PROGRAM PLOTC4
(Version 2001-3)
Plot evaluated data from the ENDF/B format and/or
Experimental data which is in a computational
format
Introduction
Enclosed is the documentation for program PLOTC4. The program is designed to plot evaluated
data from the ENDF formatted files and/or experimental data, which are in
computation format.
The enclosed documentation includes,
1) A
listing of the comment cards from the beginning of the program.
2) A
listing of the software characters used by the program.
3) A
listing of the three translation dictionaries used by the program.
4) A
listing of an example output report.
5) A
listing of example data in the computation format.
6) Plots
of the data
The enclosed documentation is up to date as of March
2001. The program documentation on the comment cards at the beginning of the
program and the translation dictionaries are continuously updated. Before using
this program the user is advised to consult the comment cards at the beginning
of the program and the translation dictionaries for the latest documentation.
Version 2001-3
The comments can be extracted using system search
routines by copying to "plotc4.man" all records beginning with "C-". For
example:
Unix: grep C-M
plotc4.f >plotc4.man
VMS search
plotc4.f C-M /out=plotc4.man
Dos find C-M
plotc4.for >plotc4.man
Compared to earlier versions of this code (87-1 and
earlier) this version 2001-3 has the capability to plot differential and double
differential data from ENDF files. The graphics interface is compatible with
the Pre-Pro-2000 series of codes and is not described separately. It includes
plotter independent characters.
Program PLOTC4
Comment cards
USERS' GUIDE FOR PROGRAM PLOTC4
===============================
PURPOSE
-------
The function of the PLOTC4 program is to plot and compare
experimental data, which are in a computation format with
evaluated data in ENDF format.
This program has been designed to use the computation
format
and conventions which are used by program X4TOC4 to translate
experimentally measured data from the EXFOR to a
computation
format.
The evaluated data in ENDF format need some
pre-processing to
reduce the complexity of format representations, which
are
allowed in the general ENDF format. The codes of the Pre-Pro
sequence are used for this purpose. It is recommended
that
the following are executed:
LINEAR to convert all cross sections to linearly interpolable
form.
RECENT to reconstruct the resonances from
resonance parameters.
SIGMA1 to Doppler broaden the cross sections to room
temperature (optional but recommended when comparing
to experimental data since measurements are usually
done at room temperature).
ACTIVATE to
generate cross sections for excitation into discrete
excited state (file MF10) from the data in files MF3
and MF9.
LEGEND to convert angular distributions in
arbitrary ENDF
representation into tabular ENDF representation.
SIXTAB to convert doubel differential data in
arbitrary ENDF
representation into tabular (law-7) ENDF representation.
GRAPHICS INTERFACE
------------------
This program uses a simple CALCOMP like graphics
interface which
requires only 3 subroutines...PLOTS, PLOT and PEN (described
in
detail below). All characters and symbols are drawn using
tables
of pen strokes (supplied with this program). Using this
method
the program should be simple to interface to virtually
any plotter
or graphics terminal and the appearance and layout of the
plots
should be independent of which plotter is used.
WHAT CAN BE PLOTTED
-------------------
At the present time the following types of data can be
plotted:
(1) MF = 3 -
Cross sections. ENDF and EXFOR data can be
compared (only MF = 3 ENDF data can be compared).
(2) MF = 4 -
Angular distributions. ENDF and EXFOR data can be
compared.
(3) MF = 5 -
Energy distributions. ENDF and EXFOR data can be
compared.
(4) MF = 6 -
Double differential cross sections. ENDF and EXFOR
data can be compared.
(5) MF = 154 - Legendre coefficients (only EXFOR).
(6) MF = 203 - Cross section ratios (only EXFOR).
(7) MF = 402 - Resonance parameters (only EXFOR).
(8) MF = 801 - Fission yield data (only EXFOR).
All other data will be skipped.
WHAT DATA WILL BE PLOTTED
-------------------------
Based on input options the user may specify whether the
program
should plot only EXFOR data or EXFOR and ENDF data. In
addition
the user may specify up to 100 ZA/MF/MT ranges to select
data.
HOW MUCH DATA CAN BE PLOTTED
----------------------------
ENDF DATA
Each section of ENDF cross sections (MF =3, any MT) may
contain
any number of data points. If a section contains MXPNT or
fewer
points all of the data will be in core. If the section
contains
more than MXPNT points the data will be written to a
scratch file
and read as needed.
Parameter MXPNT is currently set at 90000.
EXFOR DATA
Based on input parameters the user may control how much
EXFOR data
will appear on each plot. This program allows the user to
specify
that up to MXPGP data points may appear on each plot. If
there are
more physically comparable points (e.g., same ZA, MF, MT)
than
specified by the user the program will create a series of
plots
each containing not more than the maximum number of
points per
plot specified by the user.
Parameter MXPGP is currently set at 10000.
WHAT COMPUTERS WILL THE PROGRAM RUN ON
--------------------------------------
The program has been implemented on a variety of computers
from
Cray and IBM mainframe to Sun workstations to a PC. THE
program is small enough to run on virtually any computer.
The program uses a simple Calcomp-like graphics interface
(described below) and allows the user specify the
physical size
of the plotter being used, by input parameters. Using
these
conventions this program can be easily interfaced to
virtually
any plotter.
For special considerations see the sections below on,
(1) Computer dependent coding.
(2) Plotter/graphics terminal interface.
COMPUTATION FORMAT
------------------
The computation format uses a classification system and
units
which are compatible with ENDF. Data is classified by (1)
ZA
of projectile, (2) ZA of target, (3) metastable state of
target,
(4) MF - type of data, (5) MT - reaction, (6) metastable
state
of residual nucleus. To identify the source of the data
the first
author and year and the EXFOR accession and sub-accession
number
are included in the format. In addition, fields are
assigned to
define the status of the EXFOR data (e.g., S =
superceded),
whether data is in the laboratory or center-of-mass frame
of
reference and the physical significance of the last 2
output
fields (LVL = level energy, HL = half-life). Finally the
format
includes 8 fields in which the output data are contained
(e.g.,
incident energy, data, cosine, uncertainties, etc.)
Columns Description
------- -----------
1- 5
Projectile ZA (e.g. neutron =1, proton =1001)
6- 11 Target ZA (e.g. 26-Fe-56 = 26056)
12 Target metastable state (e.g. 26-FE-56m =
M)
13- 15 MF (ENDF conventions, plus additions).
16- 19 MT (ENDF conventions, plus additions).
20 Product metastable state (e.g. 26-FE-56M = M)
21 EXFOR status
22 Center-of-mass flag (C=center-of-mass,
blank=lab)
23- 94 8 data fields (each in E9.3 format).
defined below.
95- 97 Identification of data fields 7 and 8
(e.g.,
LVL=level, HL=half-life, etc.)
98-122 Reference (first author and year)
123-127
EXFOR
accession number
128-130
EXFOR sub-accession
number
131 Multi-dimension table flag
DEFINITION OF 8 COMPUTATION FORMAT DATA FIELDS
In order to plot data this program assumes that the
following
conventions have been used for data in the computation
format.
Data Field Definition
---------- ----------
1
Projectile incident energy
2
Projectile incident energy
uncertainty
3
Data, e.g., cross section, angular distribution, etc.
4
Data uncertainty
5
Cosine or legendre order
6 Cosine uncertainty
7
Identified by columns 95-97 (e.g.,level E, half-life)
8
Identified by columns 95-97 (e.g.,level E, uncertainty)
The physical significance of the first 6 data fields is
defined by
the MF (data type). The physical significance of fields 7
and 8
are defined by columns 95 through 97 (e.g. LVL = level
energy and
its uncertainty).
SPECIAL CONVENTIONS
The above conventions are appropriate for most types of
data
in the ENDF system. In order to allow this program to
plot
additional types of data the following special
conventions have
been adopted,
Cross section ratios
- Field 5 = MT of denominator.
(MF = 203)
Field 6 = ZA of denominator.
Fission yield data
- Field 5 = ZA of fission fragment.
(MF = 801)
Field 6 = mass of fission fragment.
Production
- Field 6 = ZA of product.
(MT = 9000-9999)
See, remarks below on metastable state flags.
BLANK VS. ZERO DATA FIELDS
The 8 data fields on each computation format line are
read as
characters and internally converted to floating point
numbers
(see, subroutine FLOAT9). By testing before converting
this
program can determine whether any given field is blank
(no data
given) as opposed to zero. It is often important to make
this
distinction, particularly for fields 7 and 8, e.g. the
difference
between 0.0 indicating ground state as opposed to no data
given.
The EXFOR to computation format conversion program X4TOC4
also
makes this distinction and leaves undefined fields blank
(not
zero). Therefore, any data converted to the computation
format
format using program X4TOC4 will follow the correct
conventions.
