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MeadeGeneric/Meade.net/SharedResources.cs
T

706 lines
33 KiB
C#

//
// ================
// Shared Resources
// ================
//
// This class is a container for all shared resources that may be needed
// by the drivers served by the Local Server.
//
// NOTES:
//
// * ALL DECLARATIONS MUST BE STATIC HERE!! INSTANCES OF THIS CLASS MUST NEVER BE CREATED!
//
// Written by: Bob Denny 29-May-2007
// Modified by Chris Rowland and Peter Simpson to hamdle multiple hardware devices March 2011
//
using System;
using System.Collections.Generic;
using System.Globalization;
using System.Runtime.InteropServices;
using System.Text;
using System.Threading;
using System.Windows.Forms;
using ASCOM.DeviceInterface;
using ASCOM.Meade.net.Wrapper;
using ASCOM.Utilities;
using ASCOM.Utilities.Interfaces;
namespace ASCOM.Meade.net
{
/// <summary>
/// The resources shared by all drivers and devices, in this example it's a serial port with a shared SendMessage method
/// an idea for locking the message and handling connecting is given.
/// In reality extensive changes will probably be needed.
/// Multiple drivers means that several applications connect to the same hardware device, aka a hub.
/// Multiple devices means that there are more than one instance of the hardware, such as two focusers.
/// In this case there needs to be multiple instances of the hardware connector, each with it's own connection count.
/// </summary>
public static class SharedResources
{
// object used for locking to prevent multiple drivers accessing common code at the same time
private static readonly object LockObject = new object();
// Shared serial port. This will allow multiple drivers to use one single serial port.
private static ISerial _sSharedSerial; // Shared serial port
//
// Public access to shared resources
//
#region single serial port connector
//
// this region shows a way that a single serial port could be connected to by multiple
// drivers.
//
// Connected is used to handle the connections to the port.
//
// SendMessage is a way that messages could be sent to the hardware without
// conflicts between different drivers.
//
// All this is for a single connection, multiple connections would need multiple ports
// and a way to handle connecting and disconnection from them - see the
// multi driver handling section for ideas.
//
/// <summary>
/// Shared serial port. Do not directly access this method.
/// </summary>
public static ISerial SharedSerial
{
get => _sSharedSerial ?? (_sSharedSerial = new Serial());
set => _sSharedSerial = value;
}
public static IProfileFactory ProfileFactory
{
get => _profileFactory ?? (_profileFactory = new ProfileFactory());
set => _profileFactory = value;
}
//todo add code to ensure that there is a minimum gap between commands. 5ms as default.
public static void SendBlind(ITraceLogger traceLogger, string message, bool raw = false)
{
lock (LockObject)
{
SharedSerial.ClearBuffers();
var encodedMessage = raw ? message : $"#:{message}#";
traceLogger.LogMessage("SendBlind", $"Transmitting {encodedMessage}", false);
SharedSerial.Transmit(encodedMessage);
}
}
/// <summary>
/// Example of a shared SendMessage method, the lock
/// prevents different drivers tripping over one another.
/// It needs error handling and assumes that the message will be sent unchanged
/// and that the reply will always be terminated by a "#" character.
