Home    Reference Manuals    Return   


Description of used file extensions in GENSYS   



Table of contents

Introduction.
Files in CALC.
Files in MISC.
Files in GPLOT.
Files in KPF.
Files in MPLOT.
Files in NPICK.
Files in TRACK.
Files in OPTI.
All file extensions in alphabetical order.


Introduction

GENSYS works with a number of files. In order to distinguish between the files, each type of file has its own extension. This manual presents a brief summary of the contents and origin of the files.

For having a better overview of all files the user can chose to store the files in subdirectories. In order to have the files sorted in subdirectories, the user must define the environment variable $gendir and give $gendir the value= yes. The name of the subdirectories are defined in the file $gensys/scripts/gen_defs.



Files in CALC

Input data files
*.runf Main input data file for CALC, all analysis.
*.frespf Main input data file for frequency response analysis in program CALC.
*.modalf Main input data file for modal analysis in program CALC.
*.quasif Main input data file for quasistationary analysis in program CALC.
*.tsimf Main input data file for time domain analysis in program CALC.
*.gp Initial values from a previous calculation in program CALC.
*.kpfr Wheel-rail geometry functions.
*.npickr Structural flexibility shapes.

Output data files
calc.out The program's memory dump. The file can be used for information or debugging.
*.gp Output data file written in GPdat-format, is used for animation in program GPLOT.
*.id Output data file written in MPdat-format, is used for postprocessing in program MPLOT.
*.mode Eigenvalues from the program MODAL.
*.modf Modal shapes from the program MODAL.
*.modjac The linearized Jacobian from the program MODAL.


Files in program group MISC.

Input data files:
*.ftransf Input data file for the program FTRANS
*.funcf Input data file for the program FUNC
*.gencryptf Input data file for the program GENCRYPT
*.kc_propf Input data file for the program KC_PROP
*.mtablef Input data file for the program MTABLE
*.psdf Input data file for the program PSD
*.psd_fourf Input data file for the program PSD_FOUR
*.runf_infof Input data file for the program RUNF_INFO

Output data files:
*.sngl Data file written in single precision
*.cmplx Data file written in complex precision
*.kc_propr Result file from the program KC_PROP
*.mtabler Result file from the program MTABLE
*.psd File containing Power Spectral Density
*.runf_infor Result file from the program RUNF_INFO


Files in GPLOT.

Input data files:

*.gp File containing data for the animation, the file is read under the pulldown menu "File + read_GPdat" in program GPLOT.
*.runf File containing the input data model, the file is read under the pulldown menu "File + read_runf" in program GPLOT.

Output data files:

Program GPLOT does not produce any files which can be read by other programs in GENSYS. The only output is graphical output.



Files in KPF.

Input data files:
*.kpff Input data file for the program KPF
*.kpf_plotf Input data file for the program KPF_PLOT
*.kpf_rotf Input data file for the program KPF_ROT
*.kpf_turnf Input data file for the program KPF_TURN
*.rail Data file describing a rail profile
*.wheel Data file describing a wheel profile

Output data-files:
*.kpfr The output data file from the program KPF. The file contains the wheel-rail geometry function.



Files in MPLOT.

Input data files:
*.mplotf Input data file for the program MPLOT
*.id File containing all variables written in MPdat-format

MPLOT creates the following types of files as output data files
*.mp File containing all variables written in MPdat-format
*.cata Output generated by command "catalo".
*.print Output generated by command "print"
*.resu Summary file created by program MPLOT containing Wz, frequency analysis, statistics etc.
*.stat2 Stat2-file created by MPLOT in command STAT2

In addition to the above, also graphical output formats.



Files in NPICK.

Input data files:
*.npickf Input data file for the program NPICK.

Output data files:
*.npicki Storage file containing the interpolation nodes
*.npickm Message file from
*.npickr Output data file


Files in TRACK.

Input data files:
*.trc_concatf *.trc_fourplf *.trc_imauzf *.trc_iplasf *.trc_ipsdf
*.trc_istatf *.trc_mauzcurf *.trc_mauzf *.trc_mauzmodf *.trc_mauzplf
*.trc_meanf *.trc_plascurf *.trc_plasf *.trc_psdplf *.trc_statplf
*.trc_tracmodf *.trc_tracplf

Output data files:
*.sngl Data file in single precision
*.cmplx Data file in complex precision
*.mauz Data file in Mauzin-format
*.plas Data file in Plasser-format
*.trac Data file in Track-format
*.trax Data file in extended Track-format
*.trax_wdesign Data file in extended Track-format and including the designed geometry of the track

In addition to the above, also graphical output formats.



Files in OPTI.

Input data files:
*.optif

Output data files:
*.optir


All file extensions in alphabetical order.

calc.out
The memory dump of program CALC. The file contains the total memory of program CALC, generated in the most recent calculation. The file can be used for the users information or for debugging purposes.

*.cata
Output from the program MPLOT, containing a list of all variables and scalars in current ident. The *.cata-file is only written if command catalo has been given in the input data file to program MPLOT.