However, if the user of this program directly codes data
in the
computation format it is important to maintain this
convention.
Remember---any undefined fields should be left blank and
not set
to zero.
COMPUTATION FORMAT UNITS
In order to plot data this program assumes that the
following
units have been used for data in the computation format.
eV
= energy
barns
= cross section
steradians = solid angle
seconds = time
kelvin
=
temperature
For example double differential data (MF=6) will be in,
barns/eV/steradian
METASTABLE STATE
The computation format allows the metastable state of the
target
and residual nucleus to be identified. For ratio data
metastable
state of both numerator and denominator of the ratio
should be
defined.
The metastable state of the target is identified in
column 12 and
the metastable state of the residual nuclues in column
20. For
ratio data the metastable state of the denominator target
and
residual nucleus are identified by having the denominator
ZA and
MT in the form ZA.m AND MT.m (e.g., 26056.9 and 102.1).
Columns
12 and 20 may contain characters such as M, but to
maintain the
eight output fields in strictly numerical form the
denominator
ZA.m and MT.m will be in numerical form. The possible
characters
that may appear in columns 12 or 20 and their numerical
equivalents used with ratio denominator za and mt
include:
Definition Column 12 or 20
Equivalent Plotted as
---------- ---------------
---------- ----------
ground
G
0
-G
m1
1
1 -M1
m2
2
2 -M2
m3
3 3
-M3
m4
4
4 -M4
m5
5
5
-M5
unknown
?
6 -M?
m
M
7 -M
more than 1
+
8 -M+
all or total
T
9
blank
all or total
blank
9
blank
By convention if an EXFOR reaction does not specify a
metastable
state the state is defined in the computation format to
be..ALL..
(i.e., blank in column 12 or 20, 9 in ratio ZA or MT).
For example, for a ratio if the ZA.m and MT.m are output
as
26056.9 and 102.1, respectively the ratio denominator
target is
26-Fe-56 (all) and the reaction is capture (MT=102)
leaving the
residual nucleus in the m1 state.
EXFOR STATUS
Column 21 of each computation format record may contain
blank
(status not specified) or one to the following
characters,
Column 21 Definition
--------- ----------
U
Unnormalized (has priority over EXFOR
status and is
used
to indicate that the data is not in standard
output
units. y axis label will say..UNNORMALIZED..).
A
Approved by author
C-M Correlated
D
Dependent
O
Outdated
P
Preliminary
R
Renormalized
S
Superceded
If data has any other EXFOR status (e.g., translated from
SCISRS)
the status field will be blank.
CONTROL OF PLOTTING
-------------------
The user has control over how data in the computation
format
is interpreted by this program.
Data on each plot is identified by plotting a character
equivalent
of target za and metastable state (ZA), data type (MF),
reaction
(MT) and residual metastable state. The ZA, MF and MT may
be
interpreted in any manner that the user chooses.
This is accomplished by using three dictionaries which
control
the plotting. All three of these dictionaries are
distributed
with this program. Each dictionary is a simple card image
file
which may be modified by the user at any time to meet
specific
needs. The three dictionaries are:
(1) INTERPRETATION OF SPECIAL ZA
For all target
or residual nuclei this program will use the
ENDF
convention of assuming ZA = 1000*Z + A. For special
materials
which do not easily fit into this scheme (e.g.,
water) the
ENDF convention is to define Z =0 and to assign
a numerical
equivalent for each special material. For normal
materials this
program will use ZA to define the material or
isotope. For
special material (Z=0) this program will use this
dictionary to
define the material. As distributed this
dictionary
contains all of the special materials defined in
the ENDF
system. The user may code data for any special
material in the
computation format and assign it a special
ZA. By adding
the definition to this dictionary the user may
obtain plots
on which the special material is properly
identified.
(2) INTERPRETATION OF MF
This
dictionary defines the titles that will appear for each
MF read from
the computation format. In addition this
dictionary
allows the user to specify different titles for
the same MF
and different MT ranges, e.g.:
MF =3, MT
= 251 - 253 = parameters (used for MU,
XI, GAMMA)
MF =3, MT =
9000 = neutron induced (used for
production)
MF =3, MT =
other = cross section
If the user
does not like the titles normally output by this
program it is
merely necessary to modify this dictionary.
(3) INTERPRETATION OF MT
This
dictionary defines the titles that will appear for each
MT read from
the computation format, e.g.:
MT =
1 = total
= 9000 =
production
If the user
does not like the titles normally output by this
program it is merely
necessary to modify this dictionary.
Used in combination with the translation of the ZA, MF
and MT serve
to identify the data being plotted. By using the
dictionaries
described above the user has complete control over how
ZA, MF and
MT are interpreted and as such may select any form to
identify
data.
PROGRAM OPERATION
-----------------
EXFOR DATA INDEX TABLE
The entire computation format file will first be read and
compared
to the requested ZA/MF/MT ranges specified by the user.
If no
comparable data is found the program will terminate
execution. If
comparable data is found the program will create an index
table
specifying (1) ZA, (2) MF, (3) MT, (4) starting record
number,
(5) ending record number, (6) number of data points with
this ZA,
MF and MT. During execution this index table will be used
to,
(1) select the next ZA, MF, MT to be plotted if only
plotting
EXFOR data, or (2) to determine whether or not there is
comparable
EXFOR data (without again searching the EXFOR data file)
when
comparing EXFOR and ENDF data. Once it has been decided
to plot
EXFOR data which has a given ZA, MF and MT the starting
record
index is used to quickly position to the first record to
read and
the ending record index is used to define when to stop
reading
(instead of reading the entire computation format data
file).
ONLY PLOTTING EXFOR DATA
The program will use the index table to define the ZA, MF
and MT
of the next set of data to plot. Based on user input the
program
will then plot either one reference (reference = author,
year,
EXFOR accession and sub-accession number) per plot or all
comparable references on the same plot. The cycle of
reading data
and producing plots will be continued until all data
defined in
the index table have been plotted.
COMPARING ENDF/B AND EXFOR DATA
In the comparison mode the program will only plot data if
there
is comparable data (same ZA, MF, MT) on both the ENDF
formatted
and computation formatted files.
Based on the plotting requests (see below) the program
will first
search the ENDF data file to find an acceptable section
of cross
sections (MF=3,4,5,6). The program will then use the
EXFOR index
to determine if there is comparable EXFOR data (same ZA,
MF, MT).
If there is no comparable data the program will ignore
the current
section of ENDF data and search for the next requested
section
of ENDF data. The cycle of reading ENDF data and
comparing to
the EXFOR index table will be continued until comparable
ENDF
and EXFOR data are found. Only after the EXFOR index
table shows
that the computation format file contains comparable data
will
the file be read. As described above while reading EXFOR
data the
program will use the starting and ending record number to
quickly
position to the data to read and to stop reading when all
required
data has been read.
Experimentally measured differential cross sections are
seldom
measured for a particular reaction as defined in ENDF.
Usually
they are "particle production cross sections",
therefore
summation over several ENDF reactions is necessary.
Differential
data in an ENDF file are marked available for comparison
if file
MF4, 5 or 6 are found, but no action is taken until the
differential data are also found in the EXFOR file. At
this
point the emitted particle, the incident particle energy,
the
outgoing particle energy and/or angle are known. At this
point
the differential data retrieval routine is activated,
extracting
the normalised distributions, multiplying by the
appropriate
cross sections from file MF3 and summing contributions
from all
reactions that produce that outgoing particle.
To simplify coding a restriction on the formats of the
differential data exists. The retrieval routine only
accepts
tabular representation. ENDF files in other format
representations
can be converted using codes LEGEND for the angular
distributions
and SIXTAB for the double differential data.
At present the assembly of the differential data is
limited to
the neutron production reactions.
ONE REFERENCE PER PLOT
When plotting one reference per plot the program will use
the
EXFOR index table to determine where to start reading.
After one
data point has been read the program will continue to
read data
points until (1) a point is found with a different ZA,
MF, MT or
reference, (2) the index table last record number
indicates that
the last point has been read, or (3) the maximum number
of points
per plot have been read.
WARNING...When plotting one reference per plot in order
to produce
a plot the program must find at least the minimum number
of points
required (see, input description below) on suceessive
records.
therefore the computation format should be sorted to
insure that
all data with the same ZA, MF, MT, reference appear on
successive
records.
ALL COMPARABLE EXFOR DATA ON SAME PLOT
When plotting all comparable data on the same plot the
program
will use the EXFOR index table to define where to start
reading.
The program will continue to read data until (1) the
index table
last record number indicates that the last point has been
read, or
(2) the maximum number of points per plot have been read.
In this mode the EXFOR data need not be sorted by ZA, MF,
MT,
reference since the EXFOR index table will define where
all
comparable data are located on the computation format
data file.