/// </summary>
/// <param name="message"></param>
/// <param name="raw"></param>
/// <returns></returns>
public static string SendString(ITraceLogger traceLogger, string message, bool raw = false)
{
lock (LockObject)
{
SharedSerial.ClearBuffers();
var encodedMessage = raw ? message : $"#:{message}#";
traceLogger.LogMessage("SendString", $"Transmitting {encodedMessage}", false);
SharedSerial.Transmit(encodedMessage);
try
{
var result = SharedSerial.ReceiveTerminated("#").TrimEnd('#');
traceLogger.LogMessage("SendString", $"Received {result}", false);
return result;
}
catch (COMException ex)
{
traceLogger.LogIssue("SendString", ex.Message);
if (ex.Message.Contains("Timed out waiting for received data"))
throw new TimeoutException(ex.Message, ex);
throw;
}
}
}
public static bool SendBool(ITraceLogger traceLogger, string command, bool raw = false)
{
var result = SendChar(traceLogger, command, raw);
return result == "1";
}
public static string SendChar(ITraceLogger traceLogger, string command, bool raw = false)
{
return SendChars(traceLogger, command, raw, count: 1);
}
public static string SendChars(ITraceLogger traceLogger, string command, bool raw = false, int count = 1)
{
lock (LockObject)
{
SharedSerial.ClearBuffers();
var encodedMessage = raw ? command : $"#:{command}#";
traceLogger.LogMessage("SendChars", $"Transmitting {encodedMessage}", false);
SharedSerial.Transmit(encodedMessage);
try
{
var result = SharedSerial.ReceiveCounted(count);
traceLogger.LogMessage("SendChars", $"Received {result}", false);
return result;
}
catch (COMException ex)
{
traceLogger.LogIssue("SendString", ex.Message);
if (ex.Message.Contains("Timed out waiting for received data"))
throw new TimeoutException(ex.Message, ex);
throw;
}
}
}
public static string ReadTerminated()
{
lock (LockObject)
{
return SharedSerial.ReceiveTerminated("#");
}
}
public static void ReadCharacters(int throwAwayCharacters)
{
lock (LockObject)
{
SharedSerial.ReceiveCounted(throwAwayCharacters);
}
}
#endregion
#region Profile
private const string DriverId = "ASCOM.MeadeGeneric.Telescope";
// Constants used for Profile persistence
private const string ComPortProfileName = "COM Port";
private const string RtsDtrProfileName = "Rts / Dtr";
private const string TraceStateProfileName = "Trace Level";
private const string GuideRateProfileName = "Guide Rate Arc Seconds Per Second";
private const string PrecisionProfileName = "Precision";
private const string GuidingStyleProfileName = "Guiding Style";
private const string BacklashCompensationName = "Backlash Compensation";
private const string ReverseFocusDirectionName = "Reverse Focuser Direction";
private const string DynamicBreakingName = "Dynamic Breaking";
private const string SiteElevationName = "Site Elevation";
private const string SettleTimeName = "Settle Time";
private const string SpeedName = "Speed";
private const string DataBitsName = "Data Bits";
private const string StopBitsName = "Stop Bits";
private const string HandShakeName = "Hand Shake";
private const string ParityName = "Parity";
private const string SendDateTimeName = "Send Date and time on connect";
private const string ParkedBehaviourName = "Parked Behaviour";
private const string ParkedAltName = "Parked Altitude";
private const string ParkedAzimuthName = "Parked Azimuth";
private const string FocalLengthName = "Focal Length (mm)";
private const string ApertureAreaName = "Aperture Area (mm²)";
private const string ApertureDiameterName = "Aperture Diameter (mm)";
public static void WriteProfile(ProfileProperties profileProperties)
{
lock (LockObject)
{
using (IProfileWrapper driverProfile = ProfileFactory.Create())
{
driverProfile.DeviceType = "Telescope";
driverProfile.WriteValue(DriverId, TraceStateProfileName, profileProperties.TraceLogger.ToString());
driverProfile.WriteValue(DriverId, ComPortProfileName, profileProperties.ComPort);
driverProfile.WriteValue(DriverId, RtsDtrProfileName, profileProperties.RtsDtrEnabled.ToString());
driverProfile.WriteValue(DriverId, SpeedName, profileProperties.Speed.ToString(CultureInfo.InvariantCulture));
driverProfile.WriteValue(DriverId, DataBitsName, profileProperties.DataBits.ToString(CultureInfo.InvariantCulture));
driverProfile.WriteValue(DriverId, StopBitsName, profileProperties.StopBits);
driverProfile.WriteValue(DriverId, HandShakeName, profileProperties.Handshake);
driverProfile.WriteValue(DriverId, ParityName, profileProperties.Parity);
driverProfile.WriteValue(DriverId, GuideRateProfileName, profileProperties.GuideRateArcSecondsPerSecond.ToString(CultureInfo.InvariantCulture));
driverProfile.WriteValue(DriverId, PrecisionProfileName, profileProperties.Precision);
driverProfile.WriteValue(DriverId, GuidingStyleProfileName, profileProperties.GuidingStyle);
