private void LMMMAsyncFileCheckBox_CheckedChanged(object sender, EventArgs e)
{
LMConnectionInfo l = (LMConnectionInfo)(det.Id.FullConnInfo);
modified |= (l.NetComm.UseAsynchFileIO != ((CheckBox)sender).Checked);
l.NetComm.UseAsynchFileIO = ((CheckBox)sender).Checked;
}
private void LMMMStreamCheckBox_CheckedChanged(object sender, EventArgs e)
{
LMConnectionInfo l = (LMConnectionInfo)(det.Id.FullConnInfo);
modified |= (l.NetComm.UsingStreamRawAnalysis != ((CheckBox)sender).Checked);
l.NetComm.UsingStreamRawAnalysis = ((CheckBox)sender).Checked;
}
private void check_HV_set_CheckedChanged(object sender, EventArgs e)
{
LMConnectionInfo l = (LMConnectionInfo)(det.Id.FullConnInfo);
// int tolerance = l.DeviceConfig.LLD;
// int to = l.DeviceConfig.HVTimeout;
int disabled = l.DeviceConfig.LEDs;
if (((CheckBox)sender).Checked == true)
{
//l.DeviceConfig.HVTimeout = 0;
l.DeviceConfig.LEDs = 2;
//l.DeviceConfig.LLD = 0;
VoltageTolerance.Enabled = false;
VoltageTolerance.ReadOnly = true;
VoltageTimeout.Enabled = false;
VoltageTimeout.ReadOnly = true;
}
else
{
VoltageTolerance.Enabled = true;
VoltageTolerance.ReadOnly = false;
VoltageTimeout.Enabled = true;
VoltageTimeout.ReadOnly = false;
l.DeviceConfig.LEDs = 1;
//l.DeviceConfig.HVTimeout = 0;
//l.DeviceConfig.LLD = 1;
// Int32.TryParse(VoltageTolerance.Text, out tolerance);
// This is a hack for the moment, just a place to store our definable tolerance hn 2.3.3015
// l.DeviceConfig.LLD = tolerance;
}
modified = /* to != l.DeviceConfig.HVTimeout || tolerance != l.DeviceConfig.LLD || */
disabled != l.DeviceConfig.LEDs;
}
private void LMMMBroadcastCheckBox_CheckedChanged(object sender, EventArgs e)
{
LMConnectionInfo l = (LMConnectionInfo)(det.Id.FullConnInfo);
modified |= (l.NetComm.Broadcast != ((CheckBox)sender).Checked);
l.NetComm.Broadcast = !((CheckBox)sender).Checked;
}
private void LMMMLEDs_CheckedChanged(object sender, EventArgs e)
{
LMConnectionInfo l = (LMConnectionInfo)(det.Id.FullConnInfo);
int val = ((CheckBox)sender).Checked ? 2 : 1; // the 1 and 2 must be an LMMM-specific detail
modified |= (l.DeviceConfig.LEDs != val);
l.DeviceConfig.LEDs = val;
}
private void LMMMDebugFlag_CheckedChanged(object sender, EventArgs e)
{
LMConnectionInfo l = (LMConnectionInfo)(det.Id.FullConnInfo);
int val = ((CheckBox)sender).Checked ? 1 : 0;
modified |= (l.DeviceConfig.Debug != val);
l.DeviceConfig.Debug = val;
}
private void LMMMHV_Leave(object sender, EventArgs e)
{
LMConnectionInfo l = (LMConnectionInfo)(det.Id.FullConnInfo);
int i = l.DeviceConfig.HV;
modified |= Format.ToNZInt(((TextBox)sender).Text, ref i);
if (modified)
{
l.DeviceConfig.HV = i;
}
}
private void VoltageTolerance_Leave(object sender, EventArgs e)
{
LMConnectionInfo l = (LMConnectionInfo)(det.Id.FullConnInfo);
int i = l.DeviceConfig.LLD;
modified |= Format.ToNZInt(((TextBox)sender).Text, ref i);
if (modified)
{
l.DeviceConfig.LLD = i;
}
}
private void LMMMEventBufferTextBox_Leave(object sender, EventArgs e)
{
LMConnectionInfo l = (LMConnectionInfo)(det.Id.FullConnInfo);