However, to minimize the time required to search the
computation
format file the user should sort the data by ZA, MF, MT.
OPTIMIZING PROGRAM OPERATION
----------------------------
Program operation can be optimized by minimizing the size
of the
ENDF and computation formatted files. If you wish to
compare
a limited number of reactions it is suggested that you
first
prepare ENDF and computation formatted data files that
only
contain the data which will be plotted, i.e., never use
this
program to try to compare two enormous files of ENDF and
EXFOR
data unless you are willing to spend a correspendingly
enormous
amount of computer time. In addition the EXFOR data file
should be sorted by ZA, MF, MT, reference.
SCALING OF PLOTS
----------------
ENDF/B AND/OR EXFOR
If only plotting EXFOR data this program will scale the X
and Y
range of each plot to include only EXFOR data. If
plotting EXFOR
and ENDF data the user may specify by input (input
described
below) to scale plots to include all ENDF and EXFOR data
or
only all ENDF data or only all EXFOR data. Although this
option
may be used for special purposes to obtain special
scaling it is
recommended that the user always scale plots to include
all ENDF
and EXFOR data.
ENERGY RANGE
Regardless of the energy range specified by plotting
requests
(see description of requests below) this program will
never extend
the energy range of plots beyond where there are data.
For example
to plot (n,2n) over the entire energy range where there
are data
the user can specify 0.0 to 100 MeV. This program will
produce
plots from threshold up to the highest energy below 100
MeV where
data are given.
COSINE RANGE
For angular (MF=4) and double differential (MF=6)
distributions
where the X variable is cosine, plots will always be
produced over
the cosine range -1.0 to 1.0.
INPUT LOGICAL FILE UNITS
------------------------
Note that input instructions for PLOTC4 are on unit 4,
rather than
the usual Fortran unit 5. This is so for historic reasons
to allow
the program to be used on an IBM-PC where unit 5 was
reserved for
keyboard interaction.
Unit Description
---- -----------
4 Input options (BCD - 80 columns/record)
10 Computation formatted data (BCD - 131
columns/record)
11 ENDF formatted data (BCD - 80 columns/record)
12 Special ZA definitions (BCD - 80 columns/record)
14 MF definitions (BCD - 80 columns/record)
15 MT definitions (BCD - 80 columns/record)
17 Software characters (BCD - 80 columns/record)
OUTPUT UNITS
------------
Unit Description
---- -----------
6 Output report (BCD - 120 columns/record)
SCRATCH UNITS
-------------
UNIT DESCRIPTION
---- -----------
18 ENDF data paging unit (Binary - 6000 words/record)
INPUT CARDS
-----------
The user must input at least one card to specify plotting
options.
In the simplest case this first card can be completely
blank (see
Example input No. 1 below). To select data by
ZA/MF/MT/Incident
energy range the user may input up to 100 additional
cards.
Card Columns Format
Description
---- ------- ------
-----------
1 1- 5
I5 Compare EXFOR data to ENDF
0 = No
1 = Yes
2 = Yes (identify ENDF points by plotting
a small diamond round each
point).
NOTE: If comparing data plots will only
be produced if comparable data is found
on both the ENDF and computation format
files.
6-10 I5
All comparable exfor data on same plot
0 = No
<0 = Yes, each reference on a seperate plot
>O = Yes, the value entered is the maximum
number of references per plot
(current
upper limit=48).
11-15 I5
Plot scaling
0 = ENDF and EXFOR (recommended)
1 = ENDF
2 = EXFOR
(automatically set to 2 if not
comparing)
16-20 I5
Plot X error bars (energy, cosine, etc.)
0 = No, 1 = Yes
21-25 I5
Plot Y error bars (cross section, etc.)
0 = No, 1 = Yes
26-30 I5
Identify all references by symbol
0 = No, 1 = Yes
(0 = If only one reference on plot do not
plot box and reference symbol around each
data point...recommended).
31-35 I5
Allow variable E2 on same plot
0 = No, 1 = Yes
(Normally only data with same ZA/MF/MT/E2
will appear on same plot. 1 = collect data
from 1 reference for same ZA/MF/MT
and
a number of values of E2. Identify data on
plot by each value of E2).
36-40 I5
Minimum EXFOR points per plot
(If there are fewer comparable EXFOR points
they will be skipped...default 8, minimum
valid entry 2).
41-45 I5
Maximum number of EXFOR points per plot
(Minimum defined by columns 36-40 up to
MXPGP...DEFAULT MXPGP1000).
Currently parameter MXPGP is set to 10000.
HINT: The limit applies to the total number
of points extracted from the EXFOR
file. If plots are
defined by
explicitly requested ranges (see the
next input line) and all comparable
points are to be displayed on the
same plot, use the
default value.
46-50 I5
Grid type
= 0 - Tick marks on each axis..recommended.
= 1 - Full grid.
51-55 I5
Plot size
= 0 - Full size plots.
= 1 - Half size (4 sub-plots per plot).
56-70 3A4,A3
ENDF library identification.
e.g., ENDF/B-V (only used if comparing).
2-N 1- 7 I7
Lower ZA limit
8-11 I4
Lower MF limit
12-15 I4
Lower MT limit
16-26 E11.4
Lower incident energy limit (eV)
27-33 I7
Upper ZA limit
34-37 I4
Upper MF limit
38-41 I4
Upper MT limit
42-52 E11.4
Upper incident energy limit (eV)
53-55 I3
Plot scales (ENDF convention):
2 Linear abscisa and ordinate
3 Logarithmic abscisa and linear
ordinate
4 Linear abscisa and logarithmic
ordinate
5 Logarithmic abscisa and
ordinate
56-66 E11.4
Smearing parameter for elastic and
discrete level inelastic scattering energy
distributions given in terms of a
fractional energy
increment at which a
gaussian curve is half maximum. This is
only used to simulate resolution broadening
of the distributions, which are ideally
delta-functions (e.g.
elastic and discrete
inelastic scattering reactions when
assembling total neutron emission
energy distribution).
The request list
is terminated by a blank line. The remainder
of the input file
will be ignored.
There may be up
to 100 ZA/MF/MT/Energy range requests. If there
are more than 100
requests only the first 100 will be used.
Each request
independently specifies a range of ZA/MF/MT/Energy
to be plotted.
For each set of
data, ZA must be between the lower and upper ZA
limit, MF must be
between the lower and upper MF limit, MT must
be between the
lower and upper mt limit and the incident energy
must be between
the lower and upper energy limit.
e.g., Z=1 to
90000, MF=3 to 3, MT=1 TO 1, E=0.0 to 2.0E+7 eV
will select all
ZA between 1 to 90000 which have MF=3 and MT=1
and data points
with incident energy between 0 and 20 MeV.
If there are no
request cards all data will be plotted.
EXAMPLE INPUT NO. 1
...................
To plot all EXFOR data without comparison to ENDF and
without
error bars the user need only enter a single blank card,
or,
0 0
0 0 0 0 0
0 0 0 0
EXAMPLE INPUT NO. 2
...................
Plot all EXFOR data 1 reference per plot with X and Y
error bars.
Do not plot data unless there are 8 or more points. Plot
a full
grid. Input the following 1 card,
0 0
0 1 1 0 1
8 0 1 0
NOTE: This is a good set of input parameters to use in
order to
produce all possible plots of all EXFOR data translated
from a
given EXFOR tape. It is recommended to specify 8 as the
minimum
number of points per plot in order to avoid obtaining a
large
number of plots each containing only 1 or 2 data points.
EXAMPLE INPUT NO. 3
...................
Plot Co-59 (n,2n) ENDF cross sections and all comparable
EXFOR data on the same plot with cross section error
bars, one
plot from 0.0 eV (scaled to threshold) to 20.0 MeV and a
second
plot from 12.0 to 15.0 MeV. Do not plot data unless there
are at
least 8 experimental data points. Only tick marks on
axis. ENDL84
is the identification for the ENDF library. Input the
following
3 cards.
1 1
0 0 1 0 0
8 0 0 0 ENDL84
27059 3
16 0.00000+ 0 27059 3
16 2.00000+ 7
27059 3
16 1.20000+ 7 27059 3
16 1.50000+ 7
REPORTING ERRORS
----------------
In order to improve this code and make future versions
more
compatible for use on as many different types of
computers as
possible please report all compiler diagnostics and/or
operating
problems to the author at the above address.
Please remember if you simply report "I'VE GOT A
PROBLEM" and do
not adequately describe exactly how you were using the
program
it will be impossible for the author to help you. When a
problem
arises please write to the author, describe the problem
in as much
detail as possible, identify the version of the program
that you
are using (e.g. Version 2001-3) and send the following
information
in computer-readable form (e-mail, floppy disc, etc.) to
the author:
(1) A copy of the program you are using
(2) A copy of compiler diagnostics (if any)
(3) A copy of the jcl deck you used to execute the
program
(4) A copy of the 3 translation dictionaries you are
using
(5) A copy of the computation format data you using
(6) A copy of the output report from the program.
