Add Nested Spelling, Remove wheelchair

TactileCalibration.prm

 Visualize:Property%20Sets matrix VisPropertySets= 0 1 // row titles are properties in the form "SRCD.Left", columns are property sets
-System:Version matrix OperatorVersion= { Framework Revision Build Config Protocol } 1 3.6%20BETA.5570.5 5570.5,%202016-10-12T19:27:33Z MSVC-17.0.61030.0-AMD64,%20release,%202016-10-16T14:03:14Z,%20user@user-PC USE_DYNAMIC_CRT:OFF%20USE_OPENMP:ON%20USE_PRECOMPILED_HEADERS:ON%20USE_ASSERTS_IN_RELEASE_BUILDS:OFF%20USE_EXTERNAL_QT:OFF 2.3 // operator module version information (noedit)(readonly)
-System:Protocol int AutoConfig= 1 1 0 1 // Use AutoConfig protocol extension (boolean)
-System:Protocol int OperatorBackLink= 1 1 0 1 // Send final state and signal information to Operator (boolean)
-System:Core%20Connections string OperatorIP= 127.0.0.1 127.0.0.1 % % // the Operator module's IP (noedit)(readonly)
+System:Configuration matrix OperatorVersion= { Framework Revision Build } 1 3.0.5 % Jun%20%203%202013%2011:41:59 // operator module version information(readonly)
+System:Additional%20Connections int OperatorBackLink= 1 1 0 1 // Send final state and signal information to Operator (boolean)(readonly)
+Source:Signal%20Properties:DataIOFilter int SourceCh= 12 16 1 % // number of digitized and stored channels
+Source:Signal%20Properties:DataIOFilter int SampleBlockSize= 8 32 1 % // number of samples transmitted at a time
+Source:Signal%20Properties:DataIOFilter int SamplingRate= 512 256Hz 1 % // sample rate
+Source:Signal%20Properties:DataIOFilter list ChannelNames= 12 Fz Fc1 Fc2 C3 Cz C4 P3 Pz P4 O1 Oz O2 // list of channel names
+Source:Signal%20Properties:DataIOFilter floatlist SourceChOffset= 12 0 0 0 0 0 0 0 0 0 0 0 0 0 % % // Offset for channels in A/D units
+Source:Signal%20Properties:DataIOFilter floatlist SourceChGain= 12 0.033 0.033 0.033 0.033 0.033 0.033 0.033 0.033 0.033 0.033 0.033 0.033 0.003 % % // gain for each channel (A/D units -> muV)
+Storage:Data%20Location:DataIOFilter string DataDirectory= ../data/WheelchairTraining ..\data % % // path to top level data directory (directory)
+Storage:Session:DataIOFilter string SubjectName= WT-tacCalib Name % % // subject alias
+Storage:Session:DataIOFilter string SubjectSession= 001 001 % % // three-digit session number
+Storage:Session:DataIOFilter string SubjectRun= 00 00 % % // two-digit run number
+Storage:Documentation:DataIOFilter string ID_System= % // BCI2000 System Code
+Storage:Documentation:DataIOFilter string ID_Amp= % // BCI2000 Amp Code
+Storage:Documentation:DataIOFilter string ID_Montage= % // BCI2000 Cap Montage Code
+Visualize:Timing:DataIOFilter int VisualizeTiming= 0 1 0 1 // visualize system timing (0=no, 1=yes) (boolean)
+Visualize:Source%20Signal:DataIOFilter int VisualizeSource= 1 1 0 1 // visualize raw brain signal (0=no, 1=yes) (boolean)
+Visualize:Source%20Signal:DataIOFilter int VisualizeSourceDecimation= 1 auto % % // decimation factor for raw brain signal
+Visualize:Source%20Signal:DataIOFilter int VisualizeSourceBufferSize= auto auto % % // number of blocks to aggregate before sending to operator
+Visualize:Source%20Signal:DataIOFilter int VisualizeSourceTime= 2s 2s 0 % // how much time in Source visualization
+Visualize:Source%20Signal:DataIOFilter int SourceMin= -100muV -100muV % % // raw signal vis Min Value
+Visualize:Source%20Signal:DataIOFilter int SourceMax= 100muV 100muV % % // raw signal vis Max Value
+Source:gUSBampADC intlist SourceChList= 0 0 1 128 // list of channels to digitize
+Source:gUSBampADC intlist SourceChDevices= 1 12 16 1 17 // number of digitized channels per device
+Source:gUSBampADC int NumBuffers= 2 1 2 32 // number of software buffers to use
+Source:gUSBampADC string DeviceIDMaster= auto // deviceID for the device whose SYNC goes to the slaves
+Source:gUSBampADC int FilterEnabled= 1 1 0 1 // Enable pass band filter (0=no, 1=yes)
+Source:gUSBampADC float FilterHighPass= 0.1 0.1 0 50 // high pass filter for pass band
+Source:gUSBampADC float FilterLowPass= 60 60 0 4000 // low pass filter for pass band
+Source:gUSBampADC int FilterModelOrder= 8 8 1 12 // filter model order for pass band
+Source:gUSBampADC int FilterType= 1 1 1 2 // filter type for pass band (1=BUTTERWORTH, 2=CHEBYSHEV)
+Source:gUSBampADC int NotchEnabled= 1 1 0 1 // Enable notch (0=no, 1=yes)
+Source:gUSBampADC float NotchHighPass= 48 58 0 70 // high pass filter for notch filter
+Source:gUSBampADC float NotchLowPass= 52 62 0 4000 // low pass filter for notch filter
+Source:gUSBampADC int NotchModelOrder= 4 4 1 10 // filter model order for notch filter
+Source:gUSBampADC int NotchType= 1 1 1 2 // filter type for pass band (1=CHEBYSHEV, 2=BUTTERWORTH)
+Source:gUSBampADC list DeviceIDs= 1 auto // list of USBamps to be used (or auto)
+Source:gUSBampADC int DigitalInput= 0 0 0 1 // enable digital input:  0: false, 1: true (enumeration)
+Source:gUSBampADC int DigitalOutput= 0 0 0 1 // enable digital output on block acquisition (boolean)
+Source:gUSBampADC string DigitalOutputEx= % // expression for output on digital output 2 (expression)
+Source:gUSBampADC int SignalType= 0 0 0 1 // numeric type of output signal:  0: int16, 1: float32 (enumeration)
+Source:gUSBampADC int AcquisitionMode= 0 0 0 2 // data acquisition mode:  0: analog signal acquisition, 1: calibration, 2: impedance (enumeration)
+Source:gUSBampADC int CommonGround= 1 0 0 1 // internally connect GNDs from all blocks:  0: false, 1: true (enumeration)
+Source:gUSBampADC int CommonReference= 1 0 0 1 // internally connect Refs from all blocks:  0: false, 1: true (enumeration)
+Storage:BCI2000FileWriter string FileFormat= dat // format of data file (readonly)
+Storage:Documentation:BCI2000FileWriter string StorageTime= % // time of beginning of data storage
+Source:Alignment:AlignmentFilter int AlignChannels= 1 0 0 1 // align channels in time (0=no, 1=yes)
+Source:Alignment:AlignmentFilter floatlist SourceChTimeOffset= 0 0 % % // time offsets for all source channels (may be empty)