driverProfile.WriteValue(DriverId, BacklashCompensationName, profileProperties.BacklashCompensation.ToString());
driverProfile.WriteValue(DriverId, ReverseFocusDirectionName, profileProperties.ReverseFocusDirection.ToString());
driverProfile.WriteValue(DriverId, DynamicBreakingName, profileProperties.DynamicBreaking.ToString());
driverProfile.WriteValue(DriverId, SiteElevationName, profileProperties.SiteElevation.ToString(CultureInfo.InvariantCulture));
driverProfile.WriteValue(DriverId, SettleTimeName, profileProperties.SettleTime.ToString());
driverProfile.WriteValue(DriverId, SendDateTimeName, profileProperties.SendDateTime.ToString());
driverProfile.WriteValue(DriverId, ParkedBehaviourName, profileProperties.ParkedBehaviour.GetDescription());
driverProfile.WriteValue(DriverId, ParkedAltName, profileProperties.ParkedAlt.ToString(CultureInfo.InvariantCulture));
driverProfile.WriteValue(DriverId, ParkedAzimuthName, profileProperties.ParkedAz.ToString(CultureInfo.InvariantCulture));
driverProfile.WriteValue(DriverId, FocalLengthName, profileProperties.FocalLength.ToString(CultureInfo.InvariantCulture));
driverProfile.WriteValue(DriverId, ApertureAreaName, profileProperties.ApertureArea.ToString(CultureInfo.InvariantCulture));
driverProfile.WriteValue(DriverId, ApertureDiameterName, profileProperties.ApertureDiameter.ToString(CultureInfo.InvariantCulture));
}
}
}
private const string ComPortDefault = "COM1";
private const string RtsDtrDefault = "false";
private const string TraceStateDefault = "false";
private const string GuideRateProfileNameDefault = "10.077939"; //67% of sidereal rate
private const string PrecisionDefault = "Unchanged";
private const string GuidingStyleDefault = "Auto";
private const string BacklashCompensationDefault = "3000";
private const string ReverseFocuserDiectionDefault = "true";
private const string DynamicBreakingDefault = "true";
private const string SiteElevationDefault = "0";
private const string SettleTimeDefault = "2";
private const string SpeedDefault = "9600";
private const string DataBitsDefault = "8";
private const string StopBitsDefault = "One";
private const string HandShakeDefault = "None";
private const string ParityDefault = "None";
private const string SendDateTimeDefault = "false";
private const string ParkedBehaviourDefault = "No Coordinates";
private const string ParkedAltDefault = "0";
private const string ParkedAzimuthDefault = "180";
private const string FocalLengthDefault = "2000";
private const string ApertureAreaDefault = "32685";
private const string ApertureDiameterDefault = "203";
public static ProfileProperties ReadProfile()
{
lock (LockObject)
{
ProfileProperties profileProperties = new ProfileProperties();
using (IProfileWrapper driverProfile = ProfileFactory.Create())
{
driverProfile.DeviceType = "Telescope";
profileProperties.ComPort = driverProfile.GetValue(DriverId, ComPortProfileName, string.Empty, ComPortDefault);
profileProperties.RtsDtrEnabled = Convert.ToBoolean(driverProfile.GetValue(DriverId, RtsDtrProfileName, string.Empty, RtsDtrDefault));
profileProperties.TraceLogger = Convert.ToBoolean(driverProfile.GetValue(DriverId, TraceStateProfileName, string.Empty, TraceStateDefault));
profileProperties.GuideRateArcSecondsPerSecond = double.Parse(driverProfile.GetValue(DriverId, GuideRateProfileName, string.Empty, GuideRateProfileNameDefault), NumberFormatInfo.InvariantInfo);
profileProperties.Precision = driverProfile.GetValue(DriverId, PrecisionProfileName, string.Empty, PrecisionDefault);
profileProperties.GuidingStyle = driverProfile.GetValue(DriverId, GuidingStyleProfileName, string.Empty, GuidingStyleDefault);
profileProperties.BacklashCompensation = Convert.ToInt32(driverProfile.GetValue(DriverId, BacklashCompensationName, string.Empty, BacklashCompensationDefault));
profileProperties.ReverseFocusDirection = Convert.ToBoolean(driverProfile.GetValue(DriverId, ReverseFocusDirectionName, string.Empty, ReverseFocuserDiectionDefault));
profileProperties.DynamicBreaking = Convert.ToBoolean(driverProfile.GetValue(DriverId, DynamicBreakingName, string.Empty, DynamicBreakingDefault));
profileProperties.SiteElevation = Convert.ToInt32(driverProfile.GetValue(DriverId, SiteElevationName, string.Empty, SiteElevationDefault));
profileProperties.SettleTime = Convert.ToInt16(driverProfile.GetValue(DriverId, SettleTimeName, string.Empty, SettleTimeDefault));
profileProperties.StopBits = driverProfile.GetValue(DriverId, StopBitsName, string.Empty, StopBitsDefault);
profileProperties.DataBits = Convert.ToInt32(driverProfile.GetValue(DriverId, DataBitsName, string.Empty, DataBitsDefault));
profileProperties.Handshake = driverProfile.GetValue(DriverId, HandShakeName, string.Empty, HandShakeDefault);