uint i = l.NetComm.ParseBufferSize;
modified |= Format.ToNN(((TextBox)sender).Text, ref i);
if (modified)
{
l.NetComm.ParseBufferSize = i;
}
}
private void LMMMConnectionsTextBox_Leave(object sender, EventArgs e)
{
LMConnectionInfo l = (LMConnectionInfo)(det.Id.FullConnInfo);
int i = l.NetComm.NumConnections;
modified |= Format.ToInt(((TextBox)sender).Text, ref i);
if (modified)
{
l.NetComm.NumConnections = i;
}
}
private void LMMMInModeComboBox_SelectedIndexChanged(object sender, EventArgs e)
{
LMConnectionInfo l = (LMConnectionInfo)(det.Id.FullConnInfo);
int i = l.DeviceConfig.Input;
if (((ComboBox)sender).SelectedIndex != i)
{
l.DeviceConfig.Input = ((ComboBox)sender).SelectedIndex;
modified |= true;
}
}
private void LMMMRemotePortTextBox_Leave(object sender, EventArgs e)
{
LMConnectionInfo l = (LMConnectionInfo)(det.Id.FullConnInfo);
int i = l.NetComm.LMListeningPort;
modified |= Format.ToInt(((TextBox)sender).Text, ref i);
if (modified)
{
l.NetComm.LMListeningPort = i;
}
}
private void LMMMSubnetTextBox_Leave(object sender, EventArgs e)
{
LMConnectionInfo l = (LMConnectionInfo)(det.Id.FullConnInfo);
String s = l.NetComm.Subnet;
modified |= Format.Changed(((TextBox)sender).Text, ref s);
if (modified)
{
l.NetComm.Subnet = s;
}
}
// Depending on the shift register type for d, fill in the fields in the appropriate panel and make it visible.
private void PopulateParamFields()
{
if (det != null)
{
if (det.Id.SRType == InstrType.LMMM)
{ // Fill edit panel fields
// LMNetComm
LMConnectionInfo l = (LMConnectionInfo)(det.Id.FullConnInfo);
LMMMSubnetTextBox.Text = l.NetComm.Subnet;
LMMMLocalPortTextBox.Text = l.NetComm.Port.ToString();
LMMMRemotePortTextBox.Text = l.NetComm.LMListeningPort.ToString();
LMMMDiscWaitTimeTextBox.Text = l.NetComm.Wait.ToString();
LMMMBroadcastCheckBox.Checked = l.NetComm.Broadcast;
LMMMConnectionsTextBox.Text = l.NetComm.NumConnections.ToString();
LMMMBufferTextBox.Text = l.NetComm.ReceiveBufferSize.ToString();
LMMMEventBufferTextBox.Text = l.NetComm.ParseBufferSize.ToString();
LMMMStreamCheckBox.Checked = l.NetComm.UsingStreamRawAnalysis;
LMMMAsyncFileCheckBox.Checked = l.NetComm.UseAsynchFileIO;
LMMMSyncAnalysisCheckBox.Checked = !l.NetComm.UseAsynchAnalysis;
// LMHWConfig
LMMMInModeComboBox.SelectedIndex = l.DeviceConfig.Input; // 0 is ribbon, 1 is TTL
LMMMDebugFlag.Checked = (l.DeviceConfig.Debug == 1 ? true : false);
LMMMHV.Text = l.DeviceConfig.HV.ToString();
LMMMLEDs.Checked = (l.DeviceConfig.LEDs == 2 ? true : false);
LMMMLLDmV.Text = l.DeviceConfig.LLD.ToString();
LMMMIntervalTextBox.Text = acq.lm.Separation.ToString();
LMMMFeedbackFlagCheckBox.Checked = acq.lm.Feedback;
// Make edit panel visible
this.LMMMPanel.Visible = true;
}
else if (det.Id.SRType == InstrType.PTR32)
{
this.PTR32Panel.Visible = true;
this.PTR32Id.Text = String.Copy(det.Id.DetectorId);
//Warning: hack attack. using extra fields here to store hv enabling and tolerance hn 2.3.2015
// OK, was logic error. Checked box means HV disabled..... fixed. hn 5.19.2015