+Source:Online%20Processing:TransmissionFilter list TransmitChList= 12 1 2 3 4 5 6 7 8 9 10 11 12 // list of transmitted channels: Channel names may contain * and ? wildcards,  and character ranges enclosed in []; wildcard patterns may be negated by an exclamation mark.  Ranges of channels may be specified using : or - to separate begin from end.
+System:Additional%20Connections:EventLink int EventLink= 1 1 0 1 // Send events from Operator to Source module (boolean)(readonly)
+Storage:Data%20Location:RunManager string DataFile= $%7bSubjectName%7d$%7bSubjectSession%7d/$%7bSubjectName%7dS$%7bSubjectSession%7dR$%7bSubjectRun%7d.$%7bFileFormat%7d // name of data file relative to DataDirectory
+System:Core%20Connections string OperatorIP= 127.0.0.1 127.0.0.1 % % // the Operator module's IP(readonly)
+System:Core%20Connections string SignalSourcePort= 49242 4200 1024 65535 // the SignalSource module's listening port(readonly)
+System:Core%20Connections string SignalSourceIP= 127.0.0.1 127.0.0.1 % % // the SignalSource module's listening IP(readonly)
+System:Configuration matrix SignalSourceVersion= { Framework Revision Build } 1 3.0.5 % Jun%20%203%202013%2011:41:59 // SignalSource version information(readonly)
+System:Configuration matrix SignalSourceFilterChain= 8 { Filter%20Name Position%20String } DataIOFilter 0 gUSBampADC 1 GDFFileWriter 1 EDFFileWriter 1 BCI2000FileWriter 1 NullFileWriter 1 AlignmentFilter 1.1 TransmissionFilter 1.2 // SignalSource filter chain(readonly)
+Visualize:Processing%20Stages int VisualizeAlignmentFilter= 0 0 0 1 // Visualize AlignmentFilter output (boolean)
+Visualize:Processing%20Stages int VisualizeTransmissionFilter= 0 0 0 1 // Visualize TransmissionFilter output (boolean)
+Filtering:SpatialFilter int SpatialFilterType= 0 2 0 3 // spatial filter type 0: none, 1: full matrix, 2: sparse matrix, 3: common average reference (CAR) (enumeration)
+Filtering:SpatialFilter:SpatialFilter matrix SpatialFilter= 4 4 1 0 0 0 0 1 0 0 0 0 1 0 0 0 0 1 0 % % // columns represent input channels, rows represent output channels
+Filtering:SpatialFilter:SpatialFilter intlist SpatialFilterCAROutput= 0 // when using CAR filter type: list of output channels, or empty for all channels
+Filtering:SpatialFilter:SpatialFilter int SpatialFilterMissingChannels= 1 0 0 1 // how to handle missing channels 0: ignore, 1: report error (enumeration)
+Filtering:P3TemporalFilter int EpochLength= 800ms 500ms 0 % // Length of data epoch from stimulus onset
+Filtering:P3TemporalFilter int EpochsToAverage= 10 1 0 % // Number of epochs to average
+Filtering:P3TemporalFilter int SingleEpochMode= 0 0 0 1 // Report result after each epoch (boolean)
+Visualize:P3TemporalFilter int VisualizeP3TemporalFiltering= 0 0 0 1 // Visualize averaged epochs (0=no 1=yes) (boolean)
+Visualize:P3TemporalFilter int TargetERPChannel= 1 1 % % // Input channel for which to display ERP data
+Filtering:LinearClassifier matrix Classifier= 2 { input%20channel input%20element%20(bin) output%20channel weight } 1 4 1 1 1 6 2 1 // Linear classification matrix in sparse representation
+System:Core%20Connections string SignalProcessingPort= 49243 4200 1024 65535 // the SignalProcessing module's listening port(readonly)
+System:Core%20Connections string SignalProcessingIP= 127.0.0.1 127.0.0.1 % % // the SignalProcessing module's listening IP(readonly)
+System:Configuration matrix SignalProcessingVersion= { Framework Revision Build } 1 3.0.5 % Jun%20%203%202013%2011:41:59 // SignalProcessing version information(readonly)
+System:Configuration matrix SignalProcessingFilterChain= 3 { Filter%20Name Position%20String } SpatialFilter 2.A P3TemporalFilter 2.B LinearClassifier 2.C // SignalProcessing filter chain(readonly)
+Visualize:Processing%20Stages int VisualizeSpatialFilter= 0 0 0 1 // Visualize SpatialFilter output (boolean)
+Visualize:Processing%20Stages int VisualizeLinearClassifier= 0 0 0 1 // Visualize LinearClassifier output (boolean)
 Connector:ConnectorInput list ConnectorInputFilter= 0 // list of state names or signal elements to allow, "*" for any, signal elements as in "Signal(1,0)"
 Connector:ConnectorInput string ConnectorInputAddress= % localhost:20320 % % // IP address/port to read from, e.g. localhost:20320
 Application:Application%20Window:ApplicationWindow int WindowWidth= 640 640 0 % // width of Application window
 Application:Application%20Window:ApplicationWindow int WindowHeight= 480 480 0 % // height of Application window
 Application:Application%20Window:ApplicationWindow int WindowLeft= 0 0 % % // screen coordinate of Application window's left edge
-Application:Application%20Window:ApplicationWindow int WindowTop= 0 0 % % // screen coordinate of Application window's top edge
+Application:Application%20Window:ApplicationWindow int WindowTop= 600 0 % % // screen coordinate of Application window's top edge
 Application:Application%20Window:ApplicationWindow string WindowBackgroundColor= 0x000000 0x505050 % % // Application window background color (color)
 Visualize:Application%20Window:ApplicationWindow int VisualizeApplicationWindow= 0 0 0 1 // Display miniature copy of Application window (boolean)
 Visualize:Application%20Window:ApplicationWindow int AppWindowSpatialDecimation= 8 8 1 % // Application window decimation (shrinking) factor
 Visualize:Application%20Window:ApplicationWindow int AppWindowTemporalDecimation= 4 16 1 % // Application window time decimation factor
-Application:AudioPlayback:ApplicationWindow float AudioPlaybackRate= auto // audio playback sampling rate
-Application:AudioPlayback:ApplicationWindow int AudioPlaybackChannels= auto // number of playback output channels
-Application:AudioPlayback:ApplicationWindow float AudioPlaybackBufferDuration= auto // duration of playback buffer
 Visualize:Application%20Log:ApplicationBase int ShowAppLog= 1 0 0 1 // Show application log window (boolean)