profileProperties.Speed = Convert.ToInt32(driverProfile.GetValue(DriverId, SpeedName, string.Empty, SpeedDefault));
profileProperties.Parity = driverProfile.GetValue(DriverId, ParityName, string.Empty, ParityDefault);
profileProperties.SendDateTime = Convert.ToBoolean(driverProfile.GetValue(DriverId, SendDateTimeName, string.Empty, SendDateTimeDefault));
profileProperties.ParkedBehaviour = EnumExtensionMethods.GetValueFromDescription<ParkedBehaviour>(driverProfile.GetValue(DriverId, ParkedBehaviourName, string.Empty, ParkedBehaviourDefault));
profileProperties.ParkedAlt = double.Parse(driverProfile.GetValue(DriverId, ParkedAltName, string.Empty, ParkedAltDefault), NumberFormatInfo.InvariantInfo);
profileProperties.ParkedAz = double.Parse(driverProfile.GetValue(DriverId, ParkedAzimuthName, string.Empty, ParkedAzimuthDefault), NumberFormatInfo.InvariantInfo);
profileProperties.FocalLength = double.Parse(driverProfile.GetValue(DriverId, FocalLengthName, string.Empty, FocalLengthDefault), NumberFormatInfo.InvariantInfo);
profileProperties.ApertureArea = double.Parse(driverProfile.GetValue(DriverId, ApertureAreaName, string.Empty, ApertureAreaDefault), NumberFormatInfo.InvariantInfo);
profileProperties.ApertureDiameter = double.Parse(driverProfile.GetValue(DriverId, ApertureDiameterName, string.Empty, ApertureDiameterDefault), NumberFormatInfo.InvariantInfo);
}
return profileProperties;
}
}
#endregion
#region SetupDialog
public static void SetupDialog()
{
try
{
var profileProperties = ReadProfile();
using (SetupDialogForm f = new SetupDialogForm())
{
f.SetProfile(profileProperties);
if (IsConnected())
{
f.SetReadOnlyMode();
}
var result = f.ShowDialog();
if (result == DialogResult.OK)
{
profileProperties = f.GetProfile();
WriteProfile(
profileProperties); // Persist device configuration values to the ASCOM Profile store
}
}
}
catch (Exception e)
{
Console.WriteLine(e);
throw;
}
}
#endregion
#region Multi Driver handling
public static string ProductName { get; private set; } = string.Empty;
public static string FirmwareVersion { get; private set; } = string.Empty;
// this section illustrates how multiple drivers could be handled,
// it's for drivers where multiple connections to the hardware can be made and ensures that the
// hardware is only disconnected from when all the connected devices have disconnected.
// It is NOT a complete solution! This is to give ideas of what can - or should be done.
//
// An alternative would be to move the hardware control here, handle connecting and disconnecting,
// and provide the device with a suitable connection to the hardware.
//
/// <summary>
/// dictionary carrying device connections.
/// The Key is the connection number that identifies the device, it could be the COM port name,
/// USB ID or IP Address, the Value is the DeviceHardware class
/// </summary>
private static readonly Dictionary<string, DeviceHardware> ConnectedDevices = new Dictionary<string, DeviceHardware>();
private static readonly Dictionary<string, DeviceHardware> ConnectedDeviceIds = new Dictionary<string, DeviceHardware>();
private static IProfileFactory _profileFactory;
/// <summary>
/// This is called in the driver Connect(true) property,
/// it add the device id to the list of devices if it's not there and increments the device count.
/// </summary>
/// <param name="deviceId"></param>
/// <param name="driverId"></param>
/// <param name="traceLogger"></param>
public static ConnectionInfo Connect(string deviceId, string driverId, ITraceLogger traceLogger)
{
lock (LockObject)
{
if (!ConnectedDevices.ContainsKey(deviceId))
ConnectedDevices.Add(deviceId, new DeviceHardware());
if (!ConnectedDeviceIds.ContainsKey(driverId))
ConnectedDeviceIds.Add(driverId, new DeviceHardware());
if (deviceId == "Serial")
{
if (ConnectedDevices[deviceId].Count == 0)
{
var profileProperties = ReadProfile();
SharedSerial.PortName = profileProperties.ComPort;
SharedSerial.DTREnable = profileProperties.RtsDtrEnabled;
SharedSerial.RTSEnable = profileProperties.RtsDtrEnabled;
SharedSerial.DataBits = profileProperties.DataBits;
SharedSerial.StopBits = (SerialStopBits)Enum.Parse(typeof(SerialStopBits), profileProperties.StopBits);
SharedSerial.Parity = (SerialParity)Enum.Parse(typeof(SerialParity), profileProperties.Parity);
SharedSerial.Handshake = (SerialHandshake)Enum.Parse(typeof(SerialHandshake), profileProperties.Handshake);
SharedSerial.ReceiveTimeout = 5; //5 second timeout;
SharedSerial.Speed = SerialSpeed.ps9600;
var wantedSpeed = (SerialSpeed)profileProperties.Speed;
if (wantedSpeed != SerialSpeed.ps9600)
{
SharedSerial.Speed = wantedSpeed;
SharedSerial.Connected = true;
var speedRampNeeded = false;
//Test if communication is working.