LMConnectionInfo lmi = (LMConnectionInfo)(det.Id.FullConnInfo);
check_HV_set.Checked = lmi.DeviceConfig.LEDs == 2 ? true : false;
VoltageTimeout.Visible = true;
VoltageTimeout.Text = lmi.DeviceConfig.HVTimeout.ToString();
VoltageTolerance.Text = lmi.DeviceConfig.LLD.ToString();
VoltageTolerance.Visible = true;
}
else if (det.Id.SRType == InstrType.NILA)
{
this.PTR32Panel.Visible = true;
}
}
}
public void ApplyInstrumentSettings()
{
foreach (Instrument instrument in Instruments.Active)
{
try
{
instrument.ApplySettings();
}
catch (Exception ex)
{
collog.TraceException(ex);
}
}
// for now, this is for the LMs only
if (!Instruments.Active.HasConnectedLM())
{
return;
}
LMInstrument lm = (LMInstrument)Instruments.Active.AConnectedLM();
LMConnectionInfo lmc = (LMConnectionInfo)lm.id.FullConnInfo;
if (lm.id.SRType == InstrType.LMMM) // it's an LMMM
{
// look for any flags requiring conditioning of the instrument prior to assay or HV
// e.g. input=0, the arg to each is already parsed in the command line processing state
//if (NC.App.Config.LMMM.isSet(LMFlags.input))
{
DAQControl.LMMMComm.FormatAndSendLMMMCommand(LMMMLingo.Tokens.input, lmc.DeviceConfig.Input);
}
//if (NC.App.Config.LMMM.isSet(LMFlags.debug))
{
DAQControl.LMMMComm.FormatAndSendLMMMCommand(LMMMLingo.Tokens.debug, lmc.DeviceConfig.Debug);
}
//if (NC.App.Config.LMMM.isSet(LMFlags.leds))
{
DAQControl.LMMMComm.FormatAndSendLMMMCommand(LMMMLingo.Tokens.leds, lmc.DeviceConfig.LEDs);
}
//if (NC.App.Config.LMMM.isSet(LMFlags.hv))
{
DAQControl.LMMMComm.FormatAndSendLMMMCommand(LMMMLingo.Tokens.hvset, lmc.DeviceConfig.HV);
}
}
else if (lm.id.SRType == InstrType.PTR32) // its a PTR-32
{
}
else if (lm.id.SRType == InstrType.MCA527)
{
}
}
public LMConnectionInfo LastBestConnInfo()
{
DB.LMNetCommParams gray = new DB.LMNetCommParams();
DataTable dt = gray.GetComms();
LMConnectionInfo lm = new LMConnectionInfo();
if (dt.Rows.Count < 1)
{
return(lm);
}
DataRow drl = dt.Rows[dt.Rows.Count - 1];
lm.NetComm.Broadcast = DB.Utils.DBBool(drl["broadcast"]);
lm.NetComm.LMListeningPort = DB.Utils.DBInt32(drl["broadcastport"]);
lm.NetComm.Port = DB.Utils.DBInt32(drl["port"]);
lm.NetComm.Subnet = (string)(drl["subnet"]);
lm.NetComm.Wait = DB.Utils.DBInt32(drl["wait"]);
lm.NetComm.NumConnections = DB.Utils.DBInt32(drl["numConnections"]);
lm.NetComm.ReceiveBufferSize = DB.Utils.DBInt32(drl["receiveBufferSize"]);
lm.NetComm.ParseBufferSize = DB.Utils.DBUInt32(drl["parseBufferSize"]);
lm.NetComm.UseAsynchAnalysis = DB.Utils.DBBool(drl["useAsyncAnalysis"]);
lm.NetComm.UseAsynchFileIO = DB.Utils.DBBool(drl["useAsyncFileIO"]);
lm.NetComm.UsingStreamRawAnalysis = DB.Utils.DBBool(drl["streamRawAnalysis"]);
dt = gray.GetHW();
if (dt.Rows.Count < 1)
{
return(lm);
}
drl = dt.Rows[dt.Rows.Count - 1];
lm.DeviceConfig.LEDs = DB.Utils.DBInt32(drl["leds"]);
lm.DeviceConfig.HV = DB.Utils.DBInt32(drl["hv"]);
lm.DeviceConfig.LLD = DB.Utils.DBInt32(drl["LLD"]); // alias for VoltageTolerance on PTR32 and MCA527
lm.DeviceConfig.Debug = DB.Utils.DBInt32(drl["debug"]);