 Application:Sequencing:StimulusTask float PreRunDuration= 2s 1 0 % // pause preceding first sequence
 Application:Sequencing:StimulusTask float PostRunDuration= 2s 0 0 % // pause following last sequence
 Application:Audio%20Stimuli:P3SpellerTask int AudioStimuliOn= 0 0 0 1 // Audio Stimuli Mode (0=no, 1=yes) (boolean)
 Application:Audio%20Stimuli:P3SpellerTask matrix AudioStimuliRowsFiles= 6 { filename } sounds/1.wav sounds/2.wav sounds/3.wav sounds/4.wav sounds/5.wav sounds/6.wav // audio stimuli rows files 
 Application:Audio%20Stimuli:P3SpellerTask matrix AudioStimuliColsFiles= 6 { filename } sounds/a.wav sounds/b.wav sounds/c.wav sounds/d.wav sounds/e.wav sounds/f.wav // audio stimuli column files 
-Application:Speller%20Targets:P3SpellerTask floatlist TargetWidth= 1 40 0 0 100 // target width in percent of screen width
+Application:Speller%20Targets:P3SpellerTask floatlist TargetWidth= 1 16 0 0 100 // target width in percent of screen width
 Application:Speller%20Targets:P3SpellerTask floatlist TargetHeight= 1 14 0 0 100 // target height in percent of screen height
 Application:Speller%20Targets:P3SpellerTask floatlist TargetTextHeight= 1 12 0 0 100 // height of target labels in percent of screen height
 Application:Speller%20Targets:P3SpellerTask stringlist BackgroundColor= 1 0x00000000 0x505050 % % // target background color (color)
 Application:Speller%20Targets:P3SpellerTask intlist IconHighlightMode= 1 1 1 0 4 // icon highlight method 0: Show/Hide, 1: Intensify, 2: Grayscale, 3: Invert, 4: Dim    (enumeration)
 Application:Speller%20Targets:P3SpellerTask floatlist IconHighlightFactor= 1 0.5 0.5 0 % // scale factor for highlighted icon pixel values
 Application:Speller:P3SpellerTask int FirstActiveMenu= 1 1 1 % // Index of first active menu
-Storage:Data%20Location:DataIOFilter string DataDirectory= ../data/WheelchairTraining ..\data % % // path to top level data directory (directory)
-Application:Speller:P3SpellerTask float StatusBarSize= 25 0 0 100 // size of status bar in percent of screen height
-Storage:Session:DataIOFilter string SubjectName= WT-tacCalib Name % % // subject alias
+Application:Speller:P3SpellerTask float StatusBarSize= 30 0 0 100 // size of status bar in percent of screen height
 Application:Speller:P3SpellerTask float StatusBarTextHeight= 12 0 0 100 // size of status bar text in percent of screen height
-Storage:Session:DataIOFilter string SubjectSession= 001 001 % % // three-digit session number
 Application:Speller:P3SpellerTask string TextToSpell= LRFBLRFB // character or string to spell in offline copy mode
-Storage:Session:DataIOFilter string SubjectRun= 00 00 % % // two-digit run number
 Application:Speller:P3SpellerTask string TextResult= % // user spelling result
-Storage:Documentation:DataIOFilter string ID_System= % // BCI2000 System Code
 Application:Speller:P3SpellerTask int TestMode= 1 0 0 1 // select targets by clicking on their associated stimuli (0=no, 1=yes) (boolean)
-Storage:Documentation:DataIOFilter string ID_Amp= % // BCI2000 Amp Code
 Application:Speller:P3SpellerTask string DestinationAddress= % // network address for speller output in IP:port format
-Storage:Documentation:DataIOFilter string ID_Montage= % // BCI2000 Cap Montage Code
 Application:Text%20Window:P3SpellerTask int TextWindowEnabled= 0 0 0 1 // Show Text Window (0=no, 1=yes) (boolean)
-Visualize:Timing:DataIOFilter int VisualizeTiming= 0 1 0 1 // visualize system timing (0=no, 1=yes) (boolean)
 Application:Text%20Window:P3SpellerTask int TextWindowLeft= 600 0 0 % // Text Window X location
-Visualize:Source%20Signal:DataIOFilter int VisualizeSource= 1 1 0 1 // visualize raw brain signal (0=no, 1=yes) (boolean)
 Application:Text%20Window:P3SpellerTask int TextWindowTop= 5 0 0 % // Text Window Y location
-Visualize:Source%20Signal:DataIOFilter int VisualizeSourceDecimation= 1 auto % % // decimation factor for raw brain signal
 Application:Text%20Window:P3SpellerTask int TextWindowWidth= 512 512 0 % // Text Window Width
-Visualize:Source%20Signal:DataIOFilter int VisualizeSourceBufferSize= auto auto % % // number of blocks to aggregate before sending to operator
 Application:Text%20Window:P3SpellerTask int TextWindowHeight= 512 512 0 % // Text Window Height
-Visualize:Source%20Signal:DataIOFilter int VisualizeSourceTime= 2s 2s 0 % // how much time in Source visualization
 Application:Text%20Window:P3SpellerTask string TextWindowFontName= Courier // Text Window Font Name
-Visualize:Source%20Signal:DataIOFilter int SourceMin= -100muV // raw signal vis Min Value
 Application:Text%20Window:P3SpellerTask int TextWindowFontSize= 10 4 1 % // Text Window Font Size
-Visualize:Source%20Signal:DataIOFilter int SourceMax= 100muV // raw signal vis Max Value
 Application:Text%20Window:P3SpellerTask string TextWindowFilePath= % // Path for Saved Text File (directory)
-Source:gUSBampADC int SamplingRate= 256 256Hz % % // the signal sampling rate
 Application:Human%20Interface%20Devices:KeystrokeFilter string KeystrokeStateName= % // State to be translated into keystrokes (0-F), empty for off
-Source:gUSBampADC int SampleBlockSize= 8 1 % % // number of samples per block
 Application:Human%20Interface%20Devices:KeystrokeFilter string KeystrokeExpression= % // Expression that evaluates to a virtual keycode, empty for off
-Source:gUSBampADC int SourceCh= 8 auto 0 % // number of digitized channels total
 Application:Human%20Interface%20Devices:KeystrokeFilter string KeystrokeExpressionOnStartRun= % // Expression that initializes expression variables on StartRun
-Source:gUSBampADC list SourceChGain= 8 1 1 1 1 1 1 1 1 
 Connector:ConnectorOutput string ConnectorOutputAddress= localhost:5001 localhost:20321 % % // one or more IP:Port combinations, e.g. localhost:20321
-Source:gUSBampADC list SourceChOffset= 8 0 0 0 0 0 0 0 0 
+Application:GazeMonitor:GazeMonitorFilter int VisualizeGazeMonitorFilter= 0 0 0 1 // Visualize the gaze data on the app visualization (boolean)
