International conference on Computer Simulation of Radiation Effects in Solids

The conference on Computer Simulation of Radiation Effects in Solids (COSIRES) is a regularly occurring international scientific conference for presenting and discussing recent achievements in the advanced computer modelling of surface and bulk phenomena stimulated by all forms of energetic particle (ion, neutron, electron, ...) irradiation.[1][2] It is held biannually in different parts of the world, and has always attracted 100-120 attendees.

Scientific background

Radiation is omnipresent in nature, and utilized in numerous technological devices developed by man.

Cosmic rays penetrate the entire biosphere, and affect us e.g. in the form of breaking of chemical bonds in our body (a possible source for cancer) and by causing electric signals known as upset events in semiconductor components. Also, natural fission events occurring in minerals provide an important way for chronological dating of geologic samples via fission track dating.

Radiation occurs also in a wide variety of technological devices. Radiation damage is a serious problem in nuclear power plants, a problem that is estimated to be also significant in possible future fusion power plants. On the other hand, ion implantation is a key part of semiconductor device fabrication,[3] and electron beams are routinely used for cancer treatment. In many cases the radiation effects are in fact beneficial,[4] such as for defect engineering of semiconductors[5] and sputtering-based secondary ion mass spectrometry analysis of materials. In electron microscopes, beam damage is one of the key issues limiting the reliability of the results.[6]

Fundamental scientific understanding of radiation effects is often not accessible by experiments, since they occur on very small time and length scales. Due to the complex nature of radiation effects,[7] the theoretical work in the field has for a long time relied on computer simulations. Vigorous development of both computer hardware and theoretical methodologies which has occurred in recent years has pushed the field into the forefront of a modern science. Both for the detrimental and beneficial effects, it is very important to have good scientific understanding of the radiation effects, and obtaining such understanding is the primary aim of the COSIRES conference.

Topics covered

The COSIRES conference covers a wide range of topics, including the following.

Computational modeling of


Progress in the development of simulation techniques


Proceedings

The proceedings of the conference have traditionally been published in the peer-reviewed Elsevier journal Nuclear Instruments and Methods in Physics Research B. The proceedings include volumes 102, 180, 202, 228, 255, 267 [issue 18], 269 [issue 14] in this journal.

COSIRES conferences held

The complete list of COSIRES conferences held up to 2013 is as follows.

Conference Year Location Chairpersons
COSIRES-1 1992 Berlin, Germany Jochen P. Biersack
COSIRES-2 1994 Santa Barbara, California, USA Tomas Diaz de la Rubia
COSIRES-3 1996 Guildford, UK Roger Webb, Roger Smith
COSIRES-4 1998 Okayama, Japan Masao Doyama
COSIRES-5 2000 State College, Pennsylvania, USA Barbara Garrison
COSIRES-6 2002 Dresden, Germany Wolfhard Möller, Matthias Posselt, Hans-Ulrich Jäger
COSIRES-7 2004 Helsinki, Finland Kai Nordlund, Juhani Keinonen, Risto Nieminen
COSIRES-8 2006 Richland, Washington, USA William J. Weber, René Corrales, Ram Devanathan, Fei Gao, Howard L. Heinisch
COSIRES-9 2008 Beijing, China Tianmin Wang, Fei Gao, Wangyu Hu, Wensheng Lai, Guang-Hong Lu, Xiaotao Zu
COSIRES-10 2010 Krakow, Poland Zbigniew Postawa
COSIRES-11 2012 Sante Fe, New Mexico, USA Blas Uberuaga
COSIRES-12 2014 Alicante, Spain, Alicante, Spain María José Caturla

References

  1. Postawa, Zbigniew (2011). "Editorial". Nuclear Instruments and Methods in Physics Research Section B 269 (14): v. Bibcode:2011NIMPB.269D...5P. doi:10.1016/j.nimb.2011.05.021.
  2. Möller, Wolfhard; Matthias Posselt; Hans-Ulrich Jäger (2003). "Editorial". Nuclear Instruments and Methods in Physics Research Section B 202: vii–viii. Bibcode:2003NIMPB.202D...7M. doi:10.1016/S0168-583X(03)00510-X.
  3. Chason, Eric; S. T. Picraux and M. Poate and J. O. Borland and M. I. Current and T. {Diaz de la Rubia} and D. J. Eaglesham and O. W. Holland and M. E. Law and C. W. Magee and J. W. Mayer and J. Melngailis and A. F. Tasch (1997). "Ion beams in silicon processing and characterization". J. Appl. Phys 81: 6513–6561. Bibcode:1997JAP....81.6513C. doi:10.1063/1.365193. Cite uses deprecated parameter |coauthors= (help)
  4. Krasheninnikov, Arkady; Kai Nordlund (2010). "Ion and electron irradiation-induced effects in nanostructured materials". Journal of Applied Physics 107: 071301. Bibcode:2010JAP...107g1301K. doi:10.1063/1.3318261.
  5. Pichaud, B (2005). Gettering and Defect Engineering in Semiconductor Technology XI. Trans Tech Publications. ISBN 978-3-908451-13-6.
  6. Egerton, R. F.; P. Li; M. Malac (2004). "Radiation damage in the TEM and SEM". Micron 35 (6): 399–409. doi:10.1016/j.micron.2004.02.003. PMID 15120123.
  7. Averback, R. S.; T. Diaz de la Rubia (1998). "Displacement damage in irradiated metals and semiconductors". Solid State Physics 51: 281–402. doi:10.1016/s0081-1947(08)60193-9. Cite uses deprecated parameter |coauthors= (help)
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