IAEA0970 STOPOW88.
STOPOW, Stopping Power of Fast Ions in Matter
NAME OR DESIGNATION OF PROGRAM, COMPUTER, DESCRIPTION OF PROGRAM OR FUNCTION, METHOD OF SOLUTION, RESTRICTIONS ON THE COMPLEXITY OF THE PROBLEM, TYPICAL RUNNING TIME, UNUSUAL FEATURES OF THE PROGRAM, RELATED AND AUXILIARY PROGRAMS, STATUS, REFERENCES, MACHINE REQUIREMENTS, LANGUAGE, OPERATING SYSTEM UNDER WHICH PROGRAM IS EXECUTED, OTHER PROGRAMMING OR OPERATING INFORMATION OR RESTRICTIONS, NAME AND ESTABLISHMENT OF AUTHORS, MATERIAL, CATEGORIES
[ top ]
[ top ]
To submit a request, click below on the link of the version you wish to order.
Only liaison officers are authorised to submit online requests. Rules for requesters are
available here.
| Program name | Package id | Status | Status date |
|---|---|---|---|
| STOPOW88 | IAEA0970/01 | Tested | 16-MAR-2011 |
Machines used:
| Package ID | Orig. computer | Test computer |
|---|---|---|
| IAEA0970/01 | ES-1055 | Linux-based PC,PC Windows |
[ top ]
3. DESCRIPTION OF PROGRAM OR FUNCTION
STOPOW calculates a set of stopping power values and ranges of fast ions in matter for any materials. Furthermore STOPOW can calculate a set of values for one special auxiliary function (e.g. kinematic factors, track structure parameters, time of flight or correction factors in the stopping function). The user chooses the physical units for stopping powers and ranges and the energy range for calculations.
STOPOW calculates a set of stopping power values and ranges of fast ions in matter for any materials. Furthermore STOPOW can calculate a set of values for one special auxiliary function (e.g. kinematic factors, track structure parameters, time of flight or correction factors in the stopping function). The user chooses the physical units for stopping powers and ranges and the energy range for calculations.
[ top ]
4. METHOD OF SOLUTION
The program uses the method of ZIEGLER et al. with user-defined non-relativistic and relativistic corrections in the energy range up to 100 MeV/amu. For higher energies the treatment of AHLEN is used. The program calculates the stopping power and ranges for an energy grid with logarithmic equally-spaced steps. These values are given as arrays, printing tables or output files.
The program uses the method of ZIEGLER et al. with user-defined non-relativistic and relativistic corrections in the energy range up to 100 MeV/amu. For higher energies the treatment of AHLEN is used. The program calculates the stopping power and ranges for an energy grid with logarithmic equally-spaced steps. These values are given as arrays, printing tables or output files.
[ top ]
5. RESTRICTIONS ON THE COMPLEXITY OF THE PROBLEM
Ions from H up to super heavies and compound targets with up to 30 different atomic constituents may be considered. The target compound can also contain up to five sub-compounds. This means the target is 1 keV/amu - 10 GeV/amu. Maximum incident energy can easily be increased by increasing the storage area. The program gives reasonable values up to 100 GeV/amu, it has not been tested for higher energies. The program accepts all the elements up to uranium, and for the input of a special target element identification of the element by atomic number is all that is needed. Batch and interactive input is possible.
Ions from H up to super heavies and compound targets with up to 30 different atomic constituents may be considered. The target compound can also contain up to five sub-compounds. This means the target is 1 keV/amu - 10 GeV/amu. Maximum incident energy can easily be increased by increasing the storage area. The program gives reasonable values up to 100 GeV/amu, it has not been tested for higher energies. The program accepts all the elements up to uranium, and for the input of a special target element identification of the element by atomic number is all that is needed. Batch and interactive input is possible.
[ top ]
[ top ]
[ top ]
[ top ]
10. REFERENCES
For the program:
- J. Henniger, B. Horlbeck,
Preprint JINR 6-8-366, Dubna 1984.
- J. Henniger et.al.,
Preprint JINR 6-84-598, Dubna 1984.
- W. Enghardt, J. Henniger,
The Implementation of a Universal Stopping Power Code to the
ES-1055 Computer,
ZfK-584(1986)132.
Reviews for the theory are given in:
- S.P. Ahlen,
Phys.Rev.A17(1978)1236.
- S.P. Ahlen,
Theoretical and Experimental Aspects of the Energy Loss of
Relativistic Heavily Ionizing Particles,
Rev.Mod.Phys.52(1980)121-173.
- J.F.Ziegler, J.P.Biersack and U.Littmark,
The Stopping and Ranges of Ions in Solids, Pergamon Press, New
York 1985.
For the program:
- J. Henniger, B. Horlbeck,
Preprint JINR 6-8-366, Dubna 1984.
- J. Henniger et.al.,
Preprint JINR 6-84-598, Dubna 1984.
- W. Enghardt, J. Henniger,
The Implementation of a Universal Stopping Power Code to the
ES-1055 Computer,
ZfK-584(1986)132.
Reviews for the theory are given in:
- S.P. Ahlen,
Phys.Rev.A17(1978)1236.
- S.P. Ahlen,
Theoretical and Experimental Aspects of the Energy Loss of
Relativistic Heavily Ionizing Particles,
Rev.Mod.Phys.52(1980)121-173.
- J.F.Ziegler, J.P.Biersack and U.Littmark,
The Stopping and Ranges of Ions in Solids, Pergamon Press, New
York 1985.
[ top ]
[ top ]
[ top ]
[ top ]
[ top ]
IAEA0970/01
source program mag tapeSTOPOW Source program S1 to S7 SRCTPload module mag tapeSTOPOW Executable Image LODTP
test-case data mag tape DATTP
miscellaneous mag tapeREAD.ME File MISTP
Keywords: particle interactions.