+Application:GazeMonitor:GazeMonitorFilter int EnforceFixation= 0 0 0 1 // Enforce a fixation point on the screen (boolean)
+Application:GazeMonitor:GazeMonitorFilter string FixationX= 0.5 0.5 % % // X coordinate of fixation center - 0.0 to 1.0 (expression)
+Application:GazeMonitor:GazeMonitorFilter string FixationY= 0.5 0.5 % % // Y coordinate of fixation center - 0.0 to 1.0 (expression)
+Application:GazeMonitor:GazeMonitorFilter int ShowFixationZone= 0 0 0 1 // Show the legal fixation zone with a ring (boolean)
+Application:GazeMonitor:GazeMonitorFilter float BlinkTime= 100ms 100ms 0 % // Maximum allowed time for invalid eyes
+Application:GazeMonitor:GazeMonitorFilter float SaccadeTime= 100ms 100ms 0 % // Maximum allowed time for violating the fixation
+Application:GazeMonitor:GazeMonitorFilter float FixationRadius= 0.1 0.1 0.0 1.0 // Allowable distance from fixation center
+Application:GazeMonitor:GazeMonitorFilter string FixationImage= % // Image to render at fixation (inputfile)
+Application:GazeMonitor:GazeMonitorFilter string FixationViolationImage= % // Image to render at fixation when violated (inputfile)
+Application:GazeMonitor:GazeMonitorFilter string FixationViolationSound= % // Sound to play when fixation violated (inputfile)
+Application:GazeMonitor:GazeMonitorFilter float FixationImageSize= 0.04 0.04 0.01 1.0 // Size in percentage of screen height of the fixation image
+Application:GazeMonitor:GazeMonitorFilter int LogGazeInformation= 0 0 0 1 // Add Eyetracker information to applog (boolean)
 Application:Localization:Localization string Language= Default Default % % // Language for user messages
-Source:gUSBampADC list ChannelNames= 7 Fz Cz Pz T3 C3 C4 T4 
 Application:Localization:Localization matrix LocalizedStrings= { German } { TIME%20OUT%20!!! Waiting%20to%20start%20... Sleeping--Select%20SLEEP%20twice%20to%20resume Select%20SLEEP%20once%20more%20to%20resume Paused--Select%20PAUSE%20again%20to%20resume } Zeit%20abgelaufen! Warte%20... Angehalten:%20Zweimal%20SLEEP%20fur%20Weiter Angehalten:%20Noch%20einmal%20SLEEP%20fur%20Weiter Angehalten:%20Noch%20einmal%20PAUSE%20fur%20Weiter // Localized user messages
-Source:gUSBamp:Acquisition:gUSBampADC int AcquisitionMode= 0 0 0 2 // data acquisition mode:  0: analog signal acquisition, 1: calibration signal, 2: impedance measurement (enumeration)
-System string OperatorAddress= 127.0.0.1:4001 
-Source:gUSBamp:Acquisition:gUSBampADC int CommonGround= 1 0 0 1 // internally connect GNDs from all blocks:  0: false, 1: true (enumeration)
-Source:gUSBamp:Acquisition:gUSBampADC int CommonReference= 1 0 0 1 // internally connect Refs from all blocks:  0: false, 1: true (enumeration)
-System:Core%20Connections string ApplicationIP= 192.168.2.100 // (readonly)(noedit)
-System:Core%20Connections string ApplicationPort= 50135 // (readonly)(noedit)
-Source:gUSBamp:DigitalIO:gUSBampADC int EnableDigitalInput= 0 0 0 1 // enable digital inputs (boolean)
-Source:gUSBamp:DigitalIO:gUSBampADC int EnableDigitalOutput= 0 0 0 2 // enable digital output on block acquisition 0: off, 1: use expressions, 2: timing test (enumeration)
-System:Version matrix ApplicationVersion= { Framework Revision Build Config Protocol } 1 3.6%20BETA.5570.5 5570.5,%202016-10-12T19:27:33Z MSVC-17.0.61030.0-AMD64,%20release,%202016-10-16T14:03:14Z,%20user@user-PC USE_DYNAMIC_CRT:OFF%20USE_OPENMP:ON%20USE_PRECOMPILED_HEADERS:ON%20USE_ASSERTS_IN_RELEASE_BUILDS:OFF%20USE_EXTERNAL_QT:OFF%20Qt:5.3.2:C:/BCI2000.x64/build/CMakeFiles/extlib/qt-5.3.2/win32-amd64-msvc2012/bin/qmake.exe 2.3 // Application version information (noedit)(readonly)
-Source:gUSBamp:DigitalIO:gUSBampADC matrix DigitalOutputEx= 1 1 % // Matrix of Expressions for digital output
-System:Configuration matrix ApplicationFilterChain= 4 { Filter%20Name Position%20String } ConnectorInput 2.9999 P3SpellerTask 3 KeystrokeFilter 3.1 ConnectorOutput 3.9999 // Application filter chain (noedit)(readonly)
-Source:gUSBamp:Acquisition:gUSBampADC int DetectDataLoss= 0 0 0 1 // use gUSBamp counter mode to detect data loss (boolean)
-System:Configuration matrix Filters= 12 1 /3/ConnectorInput /3/P3SpellerTask /3/KeystrokeFilter /3/ConnectorOutput /1/DataIOFilter /1/gUSBampADC /1/BCI2000FileWriter /1/AlignmentFilter /1/TransmissionFilter /2/SpatialFilter /2/P3TemporalFilter /2/LinearClassifier // Filter Directory (noedit)(readonly)
-Source:gUSBamp:Acquisition:gUSBampADC int NumBuffers= 2 5 2 % // IO queue length
-Source:Buffering:gUSBampADC int SourceBufferSize= 2s 2s % % // size of data acquisition ring buffer (in blocks or seconds)
-Source:gUSBamp:Multiple%20Devices:gUSBampADC list DeviceIDs= 1 auto // list of USBamps to be used (or auto)
-Source:gUSBamp:Multiple%20Devices:gUSBampADC string DeviceIDMaster= auto // deviceID for the device whose SYNC goes to the slaves
-Source:gUSBamp:Multiple%20Devices:gUSBampADC intlist SourceChList= 0 // list of channels to digitize, in terms of physical inputs numbered across all devices
-Source:gUSBamp:Multiple%20Devices:gUSBampADC intlist SourceChDevices= 1 8 // number of digitized channels per device
-Source:gUSBamp:DSP:gUSBampADC int FilterEnabled= 1 1 0 1 // Enable pass band filter (0=no, 1=yes)
-Source:gUSBamp:DSP:gUSBampADC float FilterHighPass= 0.1 0.1 0 50 // high pass filter for pass band
-Source:gUSBamp:DSP:gUSBampADC float FilterLowPass= 60 60 0 4000 // low pass filter for pass band
-Source:gUSBamp:DSP:gUSBampADC int FilterModelOrder= 8 8 1 12 // filter model order for pass band
-Source:gUSBamp:DSP:gUSBampADC int FilterType= 1 1 1 2 // filter type for pass band (1=BUTTERWORTH, 2=CHEBYSHEV)
-Source:gUSBamp:DSP:gUSBampADC int NotchEnabled= 1 1 0 1 // Enable notch (0=no, 1=yes)
-Source:gUSBamp:DSP:gUSBampADC float NotchHighPass= 48 58 0 70 // high pass filter for notch filter
-Source:gUSBamp:DSP:gUSBampADC float NotchLowPass= 52 62 0 4000 // low pass filter for notch filter
-Source:gUSBamp:DSP:gUSBampADC int NotchModelOrder= 4 4 1 10 // filter model order for notch filter