*.cmplx
General data file written in complex precision, the file comprises four columns: X-real, X-imaginary, Y-real, and Y-imaginary.

*.four
Fourier spectra written in complex precision, the file comprises four columns: complex angular frequency two columns and complex amplitude two columns.

*.frespf
Main input data file for the program FRESP.

*.ftransf
Input data file for the program FTRANS

*.funcf
Input data file for the program FUNC

*.gencryptf
Input data file for the program GENCRYPT

*.gp
Output data in GPdat-format from a calculation in QUASI, MODAL, or TSIM. The output data contains deformation shapes of the structure. The deformations can be animated in program GPLOT, or they can be used as initial values in program CALC using command INITVAL. The file is written as a formatted file, but it is rather complex. In order to make it more readable for humans the user can filter the file through program cata_gp.

*.id
Result file written in MPdat-format containing scalars and curves from a calculation in one of the programs QUASI, MODAL, FRESP or TSIM. The file is unformatted and cannot directly be read by an ordinary editor, in order to inspect the contents of the file the user has access the programs catas and cataf which translates the file into a formatted ASCII-file.

*.kc_propf
Input data file for the program KC_PROP

*.kc_propr
Result data file from the program KC_PROP

*.kpf_plotf
Input data file for the program KPF_PLOT

*.kpf_rotf
Input data file for the program KPF_ROT

*.kpf_turnf
Input data file for the program KPF_TURN

*.kpff
Input data file for the program KPF

*.kpfr
Output data file from the program KPF.
The file contains the following wheel-rail geometry functions:
cpt_$1.drfn Rolling radius v.s. lateral position
cpt_$1.gamfn Contact angle v.s. lateral position
cpt_$1.zfn Vertical wheel lift v.s. lateral position
cpt_$1.rofn Difference in lateral curvature v.s. lateral position
cpt_$1.poswfn Position of contact point on wheel v.s. lateral position
cpt_$1.posrfn Position of contact point on rail v.s. lateral position
Sometimes the kpfr-file contains a special description of the flange. The flange geometry functions has the same names as above, but cpt_ is replaced with cpf_.

*.list
Listing file of an output data file in MPdat-format or GPdat-format. The list files are generated with the script cataf or catas for the MPdat-file, and cata_gp for the GPdat-file.

*.mauz
Track irregularity file measured in a track measuring car type: Mauzin, Plasser & Theurer, Matisa, or similar track recording vehicle with rollers following the rails making versine measurements. The file is built-up as follows:
Line 1)
Text string indicating that this is a track recording file. The text string also gives information about which program that has created the file.
Line 2-4)
Ident text which was given to the program which created the file.
Line 5)
Blank line.
Line 6)
Information on how the track recording file has been created, the following commands are understood:
END = Leading end, A or B.
DXTRAC = The equidistance between the track data points in longitudinal direction.
NPCURV = Number of track measurement points in the actual file.
XSTART = Start coordinate of the track.
LTOT = Length of the track.
Line 7)
Scaling factors which have been used. The scaling factors are written in the same order as the columns are printed.
Line 8)
Information stating what is meant by the columns in the print below.
Line 9-)
Track recording data written in columns. The columns include the following information:
Column 1) Longitudinal distance in [m].
Column 2) Level irregularity, right side [mm].
Column 3) Level irregularity, left side [mm].
Column 4) Mauzin cant irregularity [mm] (Not Used)
Column 5) Twist irregularity [mm]
Column 6) Horizontal versine, right side [mm].
Column 7) Horizontal versine, left side [mm].
Column 8) Gauge [mm].

The columns in the track recording files are often written in format (8F8.2), but any format can be used because all track programs reads the file in free format. Left and right side refers to the side of the coach when an observer stands in the carriage facing end A, with his/her back to end B. The observer's right side is on the right side of the coach.

An example of a track recording file:

                                                                                        
 This mauz-file was created in GENSYS by Trc_mauz rel.9504                              
 IDENT1 = Creating of MAUZ-file using the program trc_mauz(B)                           
 IDENT2 = Input file = hysl_rak                                                         
 IDENT3 = Output file = test/hyslr_B.mauz                                               
                                                                                        
 END = B DXTRAC = 0.10000e+01 NPCURV =  488 XSTART =  0.671000e+01 LTOT = 0.487000e+03  
 SCALFACT  1.000   1.000   1.000   1.000   1.000   1.000   1.000                        
 DISTANCE  LEVEL   LEVEL     FI    TWIST  VERSINE VERSINE GAUGE                         
 6.71   -0.42    0.07   -0.35    0.45    1.77    1.70 1429.33                           
 7.71   -0.48   -0.54    0.16    1.06    0.32   -0.01 1429.73                           
 8.71    0.61   -0.37    0.88    0.35   -1.37   -3.23 1431.32                           
 9.71    2.56    1.65    0.79   -1.27   -1.54   -3.17 1431.05                           
 . . . . . .                                                                            
 . . . . . .  etc.                                                                      
                                                                                        
*.modalf
Main input data file for the program MODAL.