lm.DeviceConfig.Input = DB.Utils.DBInt32(drl["input"]);
try {
lm.DeviceConfig.HVTimeout = DB.Utils.DBInt32(drl["hvtimeout"]);
} catch (Exception) { }
return(lm);
}
private void PopulateMCA527ParamFields()
{
if (det != null && det.Id.SRType == InstrType.MCA527)
{
PTR32Panel.Visible = true;
MCANameLabel.Visible = MCAName.Visible = true;
MCAName.Text = string.Copy(det.Id.DetectorId);
ConnIdField.Text = string.Copy(det.Id.ElectronicsId);
connIdLabel.Text = "MCA-527 serial number: ";
connLabel.Text = "MCA-527 Connection Parameters";
LoadtheMCACombobox();
LMConnectionInfo lmi = (LMConnectionInfo)(det.Id.FullConnInfo);
check_HV_set.Checked = lmi.DeviceConfig.LEDs == 2 ? true : false;
VoltageTimeout.Visible = true;
VoltageTimeout.Text = lmi.DeviceConfig.HVTimeout.ToString();
VoltageTolerance.Text = lmi.DeviceConfig.VoltageTolerance.ToString();
VoltageTolerance.Visible = true;
}
}
/// <summary>
///
/// </summary>
internal void StartLMDAQServer(LMConnectionInfo lmc = null)
{
if (_SL == null)
{
LMMMNetComm lmn;
if (lmc == null)
{
// get the one associated with selected current detector, and if not available, then get the last one used
Detector det = IntegrationHelpers.GetCurrentAcquireDetector();
if (det.Id.SRType.IsSocketBasedLM())
{
lmc = (DetectorDefs.LMConnectionInfo)det.Id.FullConnInfo;
}
else
{
lmc = NC.App.LMBD.LastBestConnInfo();
}
}
lmn = lmc.NetComm;
_SL = new Server(lmn.Port, lmn.NumConnections, lmn.ReceiveBufferSize, lmn.subnetip);
_SL.Logger = collog;
LMMMComm.LMServer = _SL; // server root visible to COMM class
_SL.clientConnected += SL_ClientConnected;
_SL.DataReceived += SL_DataReceived;
}
if (_SL.IsRunning)
{
ctrllog.TraceEvent(LogLevels.Verbose, 123, "The LM DAQ Server is already running");
return;
}
else
{
_SL.Start();
}
CurState.State = DAQInstrState.Offline;
}
List <string> GenDetIdStr(DataSourceIdentifier dsid)
{
List <string> ls = new List <string>();
ls.Add(string.Format("{0,10}: {1}", "Name", dsid.DetectorId));
if (dsid.SRType.IsListMode())
{
ls.Add(string.Format("{0,10}: {1}", "LM type", dsid.SRType.ToString()));
}
else
{
ls.Add(string.Format("{0,10}: {1}", "SR type", dsid.SRType.INCC5ComboBoxString()));
}
ls.Add(string.Format("{0,10}: {1}", "User type", dsid.Type));
ls.Add(string.Format("{0,10}: {1}", "Elec. id", dsid.ElectronicsId));
if (dsid.SRType.IsCOMPortBasedSR())
{
ls.Add(string.Format("{0,10}: {1}", "Baud rate", dsid.BaudRate));
}
ls.Add(string.Format("{0,10}: {1}", "Data src", dsid.source.HappyFunName()));
if (dsid.SRType.IsListMode())
{
LMConnectionInfo lm = (LMConnectionInfo)dsid.FullConnInfo; // todo: finish this
//lm.NetComm and
//lm.DeviceConfig
//ls.Add(string.Format("{0,10}: {1}", "Port", lm.NetComm.));
//ls.Add(string.Format("{0,10}: {1}", "Port", dsid.FullConnInfo.Port));
}
if (!string.IsNullOrEmpty(dsid.FullConnInfo.Port))
{
ls.Add(string.Format("{0,10}: {1}", "COM port", dsid.FullConnInfo.Port));
}
if (dsid.FullConnInfo.Wait != 0)
{
ls.Add(string.Format("{0,10}: {1}", "Wait", dsid.FullConnInfo.Wait) + " mSec");
}
return(ls);
}