-Source:gUSBamp:DSP:gUSBampADC int NotchType= 1 1 1 2 // filter type for pass band (1=CHEBYSHEV, 2=BUTTERWORTH)
-Storage:BCI2000FileWriter string FileFormat= dat // format of data file (readonly)
-Storage:Documentation:BCI2000FileWriter string StorageTime= % // time of beginning of data storage
-Source:Alignment:AlignmentFilter int AlignChannels= 1 0 0 1 // align channels in time (0=no, 1=yes)
-Source:Alignment:AlignmentFilter floatlist SourceChTimeOffset= 0 0 % % // time offsets for all source channels (may be empty)
-Source:Online%20Processing:TransmissionFilter list TransmitChList= 8 1 2 3 4 5 6 7 8 // list of transmitted channels: Channel names may contain * and ? wildcards,  and character ranges enclosed in []; wildcard patterns may be negated by prepending an exclamation mark.  Ranges of channels may be specified using : or - to separate begin from end.
-System:Protocol:EventLink int EventLink= 1 1 0 1 // Send events from Operator to Source module (boolean)
-Storage:Data%20Location:RunManager string DataFile= $%7bSubjectName%7d$%7bSubjectSession%7d/$%7bSubjectName%7dS$%7bSubjectSession%7dR$%7bSubjectRun%7d.$%7bFileFormat%7d // name of data file relative to DataDirectory
-System:Core%20Connections string SignalSourceIP= 192.168.2.100 // (readonly)(noedit)
-System:Core%20Connections string SignalSourcePort= 50141 // (readonly)(noedit)
-System:Version matrix SignalSourceVersion= { Framework Revision Build Config Protocol } 1 3.6%20BETA.5570.5 5570.5,%202016-10-12T19:27:33Z MSVC-17.0.61030.0-AMD64,%20release,%202016-10-16T14:03:14Z,%20user@user-PC USE_DYNAMIC_CRT:OFF%20USE_OPENMP:ON%20USE_PRECOMPILED_HEADERS:ON%20USE_ASSERTS_IN_RELEASE_BUILDS:OFF%20USE_EXTERNAL_QT:OFF 2.3 // SignalSource version information (noedit)(readonly)
-System:Configuration matrix SignalSourceFilterChain= 8 { Filter%20Name Position%20String } DataIOFilter 0 gUSBampADC 1 NullFileWriter 1 BCI2000FileWriter 1 EDFFileWriter 1 GDFFileWriter 1 AlignmentFilter 1.1 TransmissionFilter 1.2 // SignalSource filter chain (noedit)(readonly)
-Visualize:Processing%20Stages int VisualizeAlignmentFilter= 0 0 0 1 // Visualize AlignmentFilter output (boolean)
-Visualize:Processing%20Stages int VisualizeTransmissionFilter= 0 0 0 1 // Visualize TransmissionFilter output (boolean)
-Filtering:SpatialFilter int SpatialFilterType= 0 2 0 3 // spatial filter type 0: none, 1: full matrix, 2: sparse matrix, 3: common average reference (CAR) (enumeration)
-Filtering:SpatialFilter:SpatialFilter matrix SpatialFilter= 4 4 1 0 0 0 0 1 0 0 0 0 1 0 0 0 0 1 0 % % // columns represent input channels, rows represent output channels
-Filtering:SpatialFilter:SpatialFilter intlist SpatialFilterCAROutput= 0 // when using CAR filter type: list of output channels, or empty for all channels
-Filtering:SpatialFilter:SpatialFilter int SpatialFilterMissingChannels= 1 0 0 1 // how to handle missing channels 0: ignore, 1: report error (enumeration)
-Filtering:P3TemporalFilter int EpochLength= 800ms 500ms 0 % // Length of data epoch from stimulus onset
-Filtering:P3TemporalFilter int EpochsToAverage= 10 1 0 % // Number of epochs to average
-Filtering:P3TemporalFilter int SingleEpochMode= 0 0 0 1 // Report result after each epoch (boolean)
-Visualize:P3TemporalFilter int VisualizeP3TemporalFiltering= 0 0 0 1 // Visualize averaged epochs (0=no 1=yes) (boolean)
-Visualize:P3TemporalFilter int TargetERPChannel= 1 1 % % // Input channel for which to display ERP data
-Filtering:LinearClassifier matrix Classifier= 2 { input%20channel input%20element%20(bin) output%20channel weight } 1 4 1 1 1 6 2 1 // Linear classification matrix in sparse representation
-System:Core%20Connections string SignalProcessingIP= 192.168.2.100 // (readonly)(noedit)
-System:Core%20Connections string SignalProcessingPort= 50150 // (readonly)(noedit)
-System:Version matrix SignalProcessingVersion= { Framework Revision Build Config Protocol } 1 3.6%20BETA.5570.5 5570.5,%202016-10-12T19:27:33Z MSVC-17.0.61030.0-AMD64,%20release,%202016-10-16T14:03:14Z,%20user@user-PC USE_DYNAMIC_CRT:OFF%20USE_OPENMP:ON%20USE_PRECOMPILED_HEADERS:ON%20USE_ASSERTS_IN_RELEASE_BUILDS:OFF%20USE_EXTERNAL_QT:OFF 2.3 // SignalProcessing version information (noedit)(readonly)
-System:Configuration matrix SignalProcessingFilterChain= 3 { Filter%20Name Position%20String } SpatialFilter 2.A P3TemporalFilter 2.B LinearClassifier 2.C // SignalProcessing filter chain (noedit)(readonly)
-Visualize:Processing%20Stages int VisualizeSpatialFilter= 0 0 0 1 // Visualize SpatialFilter output (boolean)
-Visualize:Processing%20Stages int VisualizeLinearClassifier= 0 0 0 1 // Visualize LinearClassifier output (boolean)
-System:Randomization int RandomSeed= 13310 0 % % // seed for the BCI2000 pseudo random number generator (readonly)
-System:Randomization int RandomizationWarning= 1 1 0 1 // warn if subsequent Runs have identical RandomSeed value (boolean)
-System:State%20Vector int StateVectorLength= 37 16 % % // length of the state vector in bytes (noedit)(readonly)
+System:Core%20Connections string ApplicationPort= 49244 4200 1024 65535 // the Application module's listening port(readonly)
+System:Core%20Connections string ApplicationIP= 127.0.0.1 127.0.0.1 % % // the Application module's listening IP(readonly)
+System:Configuration matrix ApplicationVersion= { Framework Revision Build } 1 3.0.5 % Jun%20%203%202013%2011:41:59 // Application version information(readonly)
+System:Configuration matrix ApplicationFilterChain= 5 { Filter%20Name Position%20String } ConnectorInput 2.9999 P3SpellerTask 3 KeystrokeFilter 3.1 ConnectorOutput 3.9999 GazeMonitorFilter 3.A // Application filter chain(readonly)
+System:Randomization int RandomSeed= 31788 0 % % // seed for the BCI2000 pseudo random number generator(readonly)
+System:Randomization int RandomizationWarning= 1 1 0 1 // warn if subsequent Runs have identical RandomSeed value (boolean)(readonly)
+System:State%20Vector int StateVectorLength= 15 16 % % // length of the state vector in bytes(readonly)