*.mode
Output data file from the program MODAL, containing all eigenvalues. The file is a formatted ASCII-file and can be read directly by the user.

*.modf
Output data file from the program MODAL, containing all eigenforms. The file is a formatted ASCII-file and can be read directly by the user.

*.modjac
Output data file from program FRESP and MODAL, containing linearized Jacobian. The file is a formatted ASCII-file and can be read directly by the user. The file can be used for linear analysis in external programs, for example matlab.

*.mp
Working memory for the program MPLOT.
The file is written in two parts ident.mp and ident.mp2, the file with extension *.mp contains only the names of the curves and addresses to the direct access file *.mp2. The format of the file is also called MPdat-format like files with extension *.id, and the contents of the *.mp-files can also like the *.id-files be inspected in the programs catas and cataf. The files ident.mp and ident.mp2 contains the same information as the ident.id, but in addition to the file ident.id the files ident.mp and ident.mp2 also contains new vectors and scalars generated in current and earlier postprocessing commands in program MPLOT.

*.mp2
Working memory for the program MPLOT.
File with extension *.mp2 is a sub file to the *.mp file, see further explanation under *.mp.

*.mplotf
Input data file for the program MPLOT.

*.mtablef
Input data file for the program MTABLE

*.mtabler
Result data file from the program MTABLE

*.npickf
Input data file for the program NPICK.

*.npicki
Storage file containing the interpolation nodes, the node numbers can be stored for later use in an another NPICK activity.

*.npickm
Message file from the program NPICK. The program writes this file to make it possible for the user to see: which nodes have been used, which weight factors have been used,, etc..

*.npickr
Output data file from the program NPICK, containing structural vibration shapes. Ready to be inserted into the main input data file for the program CALC.

*.optif
Input data file for the program OPTI

*.optir
Result data file from the program OPTI The result is a log-file over all calculations.

*.plas
Track data file from a registration made of a Plasser & Theurer or a Matisa recording coach, stored in PLAS-format. The PLAS-format is built-up in the same way as the MAUZ-format. Please see *.mauz for further information.

*.post or *.ps
Postscript file which is created in the graphic programs MPLOT, GPLOT, KPF or TRACK if variable ILASER is set to "1".

*.psd
Data file containing Power Spectral Density. The file comprises two columns, frequencies and PSD-values.

*.psdf
Input data file for the program PSD

*.psd_fourf
Input data file for the program PSD_FOUR

*.print
Print of variables and scalars in an ASCII-formatted file. The *.print-file is only written if command print has been given in the input data file to program MPLOT.

*.qout
Standard output when program CALC is executed in a queue system.

*.quasif
Main input data file for the program QUASI.

*.rail
Data file describing a rail profile.
The file should be a formatted ASCII-file with two columns. The two columns in the file are the Y- and Z- coordinates of the rail-head. The coordinates should be measured in millimeters. Positive direction for the Y-coordinate is toward the center of the track for both rails. Positive direction for the Z-coordinate is downwards. The measurements should be accurate, preferable more than one point per 0.1 [mm] in lateral coordinates. Example of an input data file describing a rail profile:
                                                                                
 -17.48      0.21457                                                            
 -17.40      0.16290                                                            
 -17.32      0.11441   Data start on the rail head, as far from                 
 -17.24      0.06908   track center line as possible.                           
 -17.16      0.02691                                                            
 -17.08     -0.01211                                                            
 -17.00     -0.04796   The Y-coordinate in the first column, with               
 -16.92     -0.08068   positive direction toward track center line.             
                                                                                
    .         .        The Z-coordinate in the second column, with              
    .         .        positive direction downward.                             
    .         .                                                                 
                                                                                
  -0.32     -0.07264                                                            
  -0.24     -0.05574                                                            
  -0.16     -0.03799                                                            
  -0.08     -0.01941                                                            
   0.00      0.00195   < Origin                                                  
   0.08      0.02025                                                            
   0.16      0.04133                                                            
   0.24      0.06325                                                            
   0.32      0.08601                                                            
                                                                                
    .         .                                                                 
    .         .                                                                 
    .         .                                                                 
                       The data series stops as far down on the rail edge as    
  30.08      7.69060   possible. Normally data should be present all the way    
  30.16      8.40925   to the gauge measuring point, i.e. 32.5 mm from origin.  
  30.24      9.24991   The normal case is that the rail profile is curved in    
  30.32     10.27144   a way yielding the profile line to be vertical at the    
  30.40     11.61505   gauge measuring point. This means that no more data of   
  30.48     13.98782   the rail can be treated.                                 
                                                                                
The origin of the rail profile is defined to be a distance RAIL_FL_ORIGO from the gauge measuring point. The gauge measuring point of the rail is defined as follows: the gauge measuring points are the two points on right and left rail located in a vertical interval between top of rail and 14 mm below top of rail which are closest to each other.
For ideal normal gauge tracks, the following is valid:
Lateral semi-spacing between the gauge measuring points = 717.5 mm
Lateral distance between the gauge measuring point and origin RAIL_FL_ORIGO= 32.5 mm
Lateral semi-spacing between "The Nominal Running Circles" = 750 mm

*.resu
Output data summary pages created by the program MPLOT containing e.g. Wz, frequency analysis, statistics, etc.. The *.resu-file is only written if command ftwz, stat or wz_afresp has been given in the input data file to program MPLOT.

