// Set the Offset Clear Command
dbgSerial.println("Test - Reset any ETX offset bytes");
if (HBXSendCommand(SetOffset, AzMotor))
HBXSend2Bytes(AzMotor);
// HBXPrintStatus(AzMotor);
TimerDelaymS(CMNDTIME);
if (HBXSendCommand(SetOffset, AltMotor))
HBXSend2Bytes(AltMotor);
// HBXPrintStatus(AltMotor);
TimerDelaymS(CMNDTIME);
//}
/*
dbgSerial.println("Test - Stop motors");
HBXStop2Motors();
// First Read, clear counters
dbgSerial.println("Test - Read Both Motor States");
HBXGet2Status();
dbgSerial.println("Test - Begin motor move tests");
//}
// Test different motor speeds
dbgSerial.println("Test - Motor Speed Tests");
dbgSerial.println("========================");
dbgSerial.println("Test - SIDEREAL");
axis[AzMotor].ETXMotorStatus |= MOVEDIRN; // Forward
axis[AltMotor].ETXMotorStatus |= MOVEDIRN;
axis[AzMotor].Speed = AzSIDEREALRATE; // Sidereal
axis[AltMotor].Speed = AltSIDEREALRATE;
HBXPrintPosn(5, 1000); // Show location each second
dbgSerial.println("Test - SIDEREAL - Stop motors");
HBXStop2Motors();
dbgSerial.println("Test - OneDegree/sec forward");
axis[AzMotor].ETXMotorStatus |= MOVEDIRN; // Forward
axis[AltMotor].ETXMotorStatus |= MOVEDIRN;
axis[AzMotor].Speed = AzDEGREERATE1; // One degree/sec
axis[AltMotor].Speed = AltDEGREERATE1; // One degree/sec
HBXPrintPosn(5, 500); // Show location each tenth of a second
dbgSerial.println("Test - OneDegree/sec forward - Stop motors");
HBXStop2Motors();
dbgSerial.println("Test - OneDegree/sec reverse");
axis[AzMotor].ETXMotorStatus &= ~MOVEDIRN; // Reverse
axis[AltMotor].ETXMotorStatus &= ~MOVEDIRN;
axis[AzMotor].Speed = AzDEGREERATE1; // One degree/sec
axis[AltMotor].Speed = AltDEGREERATE1; // One degree/sec
HBXPrintPosn(5, 500); // Show location each each tenth of a second
dbgSerial.println("Test - OneDegree/sec reverse - Stop motors");
HBXStop2Motors();
dbgSerial.println("Test - TwoDegrees/sec forward");
axis[AzMotor].ETXMotorStatus |= MOVEDIRN; // Forward
axis[AltMotor].ETXMotorStatus |= MOVEDIRN;
axis[AzMotor].Speed = AzDEGREERATE1*2; // Two degrees/sec
axis[AltMotor].Speed = AltDEGREERATE1*2; // Two degrees/sec
HBXPrintPosn(5, 1000); // Show location each tenth of a second
dbgSerial.println("Test - TwoDegrees/sec forward - Stop motors");
HBXStop2Motors();
dbgSerial.println("Test - TwoDegrees/sec reverse");
axis[AzMotor].ETXMotorStatus &= ~MOVEDIRN; // Reverse
axis[AltMotor].ETXMotorStatus &= ~MOVEDIRN;
axis[AzMotor].Speed = AzDEGREERATE1*2; // Two degrees/sec
axis[AltMotor].Speed = AltDEGREERATE1*2; // Two degrees/sec
HBXPrintPosn(5, 1000); // Show location each each tenth of a second
dbgSerial.println("Test - TwoDegrees/sec reverse - Stop motors");
*/
HBXStop2Motors();
dbgSerial.println("Test - 0x01 Command");
axis[AzMotor].EQGMotorStatus &= ~MOVEDECR; // Forward
axis[AltMotor].EQGMotorStatus &= ~MOVEDECR;
axis[AzMotor].EQGMotorStatus |= MOVEHIGH; // High speed
axis[AltMotor].EQGMotorStatus != MOVEHIGH;
axis[AzMotor].Speed = axis[AzMotor].SIDEREALRATE; // Start at Sidereal
axis[AltMotor].Speed = axis[AltMotor].SIDEREALRATE; // Start at Sidereal
do {
HBXPrintSpeed(1, 10000); // Print location
axis[AzMotor].Speed += axis[AzMotor].SIDEREALRATE;
axis[AltMotor].Speed += axis[AltMotor].SIDEREALRATE;
} while (axis[AzMotor].Speed < 0x600000);
dbgSerial.println("Test - 0x01 Command - Stop motors");
HBXStop2Motors();
// Read status
dbgSerial.println("Test - Read Status");
HBXGet2Status();