WheelchairAdapter.py

-# imports
-from socket import *
-import threading
-import queue
-import time
-
-# connect to BCI2000 in a new thread
-class BCI2000ReceiverThread(threading.Thread):
-	def __init__(self, id,  phaseInSequenceQueue,  StimulusCodeQueue):
-		threading.Thread.__init__(self, name="BCI2000ReceiverThread%d" % (id,))
-		self.phaseInSequenceQueue=phaseInSequenceQueue
-		self.StimulusCodeQueue=StimulusCodeQueue
-		self.running=True
-		self.firstData = True
-		self.repeat = 0
-		#udp settings
-		self.host = "localhost"
-		self.port = 5003		 # BCI2000
-		self.UNITY_PORT = 5002  # unity
-		self.FEATHER_PORT = 5001  # feather gui
-		self.go = True
-		self.buf = 1024
-		self.addr = (self.host,self.port)
-		#connect to udp socket
-		self.UDPSock = socket(AF_INET,SOCK_DGRAM)
-		self.UDPSock.bind(self.addr)   # BIND to LISTEN
-		print('%s initialized to %s at port %s' % (self.getName(), self.host,  self.port))
-		print('Relaying SelectedTargets to port -- %s ---' % self.UNITY_PORT)
-		self.relay_unity = socket(AF_INET,SOCK_DGRAM) # UDP RELAY TO UNITY
-		print('Relaying all to port -- %s ---' % self.FEATHER_PORT)
-		self.relay_feather = socket(AF_INET,SOCK_DGRAM) # UDP RELAY TO FEATHER
-
-	
-		
-	def kill(self):
-		self.running=False
-		log('%s terminated' % (self.getName()))
-	
-	def run(self):
-		# define a new contains method comparing strings
-		def contains(theString, theQueryValue):
-			return theString.find(theQueryValue) > -1
-			
-		while self.running:												
-			# try to receive from BCI2000 AppConnector
-			try:
-				self.data,self.addr = self.UDPSock.recvfrom(self.buf)
-				#print(self.data) #####
-				if self.firstData:
-					print ("UDP is receiving...")
-					self.firstData=0
-					
-				if "SelectedTarget 0" in self.data:
-					self.go = True
-				if "SelectedTarget" in self.data and "SelectedTarget 0" not in self.data and self.go == True:
-					print("Relaying Command to Unity: ", self.data)
-					self.relay_unity.sendto(self.data, (self.host, self.UNITY_PORT))
-					self.go = False
-
-				if contains(self.data, "PhaseInSequence"):
-				   phaseInSequence=int(self.data.replace('PhaseInSequence ',''))
-				   self.phaseInSequenceQueue.put(phaseInSequence)
-				   #print (phaseInSequence)
-				   
-				if contains(self.data, "StimulusCode "):
-					print("Relaying Command to TactileBCIfilter: ", self.data)
-					self.relay_feather.sendto(self.data, (self.host, self.FEATHER_PORT))
-			
-					StimulusCode=int(self.data.replace('StimulusCode ',''))
-					if not StimulusCode == 0 and self.repeat == 0:
-						self.repeat = 1
-						self.StimulusCodeQueue.put(StimulusCode)
-						self.Code = StimulusCode
-					elif StimulusCode == 0:
-						self.repeat = 0
-#						print (StimulusCode)
-
-			# wait a short time and try again
-			except error:
-				time.sleep(0.0001)
-				print('sleeping')
-				continue	   
-
-	# def run(self):
-		# a = 1
-
-	def returnProgramStatus(self):	
-		return self.running
-		
-		
-		###  M A I N	P R O G R A M M  ###	 
-
-# # initialize queue
-# phaseInSequenceQueue = queue.Queue()
-# StimulusCodeQueue = queue.Queue()
-
-# RunApplication = True
-
-# #start BCI2000ReceiverThread
-# BCI2000ReceiverThread1=BCI2000ReceiverThread(1, phaseInSequenceQueue,  StimulusCodeQueue)
-# BCI2000ReceiverThread1.start()
-
-
-

app.py

 import subprocess
 import configparser
 import os
-# import queue
-
-# own code:
-# from questionnaire import quest
-# from wheelchairAdapter import BCI2000ReceiverThread
 