Also send copies of any plots which you have obtained as
output
from this program, if possible and/or applicable.
Without all of this information it is impossible to
exactly
simulate the problem that you ran and to determine the
source
of your problem.
RETRIEVAL OF DIFFERENTIAL AND DOUBLE DIFFERENTIAL DATA
------------------------------------------------------
Retrieval of differential and double differential data is
done
through the DXSEND package, which is provided as a
separate
module. It is called by:
CALL
DXSEND(LEF,ZA0,ZAP,MT0,KEA,EIN,PAR,EPS,ENR,DXS
1 ,RWO,NEN,MEN,MRW,LTT)
The DXSEND module reads an ENDF file and extract cross
sections
(KEA=0), differential cross section (angular
distributions KEA=1
or energy spectra KEA=2, parameter PAR < -2) and
double
differential cross sections (correlated energy/angle
distributions
with the same conventions for KEA. Parameter PAR is the
requested
outgoing particle energy when the correlated angular
distribution
are requested. Similarly, PAR is the cosine of the
scattering
angle when the spectrum at a particular scattering angle
is
requested. Differential cross sections are output in the
Lab
co-ordinate system.
If a special MT
number is requested (for example, MT=5 for
particle emission where particle is defined by its ZA
designation
in ZAP), the retrieval is done recursively for all
neutron emission
reactions and all contributions are summed.
Formal parameters are:
LEF - File unit
number from which the ENDF file is read.
ZA0 - Requested
nuclide identification number. If ZA>0 it is
given in
terms of Z*1000+A+LIS0/10 where Z is the atomic
number, A
the mass number and LIS0 the metastable state
number.
When ZA<0 it implies the ENDF material MAT number.
ZAP0 - Outgoing particle ZA designation (ZAP0=1 for
neutrons).
MT0 - Requested
reaction MT number. Broadly this follows the
ENDF
conventions.
KEA - Control
flag to select retrieval of cross section (KEA=0)
angular
distributions (KEA=1) of energy spectra (KEA=2).
EIN - Incident
particle energy (eV).
PAR - Fixed
parameter when requesting differential data:
KEA=1, PAR
is the requested outgoing particle energy.
A
value PAR <= -2 implies integrated distribution
over
all angles.
KEA=2, PAR
is the requested scattering angle (cosine).
A
value PAR <= -2 implies angle integrated energy
distribution.
EPS - Resolution
broadening parameter is used for the two-body
scattering
reactions like the elastic and discrete inelastic
cross
sections where in principle the energy
distribution
is a delta
function. For such reactions the energy
distribution is displayed as a Gaussian distribution where
EPS the
fractional half-width at half-maximum. Such
representation is convenient for comparison with measured
data.
ENR - Argument
vector of the assembled output cross section.
DXS - Function
vector of the assembled output cross section.
RWO - Work array
of length MRW.
NEN - Number of
points in the assembled output cross section
vector.
MEN - Available
size of ENR and DXS arrays.
MRW - Available
size of the RWO work array.
IER - Error flag,
which is zero on exit if data assembly is
completed
successfully.
External routines called:
DXSEN1,SKIPSC,FINDMT,RDTAB1,RDTAB2,RDLIST,FINT2D,YTGEOU,FNGAUS,
FYTG2D,UNIGRD,FITGRD
OMPUTER DEPENDENT CODING
------------------------
This program is
designed to be used with a Fortran-77 or
Fortran-90 compiler.
The only compiler
dependent format statements involve,
(1) CHARACTER*1 and CHARACTER*4
(2) Testing for errors and end of file during reads.
It is assumed
that characters are stored in successive storage
locations and
that characters may be treated as continuous strings
of characters in
either CHARACTER*4 or CHARACTER*1 format.
For example, if
one subroutine contains,
CHARACTER*4 BCD
DIMENSION BCD(10)
the array BCD is assumed to be an array of 40 characters
in
successive byte locations.
It is assumed that this array can be passed as an
argument to
another subroutine and used as CHARACTER*1, e.g.,
CALL DUMMY(BCD)
SUBROUTINE DUMMY(BCD)
CHARACTER*1 BCD
DIMENSION BCD(40)
This convention
will work on all 32 bit per word computers (e.g.,
IBM or IBM
compatible computers).
For longer word
length computers (e.g., CDC or CRAY) it is
suggested that
before implementing and using this program the
user first verify
that character strings can be treated as
described above,
e.g., write a simple program to read a character
string of 40
characters in CHARACTER*4 format, pass it to a
subroutine which
uses the character string in CHARACTER*1 format
and print the
character string in the subroutine. If the character
string is printed
as a continuous string you will be able to use
this program. If
the character string is not printed as a
continuous string
it is not recommended that you use this program.
This program
using the Fortran-77 convention for testing for
reading errors
and end of file during reads, e.g.,
READ(10,1000,END=100,ERR=200) A,B,C,D
PLOTTER/GRAPHICS
TERMINAL INTERFACE
-----------------------------------
This program uses
a simple Calcomp-like interface involving
only 3
subroutines,
PLOTS(BUF,IBUF,IPLOT) - Initialize plotter
BUF - Plotter buffer
IBUF - Size of plotting buffer (5000 words used)
IPLOT - Plotter unit (16)...usually a dummy unit
PLOT(X,Y,IPEN)
-
Draw or move from last location to (X,Y),
end of current plot or end of plotting.
IPEN = 2 - Draw
= 3 - Move
= -1 - End of current plot...advance by X,Y
= 999 - End of plotting.
PEN(IPEN) - Select color.
IPEN- Color
= 1 to N (N = Any positive integer)
In order to interface this program for use on any plotter
which
does not use the above conventions it is merely necessary
for the
the user to write 3 subroutines with the names PLOTS,
PLOT and PEN
with the subroutine arguments described above and to then
call the
local equivalent routines.
AVAILABLE PLOTTER INTERFACES
----------------------------
This program has available plotter interfaces to operate
as
follows,
(1) Mainframe - hardcopy plots in black and white.
(2) Mainframe - screen plots in 7 colors on IBM graphics
terminal.
(3) PC
-
hardcopy plots in 6 colors on a Hewlett-Packard
7475a plotter.
Contact the author to obtain copies of any of the above
plotter
interfaces.
COLOR PLOTS
-----------
To select plotting colors subroutine PEN (described
above) is used
to select one of the available colors. When running on a
mainframe
using an IBM graphics terminal or on a PC using a
Hewlett-
Packard plotter the graphics interface (described above)
will
produce color plots.
BLACK AND WHITE PLOTS
---------------------
When producing black and white hardcopy on a mainframe
the user
should add a dummy subroutine PEN to the end of the
program to
ignore attempts to change color. Add the following
subroutine:
SUBROUTINE PEN(IPEN)
RETURN
END
CHARACTER SET
-------------
This program uses computer and plotter device independent
software
characters. This program comes with a file that defines
the pen
strokes required to draw all characters on the keyboard
(upper
and lower case characters, numbers, etc.) plus an
alternate set of
all upper and lower case greek characters and additional
special
symbols.
The software character table contains X and Y and pen
positions to
draw each character. If you wish to draw any additional
characters
or to modify the font of the existing characters you need
only
modify this table.
CONTROL CHARACTERS
In the software character table all characters to be
plotted will
have pen position = 2 (draw) or = 3 (move). In addition
the table
currently contains 4 control characters:
PEN POSITION = 0
Shift the next printed character by X and Y. 3 control
characters
are presently included in the software character table to
allow
shifting.
{ = Shift up
(for superscripts..............X= 0.0, Y= 0.5)
} = Shift down
(for subscripts..............X= 0.0, Y=-0.5)
\ = Shift left 1
character (for backspace...X=-1.0, Y= 0.0)
PEN POSITION =-1
Select the next printed character from the alternate
character
set. At present this control character is,
] = Switch to
alternate character set
These 4 control characters are only defined by the value
of the
pen position in the software character table (i.e., they
are not
hard wired into this program). As such by modifying the
software
character table the user has the option of defining any
control
characters to meet specific needs.
These characters may be used in character strings to
produce
special effects. For example, to plot subscript 5, B,
superscript
10 use the string,
}5B{1{0
To plot B, subscript 5 and superscript 10 with the 5
directly
below the 1 of the 10 use the string,
B}5\{1{0
To plot upper case greek gamma followed by the words
"Total Width"
use the string,
]G Total Width
NOTE: When these control characters are used they only
effect the
next 1 printed character (see, above example of plotting
super-
script 10 where the shift up control character was used
before the
1 and then again before the 0).
