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Accelerator physics codes

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882:(IBS) which is a direct particle-particle interaction to wakefields which are mediated by the vacuum chamber wall of the machine the particles are traveling in. In general, the effect of direct particle-particle interactions is less with higher energy particle beams. At very low energies, space charge has a large effect on a particle beam and thus becomes hard to calculate. See below for a list of programs that can handle low energy space charge forces. 1096:
Given the variety of modeling tasks, there is not one common data format that has developed. For describing the layout of an accelerator and the corresponding elements, one uses a so-called "lattice file". There have been numerous attempts at unifying the lattice file formats used in different codes.
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The self interaction (e.g. space charge) of the charged particle beam can cause growth of the beam, such as with bunch lengthening, or intrabeam scattering. Additionally, space charge effects may cause instabilities and associated beam loss. Typically, at relatively low energies (roughly for energies
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production. When performing a modeling task for any accelerator operation, the results of charged particle beam dynamics simulations must feed into the associated application. Thus, for a full simulation, one must include the codes in associated applications. For particle physics, the simulation
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For many applications it is sufficient to track a single particle through the relevant electric and magnetic fields. Old codes no longer maintained by their original authors or home institutions include: BETA, AGS, ALIGN, COMFORT, DESIGN, DIMAD, HARMON, LEGO, LIAR, MAGIC, MARYLIE, PATRICIA, PETROS,
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is a field of physics encompassing all the aspects required to design and operate the equipment and to understand the resulting dynamics of the charged particles. There are software packages associated with each domain. The 1990 edition of the Los Alamos Accelerator Code Group's compendium provides
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Industrial and medical accelerators represent another area of important applications. A 2013 survey estimated that there were about 27,000 industrial accelerators and another 14,000 medical accelerators world wide, and those numbers have continued to increase since that time. Codes used at those
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The file formats used in MAD may be the most common, with translation routines available to convert to an input form needed for a different code. Associated with the Elegant code is a data format called SDDS, with an associated suite of tools. If one uses a Matlab-based code, such as Accelerator
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modelling software such as SRW, Shadow, McXTrace, or Spectra. Bmad can model both X-rays and charged particle beams. The x-rays are used in an experiment which may be modeled and analyzed with various software, such as the DAWN science platform. OCELOT also includes both synchrotron radiation
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When two beams collide, the electromagnetic field of one beam will then have strong effects on the other one, called beam-beam effects. So called "weak-strong" simulations model one beam (called the "strong" beam since it affects the other beam) as a fixed distribution (typically a Gaussian
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algorithms. Space charge effects lessen at higher energies so at higher energies the space charge effects may be modeled using simpler algorithms that are computationally much faster than the algorithms used at lower energies. Codes that handle low energy space charge effects include:
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RACETRACK, SYNCH, TRANSPORT, TURTLE, and UAL. Some legacy codes are maintained by commercial organizations for academic, industrial and medical accelerator facilities that continue to use those codes. TRACE 3-D and TURTLE are among the historic codes that are commercially maintained.
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One unification attempt is the Accelerator Markup Language, and the Universal Accelerator Parser. Another attempt at a unified approach to accelerator codes is the UAL or Universal Accelerator Library. As of 2023 neither of these formats are maintained.
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To control the charged particle beam, appropriate electric and magnetic fields must be created. There are software packages to help in the design and understanding of the magnets, RF cavities, and other elements that create these fields. Codes include
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Appleby, Robert; Barlow, Roger J.; Bungau, Adriana; Fallon, James; Kruecker, Dirk; Molson, James; Rafique, Haroon; Rowan, Scott; Serluca, Maurizio; Sjøbæk, Kyrre Ness; Toader, Adina; Tygier, Sam; Walker, Nick; Wolski, Andy (2019). "Merlin++".
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The electro-magnetic interaction between the beam and the vacuum chamber wall enclosing the beam are known as wakefields. Wakefields produce forces that affect the trajectory of the particles of the beam and can potentially destabilize the
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Appleby, Robert; Barlow, Roger J.; Bungau, Adriana; Fallon, James; Kruecker, Dirk; Molson, James; Rafique, Haroon; Rowan, Scott; Serluca, Maurizio; Sjøbæk, Kyrre Ness; Toader, Adina; Tygier, Sam; Walker, Nick; Wolski, Andy (2019-03-03).
