public HistoHelper(ref Mu2e_FEB_client febClient, ushort accumulation_interval = 0xFFF, bool ext_mode = false)
{
this.febClient = febClient;
this.accumulation_interval = accumulation_interval;
Ext_mode = (ext_mode) ? (byte)0x10 : (byte)0x0;//if the mode is set to be qualified by an external gate, turn on the mode bit for the histo control register
histo_controls = new Mu2e_Register[base_controls.Length];
}
static void Main()
{
FEB1Histo = new List <HISTO_curve>();
Application.EnableVisualStyles();
Application.SetCompatibleTextRenderingDefault(false);
//myRun = new Run();
FEB1 = new Mu2e_FEB_client();
FEB1.name = "FEB1";
FEB1.host_name_prop = "172.16.10.10";
FEB2 = new Mu2e_FEB_client();
FEB2.name = "FEB2";
FEB2.host_name_prop = "DCRC3.fnal.gov";
//FEC = new Mu2e_FECC_client();
WC = new WC_client();
WC.name = "WC";
WC.host_name_prop = "FTBFWC03";
DAQ_server myDAQ_server = new DAQ_server();
myDAQ_server.StartRC();
myMain = new frmMain();
Application.Run(myMain);
}
static void Main()
{
FEB1Histo = new List <HISTO_curve>();
Application.EnableVisualStyles();
Application.SetCompatibleTextRenderingDefault(false);
//myRun = new Run();
FEB1 = new Mu2e_FEB_client();
FEB1.name = "FEB1";
//FEB1.host_name_prop = "128.143.196.217";
FEB1.host_name_prop = "131.225.52.177";
FEB2 = new Mu2e_FEB_client();
FEB2.name = "FEB2";
FEB2.host_name_prop = "DCRC5";
//FEC = new Mu2e_FECC_client();
/* For Mu2E Remove extra stuff */
WC = new WC_client();
WC.name = "WC";
WC.host_name_prop = "FTBFWC01.FNAL.GOV";
DAQ_server myDAQ_server = new DAQ_server(); // Does not appear to get used, DAQ_server doesn't even grab an IpEnd
myDAQ_server.StartRC();
myMain = new frmMain();
Application.Run(myMain);
}
static void Main()
{
FEB1Histo = new List <HISTO_curve>();
Application.EnableVisualStyles();
Application.SetCompatibleTextRenderingDefault(false);
//myRun = new Run();
FEB1 = new Mu2e_FEB_client();
FEB1.name = "FEB1";
//FEB1.host_name_prop = "131.225.52.181";
//FEB1.host_name_prop = "128.143.196.218";
FEB1.host_name_prop = "128.143.196.54";
//FEB1.host_name_prop = "131.225.52.177";
FEB2 = new Mu2e_FEB_client();
FEB2.name = "FEB2";
FEB2.host_name_prop = "DCRC5";
//FEC = new Mu2e_FECC_client();
WC = new WC_client();
WC.name = "WC";
WC.host_name_prop = "FTBFWC01.FNAL.GOV";
DAQ_server myDAQ_server = new DAQ_server();
myDAQ_server.StartRC();
myMain = new frmMain();
Application.Run(myMain);
}
//To just read trace data from the FEB and work only in memory, returns true if able to parse, false if not
public static bool ReadFeb(ref Mu2e_FEB_client feb, ref SpillData spill, out long lret)
{
source_name = feb.name;
if (feb.TNETSocket.Available > 0)
{
byte[] junk = new byte[feb.TNETSocket.Available];
feb.stream.Read(junk, 0, feb.TNETSocket.Available);
}
lret = 0;
byte[] mem_buff;
byte[] b = PP.GetBytes("RDB 1\r\n"); //get the spill header (and 1 word) & reset read pointers
byte[] hdr_buf = new byte[18];
long spillwrdcnt = 0; //spill word count will be the total spill count for the FEB (which means BOTH FPGAs)
feb.TNETSocket.Send(b);
Thread.Sleep(10);
if (feb.TNETSocket.Available > 0) //if we can snag the wordcount from the spill header, then we know how much we should be reading
{
feb.TNETSocket.Receive(hdr_buf);
spillwrdcnt = (hdr_buf[0] * 256 * 256 * 256 + //spillwrdcnt is how many words there are for ALL fpgas in a given spill
hdr_buf[1] * 256 * 256 +
hdr_buf[2] * 256 +
hdr_buf[3]);
mem_buff = new byte[spillwrdcnt * 2]; //each word = 2 bytes, we are going to allocate a buffer in memory to read the FEB data into that is the correct size.