If these 4 control characters are not available on your
computer
you can modify the software character table to use any
other 4
characters that you do not normally use in character
strings (for
details see the software character table).
STANDARD/ALTERNATE CHARACTER SETS
The software character table contains 2 sets of
characters, which
are a standard set (all characters on an IBM keyboard)
and an
alternate set (upper and lower case greek characters and
special
characters). To draw a character from the alternate
character set
put a vertical stroke character (]) before a character
(see the
above example and the software character table for
details). This
control character will only effect the next 1 plotted
character.
SUB AND SUPER SCRIPTS
To draw subscript preceed a character by }. To draw
superscript
preceed a character by { (see the above example and the
software
character table for details). These control character
will only
effect the next 1 plotted character.
BACKSPACING
To backspace one character preceed a character by \ (see,
the
above example and the software character table for
details). This
control character will perform a true backspace and will
effect
all following characters in the same character string.
Software characters
The 87-1 and later versions of this program use a table
of plotter independent characters. The following page list all of the
characters used by this program. The first block lists the standard
characters and the second block the alternate characters (see comment
cards from the program for details).
The data on the character symbol file are the public
domain Hershey fonts, tabulated by Gian Carlo Panini and incorporated into the
code by Red Cullen. Additional information on Hershey fonts can be found on "http://sources.isc.org/utils/misc/hershey-font.txt".
Special ZA Dictionary
0 GAMMA *
DEFINITION OF SPECIAL ZA (ZA LESS THAN 1000)
1 NEUTRON *
...TRKOV-CHANGED FROM : 1/V ABSORBER
2
SCATTERER * FORMAT
100 WATER *
======
101 HEAVY WATER
* COLUMNS DESCRIPTION
102 C12H10 *
======= ===========
103 NAOH *
1- 5 ZA
104 C18H14 *
7-18 DEFINITION (E.G., ZA=1 -
1/V ABSORBER)
105
DOWTHERM-A *
106 BENZENE *
ONLY THE FIRST 18 COLUMNS ARE READ. THE REMAINDER OF
200 BEO *
EACH LINE MAY CONTAIN ANY TEXT, E.G., THIS TEXT.
201 BE2C *
202 BEF2 *
ADDING DEFINITIONS
203 ZRHX *
==================
204 (CH)N *
TO ADD DEFINITIONS TO THIS TABLE, THEY MUST BE ADDED
205 (CH2)N *
IN ASCENDING ZA ORDER.
207 UO2 *
301 ZIRCALLOY-1
* MAXIMUM TABLE SIZE
302 ZIRCALLOY-2
* ==================
304
STAINLESS * UP TO 200 ZA MAY BE INCLUDED IN THIS TABLE.
310 UO2 *
IF THE TABLE CONTAINS OVER 200 ZA ONLY THE FIRST 200
315 UC
*
WILL BE READ AND USED.
400 U-233
RSTR *
401 U-235
RSTR *
ENDF/B CONVENTIONS
402 U-239
RSTR *
==================
403 PU-241 RSTR
* THE INITIAL TABLE CONTAINS ALL OF THE
SPECIAL ZA
404 TH-232 RSTR
* DEFINED IN THE ENDF/B SYSTEM.
405 U-238
RSTR *
406 PU-240 RSTR
*
410 U-233
SSTR *
411 U-235
SSTR *
412 U-239
SSTR *
413 PU-241 SSTR
*
414 TH-232 SSTR
*
415 U-238 SSTR *
416 PU-240 SSTR *
420 U-233
NSTR *
421 U-235
NSTR *
422 U-239
NSTR *
423 PU-241 NSTR
*
424 TH-232 NSTR
*
425 U-238
NSTR *
426 PU-240 NSTR
*
430 U-233
RSFR *
431 U-235
RSFR *
432 U-239
RSFR *
433 PU-241 RSFR
*
434 TH-232 RSFR
*
435 U-238
RSFR *
436 PU-240 RSFR
*
440 U-233
SSFR *
441 U-235
SSFR *
442 U-239
SSFR *
443 PU-241 SSFR
*
444 TH-232 SSFR
*
445 U-238
SSFR *
446 PU-240 SSFR
*
450 U-233
NSFR *
451 U-235
NSFR *
452 U-239
NSFR *
453 PU-241 NSFR
*
454 TH-232 NSFR
*
455 U-238
NSFR *
456 PU-240 NSFR
*
MF Dictionary
3 251
253 Parameters
* MF - DATA TYPE
3 9000 9000
Neutron Induced
*
EQUIVALENCE TABLE
3 9001 9001
Proton Induced
*
3 9002 9002
Deuteron Induced
*
3 9003 9003
Triton Induced
*
3 9004 9004
2-He-3 Induced
*
3 9005 9005 ]a
Induced
*
3 1 9999 Cross Sections
*
4 9000 9000
Neutron Induced
* FORMAT
4 1 9999 Angular Distribution
* ======
5 1 9999 Energy Distribution
* COLUMNS DESCRIPTION
6 1 9999 Double Differential
* ======= ===========
154 1 9999 Legendre Coefficients
*
1- 5 MF
203 1 9999 Ratio
*
6-10 LOWER MT
402 1 9999 Resonance Parameters
*
11-15 UPPER MT
801 1 9999 Yield Data
* 17-48
DEFINITION
900 1 9999 Level Density Parameters
*
*
*
* BLANK LINES
IGNORED
MT Dictionary
1 1 Total
* MT - REACTION
2 2 Elastic
* EQUIVALENCE TABLE
3 3 Nonelastic
*
4 4 Inelastic
* FORMAT
6
15 (n,2n) Level
* ======
16 16 (n,2n)
* COLUMNS DESCRIPTION
17 17 (n,3n)
* ======= ===========
18 18 Fission
* 1- 5 LOWER MT
19 19 (n,f) First Change
* 6-10
UPPER MT
20 20 (n,nf) Second Chance
* 12-51
REACTION
21 21 (n,2nf) Third Chance
* DESCRIPTION
22 22 (n,n') ]a
*
23 23 (n,n') 3]a
*
ONLY THE FIRST 50
24 24 (n,2n) ]a
*
COLUMNS A LINE ARE
25 25 (n,3n) ]a
*
READ. ANY TEXT MAY
26 26 (n,2n) Isomer
*
BE ADDED IN COLUMNS
27 27 Absorption
*
51-80 (E.G. THIS
28 28 (n,n') p
*
TEXT).
29 29 (n,n') 2]a
*
30 30
(n,2n) 2]a
* ADDING REACTIONS
32 32 (n,n') d
*
================
33 33 (n,n') t
*
TO ADD REACTIONS TO
34 34 (n,n') He-3
* THIS TABLE THEY
35 35 (n,n') d,2]a
*
MUST BE INSERTED IN
36 36 (n,n') t,2]a
*
ASCENDING ORDER AND
37 37 (n,4n)
* MT RANGES MUST NOT
38 38 (n,3nf) Fourth Chance
* OVERLAP
41 50 (n,2n) Level
*
51 90 (n,n') Level
*
MAXIMUM TABLE SIZE
91 91 (n,n') Continuum
* ==================
102 102 (N,]g)
* UP TO 300 REACTIONS
103 103 (n,p)
* MAY BE INCLUDED IN
104 104 (n,d)
* THIS TABLE. IF MORE
105 105 (n,t)
* THAN 300 ONLY
THE
106 106 (n,He-3)
*
FIRST 300 WILL BE
107 107 (n,]a)
* READ AND USED.
108 108 (n,]a)
*
109 109 (n,3]a)
* ENDF/B
CONVENTIONS
111 111 (n,2p)
* ==================
112 112 (n,p) ]a
*
ARE USED FOR
113 113 (n,t) 2]a
*
MT=1 - 999.