// Stop the motors (Az and Alt)
dbgSerial.println("Test - Stop motors");
HBXStop2Motors();
}
void HBXPrintSpeed(unsigned int count, unsigned int duration) {
int j = 0;
axis[AzMotor].Position = ETX_AzCENTRE; // Reset position
axis[AltMotor].Position = ETX_AltCENTRE;
axis[AzMotor].Increment = 0;
axis[AltMotor].Increment = 0;
PreviousTime = millis();
dbgSerial.print("Az, ");
dbgSerial.println(axis[AzMotor].Speed);
HBXStart2Motors(); // Start the motors
dbgSerial.print("Az, ");
dbgSerial.println(axis[AzMotor].Speed);
do {
ETXState(AzMotor); // Check the Az motor state
ETXState(AltMotor); // Check the Alt motor state
dbgSerial.print(millis() - PreviousTime);
dbgSerial.print(", ");
SendSpeed(duration); // Duration is delay between reads
j += 1;
while ((millis() - PreviousTime) < duration);
PreviousTime = millis();
} while(j < count);
}
void SendSpeed(unsigned long duration) {
HBXGetStatus(AzMotor);
axis[AzMotor].Increment = axis[AzMotor].HBXP1 * 256 + axis[AzMotor].HBXP2;
HBXGetStatus(AltMotor);
axis[AltMotor].Increment = axis[AltMotor].HBXP1 * 256 + axis[AltMotor].HBXP2;
dbgSerial.print("Az, ");
dbgSerial.print(axis[AzMotor].Speed);
dbgSerial.print(", ");
dbgSerial.print(axis[AzMotor].Position);
dbgSerial.print(", ");
dbgSerial.print(axis[AzMotor].Increment);
dbgSerial.print(", Alt, ");
dbgSerial.print(axis[AltMotor].Speed);
dbgSerial.print(", ");
dbgSerial.print(axis[AltMotor].Position);
dbgSerial.print(", ");
dbgSerial.println(axis[AltMotor].Increment);
}
void HBXPrintPosn(unsigned int count, unsigned int duration) {
int j = 0;
axis[AzMotor].Position = ETX_AzCENTRE; // Reset position
axis[AltMotor].Position = ETX_AltCENTRE;
axis[AzMotor].Increment = 0;
axis[AltMotor].Increment = 0;
PreviousTime = millis();
HBXStart2Motors(); // Start the motors
do {
ETXState(AzMotor); // Check the Az motor state
ETXState(AltMotor); // Check the Alt motor state
SendData(duration); // Duration is delay between reads
j += 1;
} while(j < count);
}
void SendData(unsigned int duration) {
// dbgSerial.println(" SendPosn");
while ((millis() - PreviousTime) < duration) ; // 1/10 second
dbgSerial.print(millis() - PreviousTime);
dbgSerial.print(" - ");
PreviousTime = millis();
HBXGetStatus(AzMotor);
axis[AzMotor].Increment = axis[AzMotor].HBXP1 * 256 + axis[AzMotor].HBXP2;
HBXGetStatus(AltMotor);
axis[AltMotor].Increment = axis[AltMotor].HBXP1 * 256 + axis[AltMotor].HBXP2;
dbgSerial.print("Az = ");
dbgSerial.print(axis[AzMotor].Position);
dbgSerial.print(" : ");
dbgSerial.print(axis[AzMotor].Increment);
dbgSerial.print(", Alt = ");
dbgSerial.print(axis[AltMotor].Position);
dbgSerial.print(" : ");
dbgSerial.println(axis[AltMotor].Increment);
}
void HBXPrintStatus(unsigned char Motor) {
axis[Motor].HBXCount = 0;
if ((axis[Motor].Command != GetStatus) || (axis[Motor].HBXP1 | axis[Motor].HBXP2 | axis[Motor].HBXP3 | axis[Motor].HBXP4) || axis[Motor].PrintStatus0 ) {
dbgSerial.print("Motor: ");
dbgSerial.print(Motor);
dbgSerial.print(", Cmnd: ");
dbgSerial.print(axis[Motor].Command, HEX);
dbgSerial.print(" - ");
switch (axis[Motor].Command) {
case RotateSlow:
dbgSerial.print("RotateSlow ");
axis[Motor].HBXCount = 3;
break;
case RotateFast:
dbgSerial.print("RotateFast ");
axis[Motor].HBXCount = 3;
break;
case SetOffset:
dbgSerial.print("SetOffset ");
axis[Motor].HBXCount = 4;
break;
case SetLEDI:
dbgSerial.print("SetLEDI ");
axis[Motor].HBXCount = 1;
break;
case CalibrateLED:
dbgSerial.print("CalibrateLED ");
break;
case Stop:
dbgSerial.print("Stop ");
break;
case SlewReverse:
dbgSerial.print("SlewReverse ");
break;
case SlewForward:
dbgSerial.print("SlewForward ");
break;
case GetStatus:
dbgSerial.print("GetStatus ");
axis[Motor].HBXCount = 4;
break;
case GetLEDI:
dbgSerial.print("GetLEDI ");
axis[Motor].HBXCount = 1;
break;
case GetMotorType:
dbgSerial.print("GetMotorType ");
axis[Motor].HBXP1 = axis[Motor].MotorType;
axis[Motor].HBXCount = 1;
break;
case ResetH2X:
dbgSerial.print("ResetH2X ");
break;
default:
dbgSerial.print("UNKNOWN ");
break;
}
if (axis[Motor].HBXCount) {
dbgSerial.print(", Data: ");
dbgSerial.print(axis[Motor].HBXP1, HEX);
if (axis[Motor].HBXCount > 1) dbgSerial.print(", ");
axis[Motor].HBXCount -= 1;
}
if (axis[Motor].HBXCount) {
dbgSerial.print(axis[Motor].HBXP2, HEX);
if (axis[Motor].HBXCount > 1) dbgSerial.print(", ");
axis[Motor].HBXCount -= 1;
}
if (axis[Motor].HBXCount) {
dbgSerial.print(axis[Motor].HBXP3, HEX);
if (axis[Motor].HBXCount > 1) dbgSerial.print(", ");
axis[Motor].HBXCount -= 1;
}
if (axis[Motor].HBXCount) {
dbgSerial.print(axis[Motor].HBXP4, HEX);
axis[Motor].HBXCount -= 1;
}
dbgSerial.println("");
}
}
bool HBXStop2Motors(void) {
axis[AzMotor].ETXMotorState = ETXStopMotor;
ETXState(AzMotor);
axis[AltMotor].ETXMotorState = ETXStopMotor;
ETXState(AltMotor);
return(true);
}
bool HBXStart2Motors(void) {
axis[AzMotor].ETXMotorState = ETXCheckStartup;
axis[AzMotor].EQGMotorStatus |= MOVEAXIS;
dbgSerial.print("Az, ");
dbgSerial.println(axis[AzMotor].Speed);
ETXState(AzMotor);
dbgSerial.print("Az, ");
dbgSerial.println(axis[AzMotor].Speed);
axis[AltMotor].ETXMotorState = ETXCheckStartup;
axis[AltMotor].EQGMotorStatus |= MOVEAXIS;
dbgSerial.print("Az, ");
dbgSerial.println(axis[AzMotor].Speed);
ETXState(AltMotor);
dbgSerial.print("Az, ");
dbgSerial.println(axis[AzMotor].Speed);
return(true);
}
void HBXPrintPosn(unsigned char Motor) {
if (Motor == MotorAz) {
digitalWrite(FROMHBX, HIGH); // Set Indicator LED
dbgSerial.println("");
dbgSerial.print("Time: ");
dbgSerial.print(millis());
// dbgSerial.print(StatusTimer - StatusTime);
// StatusTime = StatusTimer;
/* dbgSerial.print(" AzRaw: ");
puthexb(axis[AzMotor].HBXP1);
putbyte(',');
puthexb(axis[AzMotor].HBXP2);
putbyte(',');
puthexb(axis[AzMotor].HBXP3);
putbyte(',');
puthexb(axis[AzMotor].HBXP4);
*/
dbgSerial.print(" AzPosn: ");
puthexl(axis[AzMotor].Position);
putbyte(',');
puthexl(axis[AzMotor].Target);
putbyte(',');
puthexl(axis[AzMotor].SlowDown);
dbgSerial.print(" AzSpeed: ");
puthexl(axis[AzMotor].Speed);
putbyte(',');
puthexl(axis[AzMotor].TargetSpeed);
putbyte('-');
puthexw(axis[AzMotor].EQGMotorStatus);
putbyte(',');
puthexw(axis[AzMotor].MotorControl);
}
else {
/*
* dbgSerial.print(" AltRaw: ");
puthexb(axis[AltMotor].HBXP1);
putbyte(',');
puthexb(axis[AltMotor].HBXP2);
putbyte(',');
puthexb(axis[AltMotor].HBXP3);
putbyte(',');
puthexb(axis[AltMotor].HBXP4);
*/
dbgSerial.print(" AltPosn: ");
puthexl(axis[AltMotor].Position);
putbyte(',');
puthexl(axis[AltMotor].Target);
putbyte(',');
puthexl(axis[AltMotor].SlowDown);
dbgSerial.print(" AltSpeed: ");
puthexl(axis[AltMotor].Speed);
putbyte(',');
puthexl(axis[AltMotor].TargetSpeed);
putbyte('-');
puthexw(axis[AltMotor].EQGMotorStatus);
putbyte(',');
puthexw(axis[AltMotor].MotorControl);
dbgSerial.println("");
}
digitalWrite(FROMHBX, LOW); // Clear Indicator LED
}