private void check_HV_set_CheckedChanged(object sender, EventArgs e)
{
LMConnectionInfo l = (LMConnectionInfo)(det.Id.FullConnInfo);
int disabled = l.DeviceConfig.LEDs;
if (((CheckBox)sender).Checked == true)
{
l.DeviceConfig.LEDs = 2;
VoltageTolerance.Enabled = false;
VoltageTolerance.ReadOnly = true;
VoltageTimeout.Enabled = false;
VoltageTimeout.ReadOnly = true;
}
else
{
VoltageTolerance.Enabled = true;
VoltageTolerance.ReadOnly = false;
VoltageTimeout.Enabled = true;
VoltageTimeout.ReadOnly = false;
l.DeviceConfig.LEDs = 1;
}
modified = disabled != l.DeviceConfig.LEDs;
}
// UDP broadcast
public bool PostLMMMCommand(LMMMLingo.Tokens cmd, bool terminator = false)
{
bool res = true;
if (NC.App.AppContext.Emulate)
{ // look up OpDesc instance from map
// dispatch to thrift based on cmd token
LMMMLingo.OpDesc op = null;
cmdprocessor.LookupOpDescriptor(cmd, ref op);
DivertToEmulation(op, 0, -1);
}
else
{
try {
string cmds = cmdprocessor.ComposeCommandStrings(cmd, 0);
if (cmds.Length > 0)
{
LMConnectionInfo net = ((LMConnectionInfo)(NC.App.Opstate.Measurement.Detectors[0].Id.FullConnInfo));
// broadcast go message to all cfg.Net.Subnet addresses. This is the instrument group.
Socket s = new Socket(AddressFamily.InterNetwork, SocketType.Dgram, ProtocolType.Udp);
IPAddress broadcast = IPAddress.Parse(net.NetComm.Subnet);
if (terminator)
{
cmds += LMMMLingo.eol;
}
Byte[] sendBuffer = Encoding.ASCII.GetBytes(cmds);
IPEndPoint ep = new IPEndPoint(broadcast, net.NetComm.LMListeningPort);
s.SendTo(sendBuffer, ep);
commlog.TraceEvent(LogLevels.Verbose, 361, "UDP send: '" + LMLoggers.LognLM.FlattenChars(cmds) + "'");
}
}
catch (ObjectDisposedException ex)
{
commlog.TraceEvent(LogLevels.Error, 357, "LOST an instrument: " + ex.Message);
}
}
public LMConnectionInfo LastBestConnInfo()
{
DB.LMNetCommParams gray = new DB.LMNetCommParams();
DataTable dt = gray.GetComms();
LMConnectionInfo lm = new LMConnectionInfo();
if (dt.Rows.Count < 1)
return lm;
DataRow drl = dt.Rows[dt.Rows.Count - 1];
lm.NetComm.Broadcast = DB.Utils.DBBool(drl["broadcast"]);
lm.NetComm.LMListeningPort = DB.Utils.DBInt32(drl["broadcastport"]);
lm.NetComm.Port = DB.Utils.DBInt32(drl["port"]);
lm.NetComm.Subnet = (string)(drl["subnet"]);
lm.NetComm.Wait = DB.Utils.DBInt32(drl["wait"]);
lm.NetComm.NumConnections = DB.Utils.DBInt32(drl["numConnections"]);
lm.NetComm.ReceiveBufferSize = DB.Utils.DBInt32(drl["receiveBufferSize"]);
lm.NetComm.ParseBufferSize = DB.Utils.DBUInt32(drl["parseBufferSize"]);
lm.NetComm.UseAsynchAnalysis = DB.Utils.DBBool(drl["useAsyncAnalysis"]);
lm.NetComm.UseAsynchFileIO = DB.Utils.DBBool(drl["useAsyncFileIO"]);
lm.NetComm.UsingStreamRawAnalysis = DB.Utils.DBBool(drl["streamRawAnalysis"]);
dt = gray.GetHW();
if (dt.Rows.Count < 1)
return lm;
drl = dt.Rows[dt.Rows.Count - 1];
lm.DeviceConfig.LEDs = DB.Utils.DBInt32(drl["leds"]);
lm.DeviceConfig.HV = DB.Utils.DBInt32(drl["hv"]);
lm.DeviceConfig.LLD = DB.Utils.DBInt32(drl["LLD"]);
lm.DeviceConfig.Debug = DB.Utils.DBInt32(drl["debug"]);
lm.DeviceConfig.Input = DB.Utils.DBInt32(drl["input"]);