114 114 (n,d) 2]a
*
120 120 Target Destruction
*
203 203 Hydrogen Production
*
204 204 Deuterium Production
*
205 205 Tritium Production
*
206 206 He-3 Production
*
207 207 He-4 Production
*
251 251 ]m-bar (Lab)
*
252 252 Xi
*
253 253 Gamma
*
452 452 Total ]n-bar
*
455 455 Delayed ]n-bar
*
456 456 Prompt ]n-bar
*
700 719 (n,p') Level
*
720 739 (n,d') Level
*
740 759 (n,t') Level
*
760 779 (n,He-3') Level
*
780 799 (n,]a') Level
*
800 800 Damage (ASTM)
*
801 801 Damage (EUR)
*
1001 1001 (n,n+p)
* COMBINATION REACTION
1002 1002 (n,n+p)+(n,p)
* USE MT=1001 - 1999
1003 1003 (n,n+p)+(n,d)
*
1004 1004 (n,n+]a)+(n,]a)
*
1016 1016 Fission
Fragments
*
1018 1018
Photofission
*
1019 1019
Photofission Fragments
*
1103 1103 (n,p)
Level
*
1108 1108 (n,2]a)
Level
*
1113 1113 (n,t)
2]a Level
*
1200 1200
(n,3-Li-7)
*
1800 1800
*
(LEVEL DENSITY)
2103 2103 (n,p)
Direct
*
DIRECT = MT +2000
3103 3103 (n,p)
Compound
* COMPOUND = MT +3000
6002 6002 l
value
* RESONANCE PARAM. 0
6003 6003 j
value
*================ 0
6004 6004 Level
Spacing
* 0
6010 6010
]G}t
* 6000 - GENERAL 0
6021 6021
]G}n
* 6010 - TOTAL 0
6022 6022
g]G}n
* 6020 - ELASTIC 0
6023 6023 Reduced
]G}n
* 6030 -
CAPTURE 0
6024 6024 Reduced
g]G}n
* 6040 -
FISSION 0
6031 6031
]G}]g
* 6050 - RATIOS 0
6032 6032
g]G}]g
* 0
6051 6051
g]G}n]G}]g/]G}t
* 0
8001 8001
(p,n)
* CHARGED PARTICLE
8002 8002 (d,n)
*
INDUCED REACTIONS
8003 8003
(t,n)
* USE MT=8001 - 8999
8004 8004
(]a,n)
*
9000 9999
Production
*
PLOTC4.INP
The input data set
requests:
Ÿ
Plot EXFOR and ENDF data.
Ÿ
Use EXFOR and ENDF data to determine scaling.
Ÿ
Plot as many references on the same plot as possible.
Ÿ
Plot EXFOR data that have at least two points per plot.
Ÿ
Plot everything from ENDF file MF1.
Ÿ
Plot on separate plots the range 0-20 eV and 20 eV to
20 MeV for the total, elastic and capture cross sections. Plot all other cross
sections on the same plot.
Ÿ
Plot the differential and double differential cross
sections using lin-log scale with a resolution broadening factor of 0.03.
0 12 0
9
1 99
0 1 1 0 0
2 0 0 0 ENDF
0 1
1 0.00000+ 0 99999 19999 2.00000+07
0 3
2 0.00000+ 0 99999 3
2 2.00000+01
0 3
2 2.00000+ 1 99999 3
2 2.00000+07
0
3 3 0.00000+ 0 99999
3 99 2.00000+07
0 3 102 0.00000+ 0 99999 3 102 2.00000+01
0 3 102 2.00000+ 1 99999 3 102 2.00000+07
0 3 103 0.00000+ 0 99999 39999 2.00000+07
0 4
1 0.00000+ 0 99999 59999 2.00000+07 4 0.03
0 6
1 0.00000+ 0 9999999999999 2.00000+07
4 0.03
--- All input below is ignored
0 0 0
0.00000+ 0 9999999999999
2.00000+07
0 4026020
0.00000+ 0 99999 4026099 2.00000+07
0 801 1 0.00000+ 0 99999 8019999 2.00000+07
Example Output Listing
PLOT ENDF/B
AND/OR EXFOR DATA (PLOTC4 Version 2001-3)
========================================================================
READING
TRANSLATION TABLES
========================================================================
SPECIAL ZA
TITLES---------- 64( 200 ALLOWED)
MF
TITLES------------------ 17( 100 ALLOWED)
MT
TITLES------------------ 91( 300 ALLOWED)
========================================================================
READING INPUT
PARAMETERS
========================================================================
COMPARE EXFOR
DATA TO ENDF/B DATA----------
YES
ALL COMPARABLE
EXFOR DATA ON SAME PLOT-----
YES
SCALE PLOTS
ACCORDING TO------------------- ENDF
+ EXFOR
PLOT X ERROR
BARS--------------------------
YES
PLOT Y ERROR
BARS--------------------------
YES
IDENTIFY ALL
REFERENCES BY SYMBOL----------
NO
ALLOW VARIABLE E2
ON SAME PLOT-------------
NO
MINIMUM EXFOR
POINTS PER PLOT--------------
2
MAXIMUM EXFOR
POINTS PER PLOT--------------
10000
GRID
TYPE----------------------------------
TICK MARKS
PLOT
SIZE---------------------------------- FULL
EVALUATED DATA
I.D.------------------------ENDF
COMPUTER
TYPE------------------------------
IBM-PC
========================================================================
PLOT THE
FOLLOWING DATA
========================================================================
LOWER
LIMIT
UPPER LIMIT
ZA MF MT
ENERGY-EV ZA
MF MT ENERGY-EV
========================================================================
0 3
2
0.0000E+00 99999 3
2 2.0000E+01
0 3
2 2.0000E+01 99999 3
2 2.0000E+07
0 3
3 0.0000E+00 99999 3 99 2.0000E+07
0 3 102 0.0000E+00 99999
3 102 2.0000E+01
0 3 102 2.0000E+01 99999
3 102 2.0000E+07
0 3 103 0.0000E+00
99999 39999 2.0000E+07
0 4
1 0.0000E+00 99999 59999 2.0000E+07
0 6
1 0.0000E+00 99999 69999 2.0000E+07
========================================================================
PROCESSING
===========================================================================
MATERIAL MAT
MF MT EVAL. EXPR. EXPR. EN-INC
ANG-OUT EN-OUT IDX
PNTS. PNTS. REF. EV DEG
EV
===========================================================================
14-Si-28 1425
3 2 4880 6 4 1
14-Si-28 1425
3 4 213 258 1
2
14-Si-28 1425
3 16 2
5 1
3
14-Si-28 1425
3 102 7990 8 3
4
14-Si-28 1425
3 103 158 398 28
5
14-Si-28 1425
3 103 158 5 5
6
14-Si-28 1425
3 107 178 125 3
7
14-Si-28 1425
4 2 162 18 2 1.420E+07
8
14-Si-28 1425
4 2 101 13 1 1.407E+07
9
14-Si-28 1425
4 2 45 16 1 5.950E+06
10
14-Si-28 1425
4 2 82 30 2 1.410E+07
11
14-Si-28 1425
4 2 63 28 1 9.760E+06
12
14-Si-28 1425
4 2 162 28 1 1.483E+07
13
14-Si-28 1425
4 2 113 26 1 1.016E+07
14
14-Si-28 1425
4 2 39 12 1 3.400E+06
15
14-Si-28 1425
6 9000 571 76
1 1.420E+07 25.00
16
14-Si-28 1425
6 9000 571 76
1 1.420E+07 30.00
17
14-Si-28 1425
6 9000 571 73
1 1.420E+07 45.00
18
14-Si-28 1425
6 9000 571 74
1 1.420E+07 60.00
19
14-Si-28 1425
6 9000 571 73
1 1.420E+07 75.00
20
14-Si-28 1425
6 9000 571 72
1 1.420E+07 80.00
21
14-Si-28 1425
6 9000 571 69
1 1.420E+07 105.00
22
14-Si-28 1425
6 9000 571 69
1 1.420E+07 120.00
23
14-Si-28 1425
6 9000 571 68
1 1.420E+07 135.00
24
14-Si-28 1425
6 9000 571 65
1 1.420E+07 150.00 25
14-Si-28 1425
6 9000 625 60
1 1.484E+07 15.00
26
14-Si-28 1425
6 9000 625 74
1 1.480E+07 30.00
27
14-Si-28 1425
6 9000 625 70
1 1.470E+07 42.00
28
14-Si-28 1425
6 9000 625 68
1 1.453E+07 60.00
29
14-Si-28 1425
6 9000 571
68 1 1.425E+07 80.00 30
14-Si-28 1425
6 9000 571 63
1 1.378E+07 117.00
31
14-Si-28 1425
6 9000 571 57
1 1.350E+07 140.00
32
14-Si-28 1425
6 9000 729 92
1 1.800E+07 45.00
33
14-Si-28 1425
6 9000 729 92
1 1.800E+07 60.00
34
14-Si-28 1425
6 9000 729 87
1 1.800E+07 75.00
35
14-Si-28 1425
6 9000 729 84
1 1.800E+07 90.00
36
14-Si-28 1425
6 9000 729 83
1 1.800E+07 120.00
37
14-Si-28 1425
6 9000 729 78
1 1.800E+07 150.00
38
========================================================================
END OF RUN 38 PLOTS GENERATED
Example Computation format
data
1 14028
3 16 1.7820+7 260000.0 3.9000-3 9.0000-4 D.M.ARNOLD,ET.AL. (65)11520
4
1 14028
3 16 1.7920+7 250000.0 6.5000-3 1.3000-3 D.M.ARNOLD,ET.AL. (65)11520
4
1 14028
3 16 1.8060+7 350000.0 6.0000-3 1.3000-3 D.M.ARNOLD,ET.AL. (65)11520
4
1 14028
3 16 1.8200+7 500000.0 8.7000-3 1.7000-3 D.M.ARNOLD,ET.AL. (65)11520
4
1 14028
3 16 1.8260+7 450000.0 8.0000-3 1.6000-3 D.M.ARNOLD,ET.AL. (65)11520
4
1 14028
3 107 9500000. 50000.00 0.059000
1.5000-3
J.A.SHANNON,ET.AL.