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distribution) which interacts with the particles of the other "weak" beam. This greatly simplifies the simulation. A full "strong-strong" simulation is more complicated and takes more simulation time. Strong-strong codes include
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summaries of more than 200 codes. Certain codes are still in use today, although many are obsolete. Another index of existing and historical accelerator simulation codes is located at the CERN CARE/HHH website.
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Computer Codes for Particle Accelerator Design and Analysis: A Compendium, Second Edition, Helen Stokes Deaven and Kwok Chi Dominic Chen, Los Alamos National Laboratory report number LA-UR-90-1766, 290 pages
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Construction of Taylor series maps to high order that can be used for simulating particle motion and also can be used for such things as extracting single particle resonance strengths.
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facilities vary considerably and often include a mix of traditional codes and custom codes developed for specific applications. The Advanced Orbit Code (AOC) developed at
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For the interchange of particle positions and electromagnetic fields, the OpenPMD standard defines a format which can then be implemented with a file format like
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Can simulate the beam-beam interaction with the simplification that one beam is essentially fixed in size. See below for a list of strong-strong interaction codes.
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The interactions between the particles in the beam can have important effects on the behavior, control and dynamics. Collective effects take different forms from
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where the relativistic gamma factor is less than 10 or so), the Poisson equation is solved at intervals during the tracking using
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For a synchrotron radiation facility, for example, the electron beam produces an x-ray beam that then travels down a
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This is not the same as simulating the effect of synchrotron radiation emission on the particles being tracked.
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There are many applications of particle accelerators. For example, two important applications are elementary
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is a complex machine that takes elementary charged particles and accelerates them to very high energies.
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before reaching the experiment. Thus, the electron beam modeling software must interface with the
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An important class of collective effects may be summarized in terms of the beams response to an "
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Open source and object oriented coding to make it relatively easy to extend the capabilities.
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Can simulate the effect of synchrotron radiation emission on the particles being tracked.
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ImpactX: an s-based beam dynamics code including space charge effects from Berkeley Lab
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Can track (ray trace) a particle through arbitrary electromagnetic fields.
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ELEGANT, a Flexible SDDS Compliant Code for Accelerator Simulation
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THE MULTIPARTICLE TRACKING CODES SBTRACK AND MBTRACK. R. Nagaoka,
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AOC, A Beam Dynamics Code for Medical and Industrial Accelerators
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Reproduces PTC's unique beam line structures. Simulates X-rays.
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Other: beam-matter interactions, sliced-macroparticle tracking
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session on accelerator business opportunities at IPAC-17
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List of codes from UCLA Particle Beam Physics Laboratory
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Toolbox, one has available all the tools within Matlab.
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SAMM, another Matlab based tracking code, at liv.ac.uk
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Arbitrary-order differential-algebraic transfer maps