try {
lm.DeviceConfig.HVTimeout = DB.Utils.DBInt32(drl["hvtimeout"]);
} catch (Exception) { }
return lm;
}
// class to encode and support all commands to and from an LMMM and a client
public LMMMLingo()
{
LMConnectionInfo lmci = NC.App.LMBD.LastBestConnInfo();
CmdStringOpDescMap = new System.Collections.Hashtable();
CmdStringOpDescMap.Add(Tokens.broadcast.ToString(), new OpDesc(Tokens.broadcast, true)); //+ config with duration and separation and [master|slave]
CmdStringOpDescMap.Add(Tokens.prep.ToString(), new OpDesc(Tokens.prep, false)); // config with duration and separation and [master|slave]
CmdStringOpDescMap.Add("a", new OpDesc(Tokens.arm, false)); // arm if asynch broadcast go
CmdStringOpDescMap.Add(Tokens.arm.ToString(), new OpDesc(Tokens.arm, false));
CmdStringOpDescMap.Add(Tokens.go.ToString(), new OpDesc(Tokens.go, false)); // TCP/IP tell LMMM to go go go
CmdStringOpDescMap.Add("start", new OpDesc(Tokens.assay, true)); // *** prep, [arm], go
CmdStringOpDescMap.Add(Tokens.assay.ToString(), new OpDesc(Tokens.assay, true,
new ConfigInt32Value(() => { int v = (int)NC.App.Opstate.Measurement.MeasurementId.MeasOption; return(v); }))); //+ start assay
CmdStringOpDescMap.Add(Tokens.stop.ToString(), new OpDesc(Tokens.stop, true)); //+ stop full assay
CmdStringOpDescMap.Add(Tokens.cancel.ToString(), new OpDesc(Tokens.cancel, true)); //+ stop current cycle
CmdStringOpDescMap.Add(Tokens.lm.ToString(), new OpDesc(Tokens.lm, true,
new ConfigInt32Value(() => { int r = NC.App.Opstate.Measurement.AcquireState.lm.LM; return(r); }))); //+ get or set context current LM #
CmdStringOpDescMap.Add(Tokens.quit.ToString(), new OpDesc(Tokens.quit, true)); //+ quit console prompt
CmdStringOpDescMap.Add(Tokens.help.ToString(), new OpDesc(Tokens.help, true)); //+ show console prompt help
CmdStringOpDescMap.Add(Tokens.config.ToString(), new OpDesc(Tokens.config, true)); //+ show current loaded config settings
CmdStringOpDescMap.Add(Tokens.exit.ToString(), new OpDesc(Tokens.exit, true)); //+ tell LMMM to exit linux apps, WTM
CmdStringOpDescMap.Add(Tokens.leds.ToString(), new OpDesc(Tokens.leds, true,
new ConfigInt32Value(() => { int v = lmci.DeviceConfig.LEDs; return(v); }))); //+ set and get leds value
CmdStringOpDescMap.Add(Tokens.debug.ToString(), new OpDesc(Tokens.debug, true,
new ConfigInt32Value(() => { int v = lmci.DeviceConfig.Debug; return(v); }))); //+ set debug value on LMMM
CmdStringOpDescMap.Add(Tokens.cstatus.ToString(), new OpDesc(Tokens.cstatus, true)); //+ request cstatus, this is a response prefix too
CmdStringOpDescMap.Add(Tokens.input.ToString(), new OpDesc(Tokens.input, true,
new ConfigInt32Value(() => { int v = lmci.DeviceConfig.Input; return(v); }))); //+ set input on LMMM
CmdStringOpDescMap.Add(Tokens.lld.ToString(), new OpDesc(Tokens.lld, true,
new ConfigInt32Value(() => { int v = lmci.DeviceConfig.LLD; return(v); }))); //+ read/set LLD on NPOD
CmdStringOpDescMap.Add(Tokens.rates.ToString(), new OpDesc(Tokens.rates, true)); //+ read rates on LMMM/NPOD