 # TODO Eventuell updatefunktion über git pull mit einbauen!
 
 
         self.Bp300 = makeBtn(self, "P300 Klassifizierung", "orange", self.btn_p300)
 
-        self.BtacCopy = makeBtn(self, "Freies Buchstabieren", "lightblue", self.btn_tacCopy)
+        self.BtacCopy = makeBtn(self, "Freies Buchstabieren:\nTest", "lightblue", self.btn_tacCopy)
+        self.BtacCopyNested = makeBtn(self, "Freies Buchstabieren:\nKategorien", "lightyellow", self.btn_tacCopyNested)
         self.BvisCopy = makeBtn(self, "Freies Buchstabieren", "lightblue", self.btn_visCopy)
 
-        self.BtacSimul = makeBtn(self, "Rollstuhlsimulator", "lightyellow", self.btn_tacSimul)
-
-        # self.Bquest = makeBtnSmall(self, "Fragebogen", "green", self.btn_quest, TOP)
 
-        frame.rowconfigure((0,1), weight=1)  # make buttons stretch when
+        frame.rowconfigure((0,1), weight=1)  # make buttons stretch when # TODO Remove
         frame.columnconfigure((0,2), weight=1)  # when window is resized
         # TODO Hilfestellung nach jedem Button aufploppen lassen:
         # Was tun? Wo klicken? Welche File wo laden?
 
         self.pack_layout()
 
-    # 1. FILTER ##################################
+    # FILTER ##################################
     def btn_tacFilter(self):
         print('Starte TactileBCIFilter.exe')
         subprocess.Popen(config['PATH']['tactilebcifilter'] + r'\TactileBCIFilter.exe')
 
-    # 2. KALIBIERUNGEN ###########################
+    # KALIBRIERUNGEN ###########################
     def btn_tacCal(self):
         print('starte taktile Kalibrierung')
         subprocess.Popen([config['PATH']['bci2000'] + r'\prog\Operator.exe', '--OnConnect', '-LOAD PARAMETERFILE TactileCalibration.prm'])
         subprocess.Popen([config['PATH']['bci2000'] + r'\prog\P3SignalProcessing.exe', '127.0.0.1'])
         subprocess.Popen([config['PATH']['bci2000'] + r'\prog\P3Speller.exe', '127.0.0.1'])
 
-    # 3. P300 Classifier #########################
+    # P300 Classifier #########################
     def btn_p300(self):
         print('Starte P300Classifier.exe')
         subprocess.Popen(config['PATH']['bci2000'] + r'\tools\P300Classifier\P300Classifier.exe')
 
-    # 4. COPYSPELL     ###########################
+    # COPYSPELL     ###########################
     def btn_tacCopy(self):
         print('Starte taktilen Speller')
         subprocess.Popen([config['PATH']['bci2000'] + r'\prog\Operator.exe', '--OnConnect', '-LOAD PARAMETERFILE TactileCopy.prm'])
         subprocess.Popen([config['PATH']['bci2000'] + r'\prog\gUSBampSource.exe', '127.0.0.1'])
         subprocess.Popen([config['PATH']['bci2000'] + r'\prog\P3SignalProcessing.exe', '127.0.0.1'])
         subprocess.Popen([config['PATH']['bci2000'] + r'\prog\P3Speller.exe', '127.0.0.1'])
-    def btn_visCopy(self):
-        print('Starte visuellen Speller')
-        subprocess.Popen([config['PATH']['bci2000'] + r'\prog\Operator.exe', '--OnConnect', '-LOAD PARAMETERFILE gUSBamp_visual_freeSpeller.prm'])
+    def btn_tacCopyNested(self):
+        print('Starte taktilen Speller')  # TODO Prints rausnehmen
+        subprocess.Popen([config['PATH']['bci2000'] + r'\prog\Operator.exe', '--OnConnect', '-LOAD PARAMETERFILE TactileCopyNested.prm'])
         subprocess.Popen([config['PATH']['bci2000'] + r'\prog\gUSBampSource.exe', '127.0.0.1'])
         subprocess.Popen([config['PATH']['bci2000'] + r'\prog\P3SignalProcessing.exe', '127.0.0.1'])
         subprocess.Popen([config['PATH']['bci2000'] + r'\prog\P3Speller.exe', '127.0.0.1'])
-
-    # 5. WHEELCHAIR SIMULATOR     ###########################
-    def btn_tacSimul(self):
-        print('Starte Wheelchair Simulator')
-        # BCI2000ReceiverThread1.start()
-        subprocess.Popen(config['PATH']['wheelchairsimulator'] + r'\Wheels_Occlusion_AutoLog.exe')
-        subprocess.Popen([config['PATH']['bci2000'] + r'\prog\Operator.exe', '--OnConnect', '-LOAD PARAMETERFILE TactileDrive.prm'])
+    def btn_visCopy(self):
+        print('Starte visuellen Speller')
+        subprocess.Popen([config['PATH']['bci2000'] + r'\prog\Operator.exe', '--OnConnect', '-LOAD PARAMETERFILE gUSBamp_visual_freeSpeller.prm'])
         subprocess.Popen([config['PATH']['bci2000'] + r'\prog\gUSBampSource.exe', '127.0.0.1'])
         subprocess.Popen([config['PATH']['bci2000'] + r'\prog\P3SignalProcessing.exe', '127.0.0.1'])
         subprocess.Popen([config['PATH']['bci2000'] + r'\prog\P3Speller.exe', '127.0.0.1'])
 