906:) produced by the acceleration of charged particles. 1902:, Gitter drueber, fertig ist die Laube at gdfidl.de 1125:may be continued in a detector with a code such as 2092:R. W. Hamm and M. E. Hamm, Industrial Accelerators 1978:See references by N. Malitsky and Talman such as 1768: 1766: 1764: 1631:General Particle Tracer (GPT) from Pulsar Physics 991:At higher energies, space charge effects include 28: 2123: 1292: 1290: 1092:Lattice description and data interchange issues 1761: 1112:Codes in applications of particle accelerators 1033: 1287: 1865: 1863: 1890:, Computer Simulation Technology at cst.com 1317: 1315: 1141:calculation and x-ray propagation models. 1968:Description of AML and UAP at cornell.edu 1860: 1757:http://www.osti.gov/scitech/biblio/896444 1755:TRANFT user's manual, BNL--77074-2006-IR 1312: 1066:Magnet and other hardware-modeling codes 601:LINAC including wakefields simulations. 1017:"Strong-strong" beam-beam effects codes 2124: 1944:"OPERA at magnet-design-software.com" 1932:CST Electromagnetic Studio at cst.com 1377:"MAD - Methodical Accelerator Design" 1371: 1369: 1340: 930: 1404:"Github Merlin-Collaboration/Merlin" 1326: 563:runs on laptops and on x 10k cores. 1598:Zgoubi home page at sourceforge.net 1283:https://github.com/carmignani/festa 13: 2037:"Spectra home page at riken.go.jp" 2025:McXTrace home page at mcxtrace.org 1366: 14: 2148: 1643:"IMPACT homepage at Berkeley Lab" 859:Weak-Strong Beam-Beam Interaction 188:For particle-matter simulations. 54:Weak-Strong Beam-Beam Interaction 875:Higher Energy Collective effects 60:Higher Energy Collective Effects 37:Major maintained codes include: 2107: 2096: 2085: 2065: 2054: 2029: 2018: 2007: 1996: 1985: 1972: 1961: 1936: 1925: 1914: 1905: 1893: 1874: 1849: 1817: 1806:from the original on 2022-01-20 1788: 1777: 1749: 1738: 1727: 1716: 1705: 1694: 1683: 1671: 1660: 1635: 1624: 1613: 1591: 1580: 1569: 1558: 1538: 1527: 1516: 1502: 1491: 1480: 1439: 1394: 1354: 1171:Comparison of Accelerator Codes 2137:Scientific simulation software 1921:COMSOL home page at comsol.com 1734:Synergia home page at fnal.gov 1487:OCELOT collaboration on GitHub 1301: 1275: 1264: 1253: 1242: 1211: 1193: 1183: 997:coherent synchrotron radiation 867:Electromagnetic Field Tracking 343:MAD8 and MAD-X (includes PTC) 57:Electromagnetic Field Tracking 29:Single particle dynamics codes 1: 2061:DAWN science platform website 1587:SixTrack home page at cern.ch 1176: 887:Synchrotron radiation effects 150:For space-charge simulations 63:Synchrotron Radiation Effects 7: 2073:"An Introduction to Ocelot" 2014:Shadow home page at esrf.eu 1690:ORBIT home page at ornl.gov 1249:libtracy at sourceforge.net 1152: 1034:Impedance computation codes 10: 2153: 1992:OpenPMD GitHub repository. 1870:ACE3P at slac.stanford.gov 1546:"GitHub - jceepf/fpp_book" 1510:"Home · Wiki · OPAL / SRC" 1205:December 13, 2012, at the 833: 413:Extensible, embeds LuaJIT 80:Accelerator Toolbox (AT), 1843:10.1016/j.jcp.2004.01.008 1534:Propaga GitHub repository 1200:the CERN CARE/HHH website 842:Tracking of a particle's 2003:SRW home page at esrf.eu 1856:ABCI home page at kek.jp 1825:"BeamBeam3D GitHub Repo" 45:Single Particle Dynamics 1565:SAD home page at kek.jp 1745:TraceWin at CEA Saclay 1468:Cite journal requires 1453:10.5281/zenodo.2598428 1427:Cite journal requires 1412:10.5281/zenodo.2598428 1260:AccelSoft Inc. website 1980:this manual from 2002 1701:PyORBIT Collaboration 1620:PIC solver at cst.com 1147:Ion Beam Applications 1122:synchrotron radiation 900:synchrotron radiation 898:Ability to track the 880:Intrabeam Scattering 193:Bmad (contains PTC) 18:particle accelerator 2132:Accelerator physics 2081:. 16 December 2021. 1609:Zgoubi Users' Guide 1078:COMSOL Multiphysics 993:Touschek scattering 22:Accelerator physics 1886:2018-07-29 at the 1796:"GUINEA-PIG Twiki" 1679:PAC '09 paper here 1164:2018-07-17 at the 931:Space charge codes 895:Radiation Tracking 66:Radiation Tracking 831: 830: 2144: 2116: 2111: 2105: 2100: 2094: 2089: 2083: 2082: 2069: 2063: 2058: 2052: 2051: 2049: 2048: 2039:. 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Index

particle accelerator
Accelerator physics
BOINC
spin
Intrabeam Scattering
synchrotron radiation
X-rays
particle-in-cell
Touschek scattering
coherent synchrotron radiation
impedance
HDF5
particle physics
synchrotron radiation
Geant4
beamline
x-ray optics
Ion Beam Applications
List of codes from UCLA Particle Beam Physics Laboratory
Archived
Wayback Machine
Comparison of Accelerator Codes
the CERN CARE/HHH website
Archived
Wayback Machine
"user's guide"
the original
libtracy at sourceforge.net
AccelSoft Inc. website
ATcollab website

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