CmdStringOpDescMap.Add(Tokens.power.ToString(), new OpDesc(Tokens.power, true)); //+ read power on NPOD
CmdStringOpDescMap.Add(Tokens.hvset.ToString(), new OpDesc(Tokens.hvset, true,
new ConfigInt32Value(() => { int v = lmci.DeviceConfig.HV; return(v); }))); //+ set high voltage
CmdStringOpDescMap.Add("hv", new OpDesc(Tokens.hvread, false)); // read hv, // this is a response prefix too
CmdStringOpDescMap.Add(Tokens.hvread.ToString(), new OpDesc(Tokens.hvread, true)); //+ read hv
CmdStringOpDescMap.Add(Tokens.hvprep.ToString(), new OpDesc(Tokens.hvprep, false)); // HV calib config with voltage and duration
CmdStringOpDescMap.Add(Tokens.hvcalib.ToString(), new OpDesc(Tokens.hvcalib, true)); //do HV Calib op, response prefix too
CmdStringOpDescMap.Add(Tokens.shutdown.ToString(), new OpDesc(Tokens.shutdown, true)); // todo: shutdown the test server
// responses associated with the direct data collection
CmdStringOpDescMap.Add("to sen", new OpDesc(Tokens.tosenddatasize, false));
CmdStringOpDescMap.Add("unreco", new OpDesc(Tokens.unrecognizeddata, false));
CmdStringOpDescMap.Add("status", new OpDesc(Tokens.statusdata, false));
CmdStringOpDescMap.Add(".....", new OpDesc(Tokens.statusdata, false)); // 6th char is ' ' or '.'
CmdStringOpDescMap.Add("lled. ", new OpDesc(Tokens.assaycancelled, false)); // 6th char is ' ', 'Assay Cancelled. '
//CmdStringtoTokenMap.Add("*", Tokens.odddata);
// for moving from token to op desc to test driver
LMMMOpOpDescMap = new System.Collections.Hashtable();
LMMMOpOpDescMap.Add(Tokens.broadcast, CmdStringOpDescMap[Tokens.broadcast.ToString()]);
LMMMOpOpDescMap.Add(Tokens.prep, CmdStringOpDescMap[Tokens.prep.ToString()]);
LMMMOpOpDescMap.Add(Tokens.arm, CmdStringOpDescMap[Tokens.arm.ToString()]);
LMMMOpOpDescMap.Add(Tokens.go, CmdStringOpDescMap[Tokens.go.ToString()]);
// LMMMOpOpStructMap.Add(Tokens.bgo, CmdStringOpStructMap["bgo"]);
LMMMOpOpDescMap.Add(Tokens.cstatus, CmdStringOpDescMap[Tokens.cstatus.ToString()]);
LMMMOpOpDescMap.Add(Tokens.exit, CmdStringOpDescMap[Tokens.exit.ToString()]);
LMMMOpOpDescMap.Add(Tokens.debug, CmdStringOpDescMap[Tokens.debug.ToString()]);
LMMMOpOpDescMap.Add(Tokens.leds, CmdStringOpDescMap[Tokens.leds.ToString()]);
LMMMOpOpDescMap.Add(Tokens.input, CmdStringOpDescMap[Tokens.input.ToString()]);
LMMMOpOpDescMap.Add(Tokens.rates, CmdStringOpDescMap[Tokens.rates.ToString()]);
LMMMOpOpDescMap.Add(Tokens.lld, CmdStringOpDescMap[Tokens.lld.ToString()]);
LMMMOpOpDescMap.Add(Tokens.power, CmdStringOpDescMap[Tokens.power.ToString()]);
LMMMOpOpDescMap.Add(Tokens.shutdown, CmdStringOpDescMap[Tokens.shutdown.ToString()]); // todo: implement this op
LMMMOpOpDescMap.Add(Tokens.cancel, CmdStringOpDescMap[Tokens.cancel.ToString()]);
LMMMOpOpDescMap.Add(Tokens.stop, CmdStringOpDescMap[Tokens.stop.ToString()]);
// hv calib ops
LMMMOpOpDescMap.Add(Tokens.hvread, CmdStringOpDescMap[Tokens.hvread.ToString()]);
LMMMOpOpDescMap.Add(Tokens.hvprep, CmdStringOpDescMap[Tokens.hvprep.ToString()]);
LMMMOpOpDescMap.Add(Tokens.hvcalib, CmdStringOpDescMap[Tokens.hvcalib.ToString()]);