try
{
string utcOffSet = SendString( traceLogger, "GG");
}
catch (Exception)
{
speedRampNeeded = true;
}
if (speedRampNeeded)
{
SharedSerial.Connected = false;
SharedSerial.Speed = SerialSpeed.ps9600;
SharedSerial.Connected = true;
int newSpeedIndex = GetSpeedIndex(wantedSpeed);
//:SBn# Set Baud Rate n, where n is an ASCII digit (1..9) with the following interpertation
// 1 56.7K
// 2 38.4K
// 3 28.8K
// 4 19.2K
// 5 14.4K
// 6 9600
// 7 4800
// 8 2400
// 9 1200
//Returns:
// 1 At the current baud rate and then changes to the new rate for further communication
//SendBlind($"SB{newSpeedIndex}");
try
{
var speedChanged = SendChar(traceLogger, $"SB{newSpeedIndex}");
if (speedChanged == "1")
{
SharedSerial.Connected = false;
SharedSerial.Speed = wantedSpeed;
traceLogger.LogIssue("Connect",
$"Telescope serial port speed change, connecting at {SharedSerial.Speed}.");
}
else
{
throw new Exception("Autostar not signalled speed change.");
}
}
catch (Exception)
{
SharedSerial.Connected = false;
SharedSerial.Speed = SerialSpeed.ps9600;
traceLogger.LogIssue("Connect", $"Telescope not responding to speed change, connecting at {SharedSerial.Speed}.");
}
}
}
SharedSerial.Connected = true;
try
{
ProductName = SendString(traceLogger, "GVP");
FirmwareVersion = SendString(traceLogger, "GVN");
}
catch (Exception ex)
{
traceLogger.LogIssue("Connect", $"Error getting telescope information \"{ex.Message}\" setting to LX200 Classic mode.");
ProductName = TelescopeList.LX200CLASSIC;
FirmwareVersion = "Unknown";
}
if (ProductName == ":GVP")
{
traceLogger.LogIssue("Connect", "Serial port is looping back data, something is wrong with the hardware.");
//This means that the serial port is looping back what's been sent, something is very wrong.
SharedSerial.Connected = false;
throw new Exception("Serial port is looping back data, something is wrong with the hardware.");
}
try
{
string utcOffSet = SendString(traceLogger, "GG");
//:GG# Get UTC offset time
//Returns: sHH# or sHH.H#
//The number of decimal hours to add to local time to convert it to UTC. If the number is a whole number the
//sHH# form is returned, otherwise the longer form is returned.