*.runf
The main input data file for the program CALC, all types of analysis FRESP, MODAL, QUASI and TSIM. This file can contain references to additional sub input data files.

*.runf_infof
Input data file for the program RUNF_INFO

*.runf_infor
Result data file from the program RUNF_INFO

*.sngl
General data file written in real form single precision, the file comprises two columns X and Y values.

*.SPL
Track recording file measured by the Swedish Banverkets track recording car STRIX. The SPL-file is an ASCII-file containing the following information:
Column Name Description
1) posNr Id-number for each measuring point
2) Bandel Track section
3) km Distance in km
4) m Distance in m
5) Class Track standard
6) Track Name of track u=up n=down e=single track
7) Vl_sw Vertical irregularities wavelength 1-25 m, left side, [0.01 mm]
8) Vl_mw Vertical irregularities wavelength 0-100 m, left side, [0.01 mm]
9) Vl_lw Vertical irregularities wavelength 0-140 m, left side, [0.01 mm]
10) Vr_sw Vertical irregularities wavelength 1-25 m, right side, [0.01 mm]
11) Vr_mw Vertical irregularities wavelength 0-100 m, right side, [0.01 mm]
12) Vr_lw Vertical irregularities wavelength 0-140 m, right side, [0.01 mm]
13) Ll_sw Lateral irregularities wavelength 1-25 m, left side, [0.01 mm]
14) Ll_mw Lateral irregularities wavelength 0-100 m, left side, [0.01 mm]
15) Ll_lw Lateral irregularities wavelength 0-140 m, left side, [0.01 mm]
16) Lr_sw Lateral irregularities wavelength 1-25 m, right side, [0.01 mm]
17) Lr_mw Lateral irregularities wavelength 0-100 m, right side, [0.01 mm]
18) Lr_lw Lateral irregularities wavelength 0-140 m, right side, [0.01 mm]
19) Gauge Deviation from the nominal gauge 1435 [0.01 mm]
20) Curvature Curvature [can have different scales]
21) Cant Cant [0.01 mm]
22) Velocity Speed of the recording car [0.01 km/h]
Example of a SPL-file:

                                                                                                                                                                                          
#	2	3	4	5	6	7	8	9	10	11	12	13	14	15	16	17	18	19	20		21	22        
#                                            	Vl_sw	Vl_mw	Vl_lw	Vr_sw	Vr_mw	Vr_lw	Ll_sw	Ll_mw	Ll_lw	Lr_sw	Lr_mw	Lr_lw	Gauge	Curvature   	Cant   	Velocity  
posNr	Bandel	km	meter	Class	Track	1-25m	1-100m	1-140m	1-25m	1-100m	1-140m	1-25m	1-100m	1-140m	1-25m	1-100m	1-140m		    		       	          
2960	444	46	20	0	u	-70	246	515	-160	-125	11	74	-109	-402	0	-210	-496	46	0.000119	2483	10972     
2961	444	46	20	0	u	-82	230	503	-171	-140	-3	62	-121	-421	15	-199	-492	70	0.000119	2508	10972     
2962	444	46	20	0	u	-78	234	507	-179	-152	-15	58	-128	-433	19	-195	-496	93	0.000119	2526	10972     
2963	444	46	20	0	u	-66	238	515	-171	-148	-11	23	-164	-476	7	-210	-511	121	0.000119	2551	10972     
2964	444	46	21	0	u	-66	238	515	-160	-148	-7	-3	-199	-515	-11	-238	-546	121	0.000119	2562	10960     
2965	444	46	21	0	u	-62	242	519	-144	-132	0	7	-183	-507	-19	-246	-562	152	0.000119	2544	10960     
2966	444	46	21	0	u	-42	253	539	-113	-109	27	0	-195	-523	-31	-257	-582	160	0.000119	2573	10945     
2967	444	46	21	0	u	-39	257	542	-82	-82	50	-39	-242	-578	-27	-253	-582	187	0.000119	2555	10960     
2968	444	46	22	0	u	-27	265	550	-42	-46	85	-54	-257	-601	-11	-242	-574	187	0.000119	2555	10972     
2969	444	46	22	0	u	-19	269	558	0	-3	128	-66	-273	-621	7	-218	-558	167	0.000119	2526	10988     
2970	444	46	22	0	u	-11	277	566	27	15	156	-78	-285	-640	0	-234	-578	171	0.000119	2508	10988     
2971	444	46	22	0	u	-3	277	570	50	39	175	-93	-304	-664	0	-226	-578	214	0.000119	2508	11000     
2972	444	46	23	0	u	11	296	589	54	39	179	-93	-308	-675	0	-234	-589	234	0.000119	2526	11015     
2973	444	46	23	0	u	31	312	609	74	54	191	-97	-312	-683	-42	-277	-640	281	0.000119	2551	11015     
2974	444	46	23	0	u	23	300	597	62	39	175	-78	-296	-675	-7	-242	-609	289	0.000119	2555	11015     
2975	444	46	23	0	u	23	296	597	58	35	171	-74	-292	-679	-11	-250	-621	308	0.000119	2580	11000     
2976	444	46	24	0	u	27	300	601	70	42	179	-70	-296	-687	-35	-273	-652	312	0.000119	2591	10988     
2977	444	46	24	0	u	23	292	597	66	39	175	-66	-292	-691	-35	-273	-656	289	0.000119	2591	10988     
2978	444	46	24	0	u	31	296	597	82	46	183	-50	-277	-679	-15	-250	-640	289	0.000119	2583	10972     
2979	444	46	24	0	u	35	300	605	85	50	187	-31	-261	-671	-31	-269	-664	285	0.000119	2601	10988     
2980	444	46	25	0	u	58	320	625	97	58	199	-31	-265	-679	-15	-253	-656	281	0.000119	2605	10988     
2981	444	46	25	0	u	74	332	640	109	66	203	-27	-261	-683	-7	-246	-652	261	0.000119	2619	11000     
2982	444	46	25	0	u	82	332	640	97	50	191	-35	-269	-695	0	-238	-648	265	0.000119	2634	11015     
2983	444	46	25	0	u	125	371	683	113	66	203	-39	-277	-710	0	-242	-656	242	0.000119	2680	11027     
2984	444	46	26	0	u	144	386	699	113	62	199	-39	-277	-714	0	-234	-656	257	0.000119	2709	11027     
2985	444	46	26	0	u	152	390	707	109	58	195	-35	-281	-722	-3	-246	-675	261	0.000119	2720	11039     
2986	444	46	26	0	u	167	402	718	113	54	191	-35	-281	-730	-23	-269	-703	285	0.000100	2760	11039     
2987	444	46	26	0	u	171	398	718	97	39	175	-27	-273	-730	-42	-289	-726	289	0.000100	2774	11039     
                                                                                                                                                                                          