-    # QUESTIONNAIRE PROMPT   ###########################
-    # def btn_quest(self):
-        #root.destroy()
-        # self.startQuestions(self.paradigmText)
-
-    # def startQuestions(self, para):
-    #     print('Starte Fragebogen')
-    #     q = quest(para)
-    #     q.qSatisfaction()
-    #     q.qExhaustion()
-    #     q.qSubjControl()
-    #     q.qCtrlChange()
-    #     q.save()
-
+    # This Function packs all the Buttons into the Layout
     def pack_layout(self):
-        # This Function packs all the Buttons into the Layout
         if config['SETTINGS']['paradigm'] == 'Tactile':
             self.BtacFilter.pack()
             self.BtacCal.pack()
-        elif config['SETTINGS']['paradigm'] == 'Visual':
-            self.BvisCal.pack()
-        self.Bp300.pack()
-        if config['SETTINGS']['paradigm'] == 'Tactile':
+            self.Bp300.pack()
             self.BtacCopy.pack()
-            self.BtacSimul.pack()
+            self.BtacCopyNested.pack()
         elif config['SETTINGS']['paradigm'] == 'Visual':
+            self.BvisCal.pack()
+            self.Bp300.pack()
             self.BvisCopy.pack()
 
+    # This Function removes all the Buttons from the Layout
     def unpack_layout(self):
-        # This Function removes all the Buttons from the Layout
         # Add ALL your Buttons here
         self.BtacFilter.pack_forget()
         self.BtacCal.pack_forget()
         self.BvisCal.pack_forget()
         self.Bp300.pack_forget()
         self.BtacCopy.pack_forget()
-        self.BtacSimul.pack_forget()
+        self.BtacCopyNested.pack_forget()
         self.BvisCopy.pack_forget()
 
     def global_close(self, window):
 
 
 def setVisual():
-    config['SETTINGS']['paradigm'] = 'Visual'
-    config.write(open(configPath,'w'))
-    app.Lparadigm.config(text = config['SETTINGS']['paradigm'] + ' BCI')
-    app.unpack_layout()
-    app.pack_layout()
+    if config['SETTINGS']['paradigm'] == 'Visual':
+        return
+    else:
+        config['SETTINGS']['paradigm'] = 'Visual'
+        config.write(open(configPath,'w'))
+        app.Lparadigm.config(text = config['SETTINGS']['paradigm'] + ' BCI')
+        app.unpack_layout()
+        app.pack_layout()
 
 def setTactile():
-    config['SETTINGS']['paradigm'] = 'Tactile'
-    config.write(open(configPath,'w'))
-    app.Lparadigm.config(text = config['SETTINGS']['paradigm'] + ' BCI')
-    app.unpack_layout()
-    app.pack_layout()
+    if config['SETTINGS']['paradigm'] == 'Tactile':
+        return
+    else:
+        config['SETTINGS']['paradigm'] = 'Tactile'
+        config.write(open(configPath,'w'))
+        app.Lparadigm.config(text = config['SETTINGS']['paradigm'] + ' BCI')
+        app.unpack_layout()
+        app.pack_layout()
 
 root = tkinter.Tk()
 root.title('PythonBCIgui v' + str(__version__))
         config['PATH']['tactilebcifilter'] = tmpPath
         config.write(open(configPath,'w'))
 
-def setPathWheelchair():
-    tkinter.messagebox.showinfo('Konfiguration', 'Bitte wählen Sie nun den Ordner aus, in dem sich die Wheels_Occlusion_AutoLog.exe befindet.')
-    tmpPath = tkinter.filedialog.askdirectory()
-    if not tmpPath:
-        pass
-    else:
-        config['PATH']['wheelchairsimulator'] = tmpPath
-        config.write(open(configPath,'w'))
-
 def setConfigDefault():
     # config['PATH']['tactilebcifilter'] = r'C:/Users/bci/Desktop/Qt Filter Program/build-TactileBCIFilter-Desktop_Qt_5_15_0_MinGW_32_bit-Release/release'
     # config['PATH']['bci2000'] = r'C:/BCI2000/BCI2000 v3.6.beta.R5570/BCI2000.x64'
-    # config['PATH']['wheelchairsimulator'] = r'C:\Users\bci\Desktop\Wheelchair'
     config['PATH']['tactilebcifilter'] = r'C:\Users\EEG-Gruppe\Desktop\Arduino\Qt Tactile BCI Filter App\Executable'
     config['PATH']['bci2000'] = r'C:\Users\EEG-Gruppe\Desktop\BCI Paket\Paradigmen\Tactile\BCI2000\BCI2000-06-13\BCI2000src'
-    config['PATH']['wheelchairsimulator'] = r'C:\Users\EEG-Gruppe\Desktop\Wheelchair'
     config['SETTINGS']['paradigm'] = r'Visual'
-    config['SETTINGS']['hardware'] = r'gUSBamp'
+    config['SETTINGS']['hardware'] = r'gUSBamp'  # TODO Add gNautilus parameters
     config.write(open(configPath,'w'))
     app.Lparadigm.config(text = config['SETTINGS']['paradigm'] + ' BCI')
     app.unpack_layout()
 pathMenu.add_command(label="BCI2000", command=setPathBci2000)
 pathMenu.add_separator()
 pathMenu.add_command(label="TactileBCIFilter", command=setPathTactileBCIFilter)
-pathMenu.add_separator()
-pathMenu.add_command(label="Wheelchair Simulator", command=setPathWheelchair)
 
 root.config(menu = leistenMenu)
 
-# # initialize queue for wheelchairadapter
-# phaseInSequenceQueue = queue.Queue()
-# StimulusCodeQueue = queue.Queue()
-
-# RunApplication = True
-
-# # initialize BCI2000ReceiverThread for wheelchairadapter
-# BCI2000ReceiverThread1 = BCI2000ReceiverThread(1, phaseInSequenceQueue,  StimulusCodeQueue)
-
 app = PythonBCIgui(root)
 root.mainloop()
 #root.destroy() # optional;

config.ini

 [SETTINGS]
-paradigm = Tactile
+paradigm = Visual
 hardware = gUSBamp
 
 [PATH]
-bci2000 = C:/BCI2000/BCI2000 v3.6.beta.R5570/BCI2000.x64
-tactilebcifilter = C:/Users/bci/Desktop/Qt Filter Program/build-TactileBCIFilter-Desktop_Qt_5_15_0_MinGW_32_bit-Release/release
+bci2000 = C:\Users\EEG-Gruppe\Desktop\BCI Paket\Paradigmen\Tactile\BCI2000\BCI2000-06-13\BCI2000src
+tactilebcifilter = C:\Users\EEG-Gruppe\Desktop\Arduino\Qt Tactile BCI Filter App\Executable
 wheelchairsimulator = C:\Users\bci\Desktop\Wheelchair
 

startGUI.bat

-python3 ./app.py