(66)11593 3
1 14028
3 107 9600000. 50000.00
0.035500 1.5000-3 J.A.SHANNON,ET.AL. (66)11593
3
1 14028
3 107 9700000. 50000.00
0.056000 2.0000-3 J.A.SHANNON,ET.AL. (66)11593
3
1 14028
3 107 9800000. 50000.00
0.055500 2.5000-3 J.A.SHANNON,ET.AL. (66)11593
3
1 14028
3 107 9900000. 50000.00
0.055000 2.0000-3 J.A.SHANNON,ET.AL. (66)11593
3
1 14028
3 107 1.0000+7 50000.00
0.097000 3.0000-3 J.A.SHANNON,ET.AL. (66)11593
3
1 14028
3 107 1.0100+7 50000.00
0.090000 2.0000-3 J.A.SHANNON,ET.AL. (66)11593
3
1 14028
3 107 1.0200+7 50000.00
0.063000 3.0000-3 J.A.SHANNON,ET.AL. (66)11593
3
1 14028
3 107 2.1600+7 100000.0
2.3000-3 4.0000-4 K.BHARUTH-RAM,ET.AL.
(77)30431 2
1 14028
3 107 5350000. 2.0000-3 M.BIRK,ET.AL. (63)31097 2
1 14028
3 107 5550000. 9.0000-3 M.BIRK,ET.AL. (63)31097 2
1 14028
3 107 5700000. 9.0000-3 M.BIRK,ET.AL. (63)31097 2
1 14028
3 107 5750000. 1.0000-2 M.BIRK,ET.AL. (63)31097 2
1 14028
3 107 5850000. 0.015000 M.BIRK,ET.AL. (63)31097 2
1 14028
3 107 6000000. 0.032000 M.BIRK,ET.AL. (63)31097 2
1 14028
3 107 6150000. 0.034000 M.BIRK,ET.AL. (63)31097 2
1 14028
3 107 6400000. 0.065000 M.BIRK,ET.AL. (63)31097 2
1 14028
3 2 3240000. 320000.0 2.313000 0.154000 L.FRITTELLI,ET.AL. (70)21481
3
1 14028
3 2 D 9760000. 80000.00 0.695000 0.024325 A.VIRDIS (81)21773 54
1 14028
3 2 D 1.4830+7 60000.00 0.646000 0.043928 A.VIRDIS (81)21773 54
1 14028
3 2 1.0163+7 49000.00 0.723400 0.017600 G.BOERKER,ET.AL. (88)22113 14
1 14028
3 2 1.0163+7 49000.00 0.724800 0.018600 G.BOERKER,ET.AL.
(88)22113 14
1 14028
3 2 D 3400000. 100000.0 1.795000 0.295000 TH.SCHWEITZER,ET.AL.
(11)30463 15
1 14028
4 2 C 1.4200+7 0.013000 1.0000-3-0.999450 4.3407-4
B.MINETTI,ET.AL.
(73)20498 2
1 14028
4 2 C 1.4200+7
0.011000 9.0000-4-0.994150 1.4138-3 B.MINETTI,ET.AL. (73)20498 2
1 14028
4 2 C 1.4200+7
0.011000 8.0000-4-0.991890 1.6637-3 B.MINETTI,ET.AL. (73)20498 2
1 14028
4 2 C 1.4200+7
0.011100 9.0000-4-0.969010 3.2334-3 B.MINETTI,ET.AL. (73)20498 2
1 14028
4 2 C 1.4200+7
9.7000-3 8.0000-4-0.945510 4.2619-3 B.MINETTI,ET.AL. (73)20498 2
1 14028
4 2 C 1.4200+7
8.4000-3 8.0000-4-0.908500 5.4699-3 B.MINETTI,ET.AL. (73)20498 2
1 14028
4 2 C 1.4200+7
6.8000-3 6.0000-4-0.879640 6.2259-3 B.MINETTI,ET.AL. (73)20498 2
1 14028
4 2 C 1.4200+7
6.7000-3 6.0000-4-0.837710 7.1484-3 B.MINETTI,ET.AL. (73)20498 2
1 14028
4 2 C 1.4070+7
0.880000 0.045000 0.983885 J.ROTURIER (68)20599 15
1 14028
4 2 C 1.4070+7
0.485000 0.023000 0.935382 J.ROTURIER (68)20599 15
1 14028
4 2 C 1.4070+7 0.141000
0.012000 0.856897
J.ROTURIER (68)20599 15
1 14028
4 2 C 1.4070+7
0.016600 3.0000-3 0.750918 J.ROTURIER (68)20599 15
1 14028
4 2 C 1.4070+7 0.028400 3.5000-3 0.621967 J.ROTURIER (68)20599 15
1 14028
4 2 C 1.4070+7
0.036500 4.0000-3 0.472703 J.ROTURIER (68)20599 15
1 14028
4 2 C 1.4070+7
0.035800 4.0000-3 0.224949 J.ROTURIER (68)20599 15
1 14028
4 2 C 1.4070+7
0.010500 3.0000-3-0.036123 J.ROTURIER (68)20599 15
1 14028
4 2 C 1.4070+7
0.012500 3.0000-3-0.292374 J.ROTURIER (68)20599 15
1 14028
4 2 C 1.4070+7
0.012000 3.0000-3-0.526810 J.ROTURIER (68)20599 15
1 14028
4 2 C 1.4070+7
0.010000 3.0000-3-0.724896
J.ROTURIER (68)20599 15
1 14028
4 2 C 1.4070+7
0.012000 3.0000-3-0.874875 J.ROTURIER (68)20599 15
1
14028 4 2 C 1.4070+7 7.0000-3 -0.966062 J.ROTURIER (68)20599 15
1 14028
69000 1.4200+7 1.1497-8 1.3202-9 0.906308 1.9 600000.0 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 2.1860-8 1.6198-9 0.906308 1.9 800000.0 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 2.5066-8 1.6841-9 0.906308 1.9 1000000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 2.1395-8 1.5145-9 0.906308 1.9 1200000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.7560-8 1.3733-9 0.906308 1.9 1400000. 100000.0 E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.8968-8 1.4847-9 0.906308 1.9 1600000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.9253-8 1.4684-9 0.906308 1.9 1800000. 100000.0 E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 2.0573-8 1.4816-9 0.906308 1.9 2000000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 3.9224-8 2.3676-9 0.906308 1.9 2200000. 100000.0 E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 6.8535-8 3.8877-9 0.906308 1.9 2400000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 4.0281-8 2.4183-9 0.906308 1.9 2600000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.7664-8 1.2992-9 0.906308 1.9 2800000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.2403-8 1.0571-9 0.906308 1.9 3000000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.2385-8 1.0475-9 0.906308 1.9 3200000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.1712-8 1.0080-9 0.906308 1.9 3400000. 100000.0 E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.2327-8 1.0343-9 0.906308 1.9 3600000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.3109-8 1.0657-9 0.906308 1.9 3800000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.3217-8 1.0636-9 0.906308 1.9 4000000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 9.0065-9 9.550-10 0.906308 1.9 4200000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.1037-8 9.830-10 0.906308 1.9 4400000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.0857-8 9.505-10 0.906308 1.9 4600000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 9.4067-9 9.057-10 0.906308 1.9 4800000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 7.9434-9 8.155-10 0.906308
1.9 5000000. 100000.0 E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 8.2270-9 8.335-10 0.906308 1.9 5200000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 6.7112-9 7.814-10 0.906308 1.9 5400000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 5.4525-9 7.618-10 0.906308 1.9 5600000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 5.5985-9 7.391-10 0.906308 1.9 5800000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 3.7073-9 7.118-10 0.906308 1.9 6000000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 5.4657-9 7.344-10 0.906308 1.9 6200000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 4.9797-9 7.229-10 0.906308 1.9 6400000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 4.2341-9 7.106-10 0.906308 1.9 6600000. 100000.0 E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 4.0653-9 7.402-10 0.906308 1.9 6800000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 5.1091-9 7.505-10 0.906308 1.9 7000000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 7.7370-9 8.685-10 0.906308 1.9 7200000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 6.4390-9 8.200-10 0.906308 1.9 7400000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 4.5331-9 7.556-10 0.906308 1.9 7600000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 4.2255-9 7.534-10 0.906308 1.9 7800000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 4.6037-9 7.377-10 0.906308 1.9 8000000. 100000.0 E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 2.4697-9 7.094-10 0.906308 1.9 8200000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 2.1281-9 6.995-10 0.906308 1.9 8400000. 100000.0 E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.5260-9 6.615-10 0.906308 1.9 8600000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 3.0449-9 6.986-10 0.906308 1.9 8800000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 2.2720-9 6.907-10 0.906308 1.9 9000000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 4.0425-9 7.274-10 0.906308 1.9 9200000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 7.9517-9 8.376-10 0.906308 1.9 9400000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 8.0865-9 8.729-10 0.906308 1.9 9600000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 5.5939-9 7.874-10 0.906308 1.9 9800000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 3.9778-9 7.557-10 0.906308 1.9 1.0000+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 3.7090-9 7.465-10 0.906308 1.9 1.0200+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 4.3047-9 7.802-10 0.906308 1.9 1.0400+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 2.1723-9 7.406-10 0.906308 1.9 1.0600+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 3.0407-9 7.991-10 0.906308 1.9 1.0800+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 2.0217-9 8.082-10 0.906308 1.9 1.1000+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 3.3568-9 8.738-10 0.906308 1.9 1.1200+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 4.0793-9 9.313-10 0.906308 1.9 1.1400+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 5.7478-9 9.986-10 0.906308 1.9 1.1600+7 100000.0 E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 8.3065-9 1.0798-9 0.906308 1.9 1.1800+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 9.3754-9 1.1446-9 0.906308 1.9 1.2000+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.7037-8 1.4642-9 0.906308 1.9 1.2200+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 2.1997-8 1.7047-9 0.906308 1.9 1.2400+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 2.7988-8 1.9847-9 0.906308 1.9 1.2600+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 2.5736-8 1.9181-9 0.906308 1.9 1.2800+7 100000.0 E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 2.2759-8 1.8643-9 0.906308 1.9 1.3000+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1