*.SRA
Track recording file measured by the Swedish Banverkets track recording car STRIX. The SRA-file is an ASCII-file containing the following information:
Column Name Description
1) Bandel Track section
2) spar Name of track
3) km Distance in km
4) m Distance in m
5) klass Track standard
6) hastighet Speed of the recording car
7) spårvidd Gauge
8) rälsförhöjning Cant
9) vr höjd kv Vertical irregularities, left side, wavelength 1-25 m
10) vr höjd mv Vertical irregularities, left side, wavelength 0-100 m
11) vr höjd lv Vertical irregularities, left side, wavelength 0-140 m
12) hr höjd kv Vertical irregularities, right side, wavelength 1-25 m
13) hr höjd mv Vertical irregularities, right side, wavelength 0-100 m
14) hr höjd lv Vertical irregularities, right side, wavelength 0-140 m
15) kurvatur Curvature, as measured by a Mauzin track recording car.
16) vr sida kv Lateral irregularities, left side, wavelength 1-25 m
17) vr sida mv Lateral irregularities, left side, wavelength 0-100 m
18) vr sida lv Lateral irregularities, left side, wavelength 0-140 m
19) hr sida kv Lateral irregularities, right side, wavelength 1-25 m
20) hr sida mv Lateral irregularities, right side, wavelength 0-100 m
21) hr sida lv Lateral irregularities, right side, wavelength 0-140 m
22) fel vr laser Error in laser left side
23) fel hr laser Error in laser right side
24) info Information
Example of a SRA-file:

                                                                                                                
Bandel km    class gauge      Vl_sw      Vl_lw        Vr_mw       curve     Ll_mw      Lr_sw     Lr_lw   Info   
    track m    speed    cant        Vl_mw        Vr_sw      Vr_lw      Ll_sw     Ll_lw      Lr_mw      Error    
401;u2;2;980;3;45;-3.24;19.59;-0.35;0.70;-14.02;-0.23;1.02;-10.63;4.40;0.27;5.47;19.45;0.47;4.14;20.23;2;0;     
401;u2;2;980;3;45;-3.44;19.01;-1.21;0.78;-13.87;-0.59;1.13;-10.66;4.40;0.16;5.16;19.49;0.59;3.71;20.59;2;0;     
401;u2;2;980;3;45;-3.83;18.62;-2.15;1.02;-13.75;-1.09;1.25;-10.98;4.40;0.08;4.96;19.41;0.90;3.67;20.35;2;0;     
401;u2;2;980;3;45;-3.98;18.33;-2.85;0.90;-13.59;-1.45;1.33;-11.21;4.40;0.00;4.69;19.61;1.02;3.16;20.43;4;0;     
401;u2;2;981;3;45;-4.18;18.26;-3.13;0.98;-13.44;-1.84;1.45;-11.21;4.40;0.08;4.53;19.38;1.02;3.09;20.70;2;0;     
401;u2;2;981;3;45;-4.18;18.04;-3.24;0.86;-13.32;-1.99;1.33;-11.29;4.40;0.00;4.22;19.53;0.90;2.85;21.05;2;0;     
401;u2;2;981;3;45;-4.30;17.97;-3.24;0.98;-13.13;-2.19;1.13;-11.21;4.40;0.00;3.98;20.00;0.86;3.20;21.21;2;0;     
401;u2;2;981;3;45;-4.69;17.79;-3.16;0.86;-13.13;-2.03;1.05;-10.94;4.40;0.04;3.71;20.43;0.94;3.05;21.05;2;0;     
401;u2;2;982;3;45;-5.39;17.75;-3.13;0.51;-13.05;-1.91;0.90;-10.47;4.40;0.04;3.48;20.55;1.09;3.05;21.17;2;0;     
401;u2;2;982;3;45;-5.43;17.36;-3.16;0.39;-12.77;-1.80;0.98;-9.88;4.40;0.04;3.40;20.70;1.05;3.16;21.09;2;0;      
401;u2;2;982;3;45;-5.35;17.11;-3.13;0.23;-12.42;-1.48;1.02;-9.57;4.40;0.12;3.24;20.78;1.09;3.05;20.98;2;0;      
401;u2;2;982;3;45;-5.55;16.68;-3.05;0.27;-11.91;-1.21;1.02;-9.34;4.40;0.12;3.16;20.63;1.17;3.44;20.82;4;0;      
401;u2;2;983;3;45;-5.55;16.42;-2.93;0.27;-11.41;-0.94;1.25;-9.14;4.40;0.27;3.16;20.70;1.33;3.36;20.74;2;0;      
401;u2;2;983;3;45;-5.43;16.32;-2.97;0.35;-10.98;-0.98;1.21;-8.95;4.40;0.16;3.20;20.59;1.41;3.75;20.82;2;0;      
401;u2;2;983;3;45;-4.73;16.39;-2.85;0.43;-10.66;-1.02;1.33;-8.83;4.40;0.35;3.16;20.59;1.41;3.83;21.45;4;0;      
401;u2;2;983;3;45;-4.57;16.32;-2.77;0.43;-10.55;-1.02;1.37;-8.79;4.40;0.35;3.20;20.59;0.94;4.30;21.76;2;0;      
401;u2;2;984;3;45;-4.38;16.71;-2.66;0.31;-10.43;-1.41;1.25;-8.67;4.40;0.31;3.05;20.94;0.59;4.06;21.72;2;0;      
401;u2;2;984;3;45;-4.45;16.89;-2.73;0.27;-10.23;-1.88;1.37;-8.52;4.40;0.51;3.09;21.52;-0.12;4.02;22.03;2;0;     
401;u2;2;984;3;45;-4.53;17.18;-2.73;0.27;-10.12;-2.38;1.52;-8.01;4.40;0.66;2.97;21.64;-0.66;3.79;21.99;2;0;     
401;u2;2;984;3;45;-4.26;17.21;-2.93;0.23;-9.84;-2.77;1.52;-7.62;4.40;0.43;2.89;21.88;-0.90;3.52;22.15;2;0;      
401;u2;2;985;3;45;-4.57;17.50;-3.40;0.31;-9.49;-3.44;1.72;-7.23;4.40;0.04;2.93;21.99;-1.13;3.36;22.11;2;0;      
401;u2;2;985;3;45;-4.30;17.75;-3.75;0.20;-9.18;-4.26;1.84;-6.88;4.40;-0.23;2.93;21.60;-0.90;3.05;21.80;2;0;     
401;u2;2;985;3;45;-4.30;17.86;-4.38;0.39;-8.75;-5.12;1.88;-6.64;4.40;-0.59;2.73;21.64;-0.51;2.97;22.07;2;0;     
                                                                                                                

*.stat2
Stat2fil created by MPLOT with the command stat2

*.trac
Trac-file containing track irregularities. The coordinate systems defined in the model follows the designed track geometry, and deviations in the track alignment relative to the designed track geometry is called track irregularities. The trac-file is an ASCII-file containing the following information:
Column 1)   Distance along the track (m).
Column 2)   Lateral deviation of track center line (mm).
Positive displacement to the right
Column 3)   Vertical deviation of track center line (mm).
Positive displacement downwards
Column 4)   Gauge irregularity (mm)
Measured at the gauge measuring height, 14[mm] under rail top level.
Column 5)   Cant irregularity (mm)
Height difference between right and left rail
Positive if the right rail is lower than left rail
Columns in trac-files are written in format (F6.1, 4F10.2).
Example:
#                                                
#                                                
#  Xcoor   Ymid      Zmid    Gauge       Cant    
#- (m) --- (mm) ---- (mm) ---- (mm) ---- (mm) -- 
   0.0     -0.0       0.0    1432.0      -0.2    
   1.0     -1.7      -0.1    1430.1      -1.3    
   2.0     -3.1       0.7    1429.2      -0.4    
   3.0     -4.5       0.3    1429.4      -0.5    
   4.0     -5.4       0.5    1429.1      -0.9    
   5.0     -6.3       0.2    1428.8      -1.2    
   6.0     -6.9       0.4    1429.4      -1.3    
   7.0     -7.1       0.7    1429.3      -0.9    
   8.0     -6.3       0.3    1429.9       0.2    
   9.0     -4.4      -1.9    1431.9       0.2    
  10.0     -6.0      -2.0    1430.7      -1.8    
  11.0     -7.0      -0.1    1429.0      -2.2    
  12.0     -8.3       0.7    1429.1      -1.4    
                                                 