int bytesread = 0;
int bytesleft = (int)spillwrdcnt * 2;
try
{
b = PP.GetBytes("RDB\r\n");
feb.TNETSocket.Send(b);
Thread.Sleep(10);
do
{
int bytes_now = feb.stream.Read(mem_buff, bytesread, feb.TNETSocket.Available);
bytesread += bytes_now;
bytesleft -= bytes_now;
Thread.Sleep(100);
} while (feb.stream.DataAvailable);
lret = bytesread;
}
catch (System.IO.IOException)
{
feb.Close(); //IO exception thrown if socket was forcibly closed by FEB, so lets tell the C# FEB client it is closed
} //something went wrong skip spill
spill = new SpillData();
bool parse_ok = spill.ParseInput(mem_buff);
return(parse_ok);
}
else
{
return(false);
}
}
public HistoHelper(ref Mu2e_FEB_client febClient, ushort accumulation_interval = 0xFFF, bool ext_mode = false)
{
this.febClient = febClient;
this.accumulation_interval = accumulation_interval;
Ext_mode = (ext_mode) ? (byte)0x10 : (byte)0x0; //if the mode is set to be qualified by an external gate, turn on the mode bit for the histo control register
histo_controls = new Mu2e_Register[base_addrs.Length]; //(base_addrs.Length * 4) - 4]; //*4 for the 4 fpgas, -4 because 0x311 is a broadcast to all fpga histo control registers
write_regs = new Mu2e_Register[write_addrs.Length];
GetRegisters();
}
static void Main()
{
FEB1Histo = new List <HISTO_curve>();
Application.EnableVisualStyles();
Application.SetCompatibleTextRenderingDefault(false);
//myRun = new Run();
FEB1 = new Mu2e_FEB_client
{
name = "FEB1",
//host_name_prop = "131.225.52.181";
//host_name_prop = "128.143.196.218";
host_name_prop = "128.143.196.58"
//host_name_prop = "131.225.52.177";
//host_name_prop = "crvfeb01.fnal.gov"
//host_name_prop = "131.225.176.32"
//host_name_prop = "131.225.52.182"
};
//FEB2 = new Mu2e_FEB_client
//{
// name = "FEB2",
// //host_name_prop = "DCRC5";
// host_name_prop = "crvfeb02.fnal.gov"
// //host_name_prop = "131.225.176.34"
// //host_name_prop = "131.225.52.181"
//};
//FEC = new Mu2e_FECC_client();
//WC = new WC_client()
//{
// host_name_prop = "FTBFWC01.FNAL.GOV",
// name = "WC"
//};
//DAQ_server myDAQ_server = new DAQ_server();
//myDAQ_server.StartRC();
myMain = new frmMain();
Application.Run(myMain);
}
//To save trace data (from test beam spills) to file
public static void ReadFeb(ref Mu2e_FEB_client feb, /*TcpClient feb_client Socket feb_socket,*/ out long lret) //out List<byte> buf,
{
lret = 0;
//Socket feb_socket = feb.TNETSocket;
//NetworkStream feb_stream = feb.stream;
source_name = feb.name;
//PP.myMain.SpillTimer.Enabled = false;
//PP.myRun.ACTIVE = false; //Halt the status queries to the boards (single socket atm, so we cannot get data and status concurrently)
if (feb.TNETSocket.Available > 0)
{
byte[] junk = new byte[feb.TNETSocket.Available];
feb.stream.Read(junk, 0, feb.TNETSocket.Available);
}
time_start = DateTime.Now;
byte[] mem_buff;
byte[] b = PP.GetBytes("RDB 1\r\n"); //get the spill header (and 1 word) & reset read pointers
byte[] hdr_buf = new byte[18];
long spillwrdcnt = 0; //spill word count will be the total spill count for the FEB (which means BOTH FPGAs)
feb.TNETSocket.Send(b);
Thread.Sleep(50);
if (feb.TNETSocket.Available > 0) //if we can snag the wordcount from the spill header, then we know how much we should be reading
{
PP.myRun.READING = true;
Console.WriteLine("+ READ");
feb.TNETSocket.Receive(hdr_buf);
spillwrdcnt = (hdr_buf[0] * 256 * 256 * 256 + //spillwrdcnt is how many words there are for ALL fpgas in a given spill
hdr_buf[1] * 256 * 256 +
hdr_buf[2] * 256 +
hdr_buf[3]);
mem_buff = new byte[spillwrdcnt * 2]; //each word = 2 bytes, we are going to allocate a buffer in memory to read the FEB data into that is the correct size.