LMMMOpOpDescMap.Add(Tokens.hvset, CmdStringOpDescMap[Tokens.hvset.ToString()]);
// base strings used to and from the LMMM
LMMMOpStringMap = new System.Collections.Hashtable();
LMMMOpStringMap.Add(Tokens.broadcast, "NDAC Control");
LMMMOpStringMap.Add(Tokens.prep, "Duration = {0}" + eol + "Separation = {1}");
LMMMOpStringMap.Add(Tokens.arm, "Arm");
LMMMOpStringMap.Add(Tokens.go, "Go");
LMMMOpStringMap.Add(Tokens.assay, "***"); // chain of actions: loop of these strings, ["master\r\n"|"slave\r\n"][Feedback = 1\r\n"]"Duration = {0}\r\n";Separation = {1}\r\n"; followed by optional Arm, then Go
LMMMOpStringMap.Add(Tokens.cancel, "Cancel");
LMMMOpStringMap.Add(Tokens.quit, "**"); // shell command
LMMMOpStringMap.Add(Tokens.exit, "Exit");
LMMMOpStringMap.Add(Tokens.lm, "**"); // shell command
LMMMOpStringMap.Add(Tokens.leds, "Leds");
LMMMOpStringMap.Add(Tokens.lld, "LLD");
LMMMOpStringMap.Add(Tokens.cstatus, "cStatus"); // response prefix as well
LMMMOpStringMap.Add(Tokens.input, "input");
LMMMOpStringMap.Add(Tokens.debug, "Debug");
LMMMOpStringMap.Add(Tokens.rates, "Rates");
LMMMOpStringMap.Add(Tokens.power, "Power");
LMMMOpStringMap.Add(Tokens.hvset, "HVset"); // HV single command set op, but see next line for the plateau prep command
LMMMOpStringMap.Add(Tokens.hvprep, "HVset = {0}" + eol + "Duration = {1}"); // prep line
LMMMOpStringMap.Add(Tokens.hvread, "HVread");
LMMMOpStringMap.Add(Tokens.hvcalib, "HVcalib"); // / request calibration status
// yes this is hack for the six special response strings that need to be
// matched during non-data processing response string parsing.
NonDataResponses = new List <string>();
NonDataResponses.Add(((string)LMMMOpStringMap[Tokens.cstatus]).ToLower());
NonDataResponses.Add(((string)LMMMOpStringMap[Tokens.hvread]).ToLower());
NonDataResponses.Add(((string)LMMMOpStringMap[Tokens.hvcalib]).ToLower());
NonDataResponses.Add(((string)LMMMOpStringMap[Tokens.rates]).ToLower());
NonDataResponses.Add(((string)LMMMOpStringMap[Tokens.power]).ToLower());
NonDataResponses.Add(((string)LMMMOpStringMap[Tokens.lld]).ToLower());
}
/// <summary>
///
/// </summary>
internal void StartLMDAQServer(LMConnectionInfo lmc = null)
{
if (_SL == null)
{
LMMMNetComm lmn;
if (lmc == null)
{
// get the one associated with selected current detector, and if not available, then get the last one used
Detector det = IntegrationHelpers.GetCurrentAcquireDetector();
if (det.Id.SRType.IsSocketBasedLM())
lmc = (DetectorDefs.LMConnectionInfo)det.Id.FullConnInfo;
else
lmc = NC.App.LMBD.LastBestConnInfo();
}
lmn = lmc.NetComm;
_SL = new Server(lmn.Port, lmn.NumConnections, lmn.ReceiveBufferSize, lmn.subnetip);
_SL.Logger = collog;
LMMMComm.LMServer = _SL; // server root visible to COMM class
_SL.clientConnected += SL_ClientConnected;
_SL.DataReceived += SL_DataReceived;
}
if (_SL.IsRunning)
{
ctrllog.TraceEvent(LogLevels.Verbose, 123, "The LM DAQ Server is already running");
return;
}
else
{
_SL.Start();
}
CurState.State = DAQInstrState.Offline;
}