*.trax
Trax-file contains the same data as the trac-file but the file is read in free format.
Example:
#                                                                               
#                                                                               
#       X-coord   Ymid-error    Zmid-error    Gauge-error   Cant-error          
# ------- (m) ------ (mm) -------- (mm) -------- (mm) -------- (mm) ----        
      25400.0000 -2.005836E+00  8.160725E+00  1.434275E+03 -3.915601E-01        
      25400.3333 -2.164823E+00  8.279727E+00  1.434482E+03 -9.607409E-02        
      25400.6667 -2.589269E+00  8.538596E+00  1.434913E+03  5.515241E-01        
      25401.0000 -3.115993E+00  8.710853E+00  1.435251E+03  1.154463E+00        
      25401.3333 -3.478733E+00  8.860838E+00  1.435507E+03  1.775702E+00        
      25401.6667 -3.425344E+00  8.933024E+00  1.435582E+03  2.161777E+00        
      25402.0000 -3.372462E+00  8.819842E+00  1.435570E+03  2.271306E+00        
      25402.3333 -3.443577E+00  8.339310E+00  1.435509E+03  2.192751E+00        
      25402.6667 -3.376787E+00  7.509908E+00  1.435470E+03  2.012610E+00        
      25403.0000 -3.144596E+00  6.489192E+00  1.435442E+03  1.644289E+00        
      25403.3333 -2.860265E+00  5.491168E+00  1.435414E+03  1.183929E+00        
      25403.6667 -2.345633E+00  4.661980E+00  1.435401E+03  8.808643E-01        
      25404.0000 -1.653365E+00  3.969247E+00  1.435424E+03  8.086290E-01        
      25404.3333 -1.235927E+00  3.342819E+00  1.435436E+03  9.306613E-01        
      25404.6667 -1.087934E+00  2.794639E+00  1.435459E+03  1.323082E+00        
      25405.0000 -9.329237E-01  2.326822E+00  1.435472E+03  1.848521E+00        
      25405.3333 -9.139912E-01  1.951700E+00  1.435489E+03  2.234718E+00        
      25405.6667 -9.697503E-01  1.827213E+00  1.435495E+03  2.412583E+00        
      25406.0000 -7.093792E-01  2.059507E+00  1.435490E+03  2.562932E+00        
                                                                                
 . . .  etc.                                                                    
                                                                                

*.trax_wdesign
In addition to the trax-file the trax_wdesign-file also contains the designed track geometry. The trax_wdesign-file is an ASCII-file containing the following information:
Column 1)   Distance along the track (m).
Column 2)   Lateral deviation of track center line (mm).
Positive displacement to the right
Column 3)   Vertical deviation of track center line (mm).
Positive displacement downwards
Column 4)   Gauge irregularity (mm)
Measured at the gauge measuring height, 14[mm] under rail top level.
Column 5)   Cant irregularity (mm)
Height difference between right and left rail
Positive if the right rail is lower than left rail
Column 6)   Designed track curvature [1/m].
Positive in a right handed curve
Column 7)   Designed cant [rad].
Normally positive in a right handed curve
Column 8)   Vertical position [m].
Positive displacement downwards
Example:
#                                                                                                                       
# Track data file: SPL_ASC_2.trax_wdesign                                                                               
#                                                                                                                       
# Created: 030203  by user ip                                                                                           
#                                                                                                                       
#                                                                                                                       
#                    Standard Deviation                                                                                 
#                   Alignment       Level       Mean                                                                    
#      Distance     RMS    MAX    RMS    MAX   Gauge                                                                    
#   ---------------------------------------------------------------------------                                         
#  73400.-73600.   0.87   2.27   1.75   7.94  1437.08                                                                   
#  73600.-73800.   0.85   2.30   1.20   2.95  1437.08                                                                   
#  73800.-74000.   0.77   2.51   0.83   2.53  1436.57                                                                   
#  74000.-74200.   1.28   3.61   1.80   5.18  1436.27                                                                   
#  74200.-74400.   0.93   2.78   1.06   3.61  1435.99                                                                   
#  74400.-74600.   0.79   2.45   0.78   1.87  1435.98                                                                   
#  81800.-82000.   0.86   2.96   0.83   2.26  1435.96                                                                   
#   ---------------------------------------------------------------------------                                         
#   In Total:                                                                                                           
#  73400.-82078.   0.91   2.97   1.18   3.76  1436.42                                                                   
#   ---------------------------------------------------------------------------                                         
#                                                                                                                       
# Track Standard according to CEN/TC 256 WG 10:                                                                         
# QN1 for speeds < 160 km/h                                                                                             
# QN2 for speeds < 300 km/h                                                                                             
                                                                                                                        