if (!double.TryParse(utcOffSet, out var utcOffsetHours))
{
var message = "Unable to decode response from the telescope, This is likely a hardware serial communications error.";
traceLogger.LogIssue("Connect", message);
throw new Exception(message);
}
traceLogger.LogMessage("Connect", $"Offset from UTC: {utcOffsetHours}", false);
}
catch (Exception)
{
SharedSerial.Connected = false;
throw;
}
}
}
else
throw new ArgumentException($"deviceId {deviceId} not currently supported");
ConnectedDevices[deviceId].Count++; // increment the value
ConnectedDeviceIds[driverId].Count++; // increment the value
return new ConnectionInfo
{
//Connections = ConnectedDevices[deviceId].Count,
SameDevice = ConnectedDeviceIds[driverId].Count
};
}
}
private static int GetSpeedIndex(SerialSpeed speed)
{
switch (speed)
{
case SerialSpeed.ps57600: return 1;
case SerialSpeed.ps38400: return 2;
case SerialSpeed.ps28800: return 3;
case SerialSpeed.ps19200: return 4;
case SerialSpeed.ps14400: return 5;
case SerialSpeed.ps9600: return 6;
case SerialSpeed.ps4800: return 7;
case SerialSpeed.ps2400: return 8;
case SerialSpeed.ps1200: return 9;
default: throw new NotSupportedException($"{SpeedDefault} not supported");
}
}
public static void Disconnect(string deviceId, string driverId)
{
lock (LockObject)
{
if (ConnectedDevices.ContainsKey(deviceId))
{
ConnectedDevices[deviceId].Count--;
if (ConnectedDevices[deviceId].Count <= 0)
{
ConnectedDevices.Remove(deviceId);
if (deviceId == "Serial")
{
SharedSerial.Connected = false;
}
}
}
if (ConnectedDeviceIds.ContainsKey(driverId))
{
ConnectedDeviceIds[driverId].Count--;
}
}
}
private static bool IsConnected()
{
foreach (var device in ConnectedDevices)
{
if (device.Value.Count > 0)
return true;
}
return false;
}
#endregion
/// <summary>
/// Skeleton of a hardware class, all this does is hold a count of the connections,
/// in reality extra code will be needed to handle the hardware in some way
/// </summary>
private class DeviceHardware
{
internal int Count { set; get; }
internal DeviceHardware()
{
Count = 0;
}
}
public static void SetParked(bool atPark, ParkedPosition parkedPosition, bool restartTracking)
{
IsParked = atPark;
ParkedPosition = parkedPosition;
RestartTracking = restartTracking;
}
private static readonly ThreadSafeValue<bool> _restartTracking = false;
public static bool RestartTracking
{
get => _restartTracking;
private set => _restartTracking.Set(value);
}
private static ParkedPosition _parkedPosition;
public static ParkedPosition ParkedPosition
{
get => _parkedPosition;
private set => Interlocked.Exchange(ref _parkedPosition, value);
}
private static readonly ThreadSafeValue<bool> _isParked = false;
public static bool IsParked
{
get => _isParked;
private set => _isParked.Set(value);
}
private static readonly ThreadSafeValue<AlignmentModes> _alignmentMode = AlignmentModes.algAltAz;
public static AlignmentModes AlignmentMode
{
get => _alignmentMode;
set => _alignmentMode.Set(value);
}
private static readonly ThreadSafeValue<PierSide> _sideOfPier = PierSide.pierUnknown;
/// <summary>
/// Start with <see cref="PierSide.pierUnknown"/>.
/// As we do not know the physical declination axis position, we have to keep track manually.
/// </summary>
public static PierSide SideOfPier
{
get => _sideOfPier;
internal set => _sideOfPier.Set(value);
}
private static readonly ThreadSafeValue<double?> _targetRightAscension = null as double?;
public static double? TargetRightAscension
{
get => _targetRightAscension;
internal set => _targetRightAscension.Set(value);
}
private static readonly ThreadSafeValue<double?> _targetDeclination = null as double?;
public static double? TargetDeclination
{
get => _targetDeclination;
internal set => _targetDeclination.Set(value);
}
private static int _slewSettleTime;
public static short SlewSettleTime
{
get => Convert.ToInt16(_slewSettleTime);
internal set => Interlocked.Exchange(ref _slewSettleTime, value);
}
private static readonly ThreadSafeValue<bool> _isLongFormat = false;
public static bool IsLongFormat
{
get => _isLongFormat;
internal set => _isLongFormat.Set(value);
}
private static readonly ThreadSafeValue<bool> _movingPrimary = false;
public static bool MovingPrimary
{
get => _movingPrimary;
internal set => _movingPrimary.Set(value);
}
private static readonly ThreadSafeValue<bool> _movingSecondary = false;
public static bool MovingSecondary
{
get => _movingSecondary;
internal set => _movingSecondary.Set(value);
}
private static readonly ThreadSafeValue<DateTime> _earliestNonSlewingTime = DateTime.MinValue;
public static DateTime EarliestNonSlewingTime
{
get => _earliestNonSlewingTime;
internal set => _earliestNonSlewingTime.Set(value);
}
private static readonly ThreadSafeValue<bool> _isTargetCoordinateInitRequired = true;
public static bool IsTargetCoordinateInitRequired
{
get => _isTargetCoordinateInitRequired;
internal set => _isTargetCoordinateInitRequired.Set(value);
}
private static readonly ThreadSafeValue<bool> _isGuiding = false;
public static bool IsGuiding
{
get => _isGuiding;
internal set => _isGuiding.Set(value);
}
}
}