14028 69000 1.4200+7
2.3689-8 1.9859-9 0.906308
1.9 1.3200+7 100000.0 E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 2.8077-8 2.2279-9 0.906308 1.9 1.3400+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 4.1984-8 2.9214-9 0.906308 1.9 1.3600+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 7.9440-8 4.8377-9 0.906308 1.9 1.3800+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.6592-7 9.3501-9 0.906308 1.9 1.4000+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 2.5166-7 1.3889-8 0.906308 1.9 1.4200+7 100000.0 E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 2.7888-7 1.5334-8 0.906308 1.9 1.4400+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 2.3143-7 1.2808-8 0.906308 1.9 1.4600+7 100000.0 E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.4818-7 8.4053-9 0.906308 1.9 1.4800+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 9.0199-8 5.3299-9 0.906308 1.9 1.5000+7 100000.0 E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 5.6863-8 3.5505-9 0.906308 1.9 1.5200+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 3.7296-8 2.5273-9 0.906308 1.9 1.5400+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 3.0321-8 2.1154-9 0.906308 1.9 1.5600+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.2040-8 1.2203-9 0.866025 1.9 600000.0 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 2.1047-8 1.5361-9 0.866025 1.9 800000.0 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 2.1263-8 1.5181-9 0.866025 1.9 1000000. 100000.0 E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.9993-8 1.4454-9 0.866025 1.9 1200000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.8071-8 1.3675-9 0.866025 1.9 1400000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.8259-8 1.3631-9 0.866025 1.9 1600000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.8149-8 1.3480-9 0.866025 1.9 1800000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.5727-8 1.2242-9 0.866025 1.9 2000000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.7034-8 1.2703-9 0.866025 1.9 2200000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.7600-8 1.2853-9 0.866025 1.9 2400000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.5414-8 1.1655-9 0.866025
1.9 2600000. 100000.0 E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.4119-8 1.1046-9 0.866025 1.9 2800000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.2866-8 1.0390-9 0.866025 1.9 3000000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.3101-8 1.0470-9 0.866025 1.9 3200000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.1387-8 9.767-10 0.866025 1.9 3400000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.2103-8 9.965-10 0.866025 1.9 3600000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.1242-8 9.664-10 0.866025 1.9 3800000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.1611-8 9.654-10 0.866025 1.9 4000000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.1228-8 1.0068-9 0.866025 1.9 4200000. 100000.0 E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 8.6590-9 8.824-10 0.866025 1.9 4400000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 7.6819-9 8.402-10 0.866025 1.9 4600000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 8.3800-9 8.360-10 0.866025 1.9 4800000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 8.3512-9 8.147-10 0.866025 1.9 5000000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 5.1842-9 7.238-10 0.866025 1.9 5200000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 5.7741-9 7.338-10 0.866025 1.9 5400000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 5.5271-9 7.360-10 0.866025 1.9 5600000. 100000.0 E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 5.4828-9 7.233-10 0.866025 1.9 5800000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 5.7175-9 7.260-10 0.866025 1.9 6000000. 100000.0 E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 5.9991-9 7.335-10 0.866025 1.9 6200000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 5.5639-9 7.244-10 0.866025 1.9 6400000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 6.9264-9 7.637-10 0.866025 1.9 6600000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 5.2467-9 7.315-10 0.866025 1.9 6800000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 5.9086-9 7.871-10 0.866025 1.9 7000000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 6.7229-9 8.277-10 0.866025 1.9 7200000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 4.8958-9 7.657-10 0.866025 1.9 7400000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 3.1841-9 7.244-10 0.866025 1.9 7600000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 3.9830-9 7.200-10 0.866025 1.9 7800000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.8925-9 7.178-10 0.866025 1.9 8000000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 2.0122-9 7.081-10 0.866025 1.9 8200000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 2.7408-9 7.041-10 0.866025 1.9 8400000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 2.6553-9 6.932-10 0.866025 1.9 8600000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 3.1716-9 6.910-10 0.866025 1.9 8800000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 4.9055-9 7.708-10 0.866025 1.9 9000000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 5.4871-9 8.122-10 0.866025 1.9 9200000. 100000.0 E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 8.3058-9 9.029-10 0.866025 1.9 9400000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 7.6465-9 8.721-10 0.866025 1.9 9600000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 5.2050-9 8.117-10 0.866025 1.9 9800000. 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 3.8759-9 7.962-10 0.866025 1.9 1.0000+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 3.4731-9 7.889-10 0.866025 1.9 1.0200+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 3.2938-9 8.256-10 0.866025 1.9 1.0400+7 100000.0 E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 5.3938-9 8.671-10 0.866025 1.9 1.0600+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1
14028 69000 1.4200+7
5.5811-9 9.012-10 0.866025
1.9 1.0800+7 100000.0 E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 6.5955-9 9.545-10 0.866025 1.9 1.1000+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 7.7733-9 1.0035-9 0.866025 1.9 1.1200+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 8.2218-9 1.0382-9 0.866025 1.9 1.1400+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 9.3782-9 1.1417-9 0.866025 1.9 1.1600+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.3140-8 1.2945-9 0.866025 1.9 1.1800+7 100000.0 E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.8405-8 1.5499-9 0.866025 1.9 1.2000+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 2.3652-8 1.7977-9 0.866025 1.9 1.2200+7 100000.0 E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 2.6335-8 1.9410-9 0.866025 1.9 1.2400+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 2.2074-8 1.7718-9 0.866025 1.9 1.2600+7 100000.0 E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 2.2986-8 1.8384-9 0.866025 1.9 1.2800+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 2.2041-8 1.8579-9 0.866025 1.9 1.3000+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 2.5094-8 2.0590-9 0.866025 1.9 1.3200+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 3.5102-8 2.6148-9 0.866025 1.9 1.3400+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 6.7925-8 4.2657-9 0.866025 1.9 1.3600+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.2028-7 7.0186-9 0.866025 1.9 1.3800+7 100000.0 E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.7316-7 9.8073-9 0.866025 1.9 1.4000+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.7024-7 9.6627-9 0.866025 1.9 1.4200+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.3145-7 7.5975-9 0.866025 1.9 1.4400+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 7.8598-8 4.8182-9 0.866025 1.9 1.4600+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 4.5255-8 3.0549-9 0.866025 1.9 1.4800+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 2.7246-8 2.0653-9 0.866025 1.9 1.5000+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.7784-8 1.5261-9 0.866025 1.9 1.5200+7 100000.0
E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.3648-8 1.2347-9 0.866025
1.9 1.5400+7 100000.0 E2M.BABA,ET.AL. (85)21984109
1 14028
69000 1.4200+7 1.0745-8 1.0853-9 0.866025 1.9 1.5600+7 100000.0
E2M.BABA,ET.AL. (85)21984109