#                                                                                                                       
#                                                                                                                       
#     X-coord     Ymid-error    Zmid-error    Gauge-error   Cant-error    Design curve  Design cant   Design zpos       
# ----- (m) --------- (mm) -------- (mm) -------- (mm) -------- (mm) ------- (1/m) ------- (rad) --------- (m) ---      
      73400.0000 -1.248876E+00  8.772560E-01  1.437448E+03 -4.214884E-01  5.818988E-05  1.387334E-03 -1.040500E-03      
      73400.5000 -1.083996E+00  9.467817E-01  1.437658E+03 -3.382923E-01  5.820144E-05  1.386930E-03 -1.040197E-03      
      73401.0000 -9.815047E-01  9.743984E-01  1.437539E+03 -4.542344E-01  5.821281E-05  1.386347E-03 -1.039760E-03      
      73401.5000 -9.374702E-01  9.084574E-01  1.437407E+03 -3.243166E-01  5.822389E-05  1.385579E-03 -1.039184E-03      
      73402.0000 -9.575902E-01  7.151569E-01  1.437331E+03  1.433915E-03  5.823473E-05  1.384635E-03 -1.038476E-03      
      73402.5000 -1.011303E+00  4.674755E-01  1.437082E+03  1.839198E-01  5.824536E-05  1.383512E-03 -1.037634E-03      
                                                                                                                        
 . . .  etc.                                                                                                            
                                                                                                                        
*.trc_concatf
Input data file for the program TRC_CONCAT

*.trc_fourplf
Input data file for the program TRC_FOURPL

*.trc_imauzf
Input data file for the program TRC_IMAUZ

*.trc_iplasf
Input data file for the program TRC_IPLAS

*.trc_ipsdf
Input data file for the program TRC_IPSD

*.trc_istatf
Input data file for the program TRC_ISTAT

*.trc_mauzf
Input data file for the program TRC_MAUZ

*.trc_mauzcurf
Input data file for the program TRC_MAUZCUR

*.trc_mauzmodf
Input data file for the program TRC_MAUZMOD

*.trc_mauzplf
Input data file for the program TRC_MAUZPL

*.trc_meanf
Input data file for the program TRC_MEAN

*.trc_plasf
Input data file for the program TRC_PLAS

*.trc_plascurf
Input data file for the program TRC_PLASCUR

*.trc_psdplf
Input data file for the program TRC_PSDPL

*.trc_statplf
Input data file for the program TRC_STATPL

*.trc_tracmodf
Input data file for the program TRC_TRACMOD

*.trc_tracplf
Input data file for the program TRC_TRACPL

*.tsimf
Main input data file for the program TSIM.

*.wheel
Data file describing a wheel profile.
The wheel profile is described in Y- and Z- coordinates. The coordinates should be measured in millimeters. Positive direction for the Y-coordinate is toward the center of the track for both wheels. Positive direction for the Z-coordinate is downwards. The measurements should be accurate, preferable more than one point per 0.1 [mm] in lateral coordinates. The origin of the Y-coordinates should be at the radius where the wheel diameter of the wheel is measured, this diameter is sometimes also called "The Nominal Running Circle".

For normal gauge tracks, the following is valid:
Lateral semi-spacing between the wheels = 680 mm
Lateral distance between inside of the wheel and "The Nominal Running Circle" = 70 mm
Lateral semi-spacing between "The Nominal Running Circles" = 750 mm

Example of an input data file describing a wheel profile:


                                                                                        
 -40.01 -1.302       Data starts on the tread, as far from the flange                   
 -39.55 -1.269       as possible.                                                       
 -39.08 -1.236                                                                          
 -38.53 -1.202                                                                          
 -38.09 -1.169                                                                          
 -37.50 -1.136       The Y-coordinate in the first column with                          
                     positive direction towards the flange.                             
    .     .                                                                             
    .     .          The Z-coordinate in the second column,                             
    .     .          with positive direction away from the wheel                        
  -0.32 -0.061       center.                                                            
  -0.24 -0.047       The origins lateral position is on normal gauge                    
  -0.16 -0.032       defined to be 70 mm from the inside surface of the wheel           
  -0.08 -0.016                                                                          
   0.00  0.004  < The lateral position of the origin = "The Nominal Running Circle"     
   0.08  0.017                                                                          
   0.16  0.035                                                                          
   0.24  0.054                                                                          
   0.32  0.074                                                                          
                                                                                        
    .     .                                                                             
    .     .          Data stops as far up on the flange as possible.                    
    .     .          The larger part of the wheel and rail profiles                     
                     that are given, the larger will the contact point                  
  53.08 27.832       functions the program creates be. The functions                    
  53.16 27.906       created by KPF will span a slightly                                
  53.24 27.958       smaller domain than the input profile data.                        
  53.32 27.990                                                                          
  53.40 28.000