int bytesread = 0;
int bytesleft = (int)spillwrdcnt * 2;
try
{
b = PP.GetBytes("RDB\r\n");
feb.TNETSocket.Send(b);
Thread.Sleep(100);
int readattempts = 0;
do
{
int bytes_now = feb.stream.Read(mem_buff, bytesread, feb.TNETSocket.Available);
bytesread += bytes_now;
bytesleft -= bytes_now;
if (bytes_now == 0)
{
readattempts++;
}
else
{
readattempts = 0;
}
Console.WriteLine(" READ " + readattempts);
//Console.WriteLine(source_name + " got " + bytesread + " / " + spillwrdcnt * 2);
Thread.Sleep(100);
} while (feb.stream.DataAvailable || (bytesleft > 0 && readattempts < 3));
lret = bytesread;
}
catch (System.IO.IOException)
{
PP.myRun.UpdateStatus(feb.name + " took too long to respond, continuing.");
} //something went wrong skip spill
TimeSpan elapsed = DateTime.Now.Subtract(time_start);
PP.myRun.UpdateStatus(source_name + " read: " + bytesread.ToString() + " bytes out of " + (spillwrdcnt * 2).ToString() + " bytes in " + elapsed.TotalMilliseconds + " ms");
time_read_done = DateTime.Now;
PP.myRun.READING = false;
Console.WriteLine("- READ");
if (PP.myRun.validateParse)
{
SpillData new_spill = new SpillData();
bool parse_ok = new_spill.ParseInput(mem_buff);
if (parse_ok)
{
if (PP.myRun != null)
{
if (PP.myRun.SaveAscii)
{
Thread save = new Thread(() => Save(new_spill));
save.Start();
}
else
{
string savename = feb.name;
Thread save = new Thread(() => Save(mem_buff, savename)); //Spawn a thread that will take care of writing the data to file
save.Start();
}
}
}
else //if it fails to parse, don't bother trying to save the spill, but notify the user
{
System.Console.WriteLine(source_name + " failed to parse! Skipping save!"); //PP.myRun.UpdateStatus(source_name + " failed to parse! Skipping save!");
}
}
else
{
if (PP.myRun != null)
{
if (PP.myRun.SaveAscii)
{
SpillData new_spill = new SpillData();
bool parse_ok = new_spill.ParseInput(mem_buff);
Thread save = new Thread(() => Save(new_spill));
save.Start();
}
else
{
string savename = feb.name;
Thread save = new Thread(() => Save(mem_buff, savename)); //Spawn a thread that will take care of writing the data to file
save.Start();
}
}
}
}
////SpillData new_spill = new SpillData();
////bool parse_ok = new_spill.ParseInput(mem_buff/*sock_buf*/);
//if (true)//(parse_ok)
//{
// //PP.myRun.Spills.AddLast(new_spill);
// //if (PP.myRun.Spills.Count > 2)
// //{
// // if (PP.myRun.Spills.First.Value.IsDisplayed) { PP.myRun.Spills.Remove(PP.myRun.Spills.First.Next); }
// // else { PP.myRun.Spills.RemoveFirst(); }
// //}
//}
//else
//{ }
//PP.myMain.SpillTimer.Enabled = true;
}
public void ChangeClient(Mu2e_FEB_client feb_client)
{
feb = feb_client;
}
public CurrentMeasurements(Mu2e_FEB_client feb_client, string _filename)
{
feb = feb_client;
filename = _filename;
currentMeasurements = new ConcurrentDictionary <int, double>();
}
