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Recent progress of CERN RD50 Collaboration 被引量:1

Recent progress of CERN RD50 Collaboration
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摘要 The objective of the CERN RD50 Collaboration is to develop radiation hard semiconductor detectors for very high luminosity colliders, in particular, for the upgrade of the large hadron collider (LHC) which itself is scheduled to be operational in 2007. The approach of the RD50 has two major research lines, material engineering and device engineering. These are further subdivided into projects covering defect characterization and engineering, new detector materials, detector characterization, new detector structures and full detector systems. Presently, 264 members from 53 institutes are actively participating in the RD50 Collaboration. Detectors made of defect engineered substrates, e.g. high resistivity magnetic Czochralski (MCz-Si), epitaxial silicon (Epi-Si) on Czochralski silicon (Cz-Si) substrate, intentionally thermal donor (TD) compensated p-type MCz-Si and oxygen enriched (DOFZ) silicon, have been demonstrated by the RD50 Collaboration. An overview and highlights of the results of these defect engineering techniques were given in this report. The objective of the CERN RD50 Collaboration is to develop radiation hard semiconductor detectors for very high luminosity colliders, in particular, for the upgrade of the large hadron collider (LHC) which itself is scheduled to be operational in 2007. The approach of the RD50 has two major research lines, material engineering and device engineering. These are further subdivided into projects covering defect characterization and engineering, new detector materials, detector characterization, new detector structures and full detector systems. Presently, 264 members from 53 institutes are actively participating in the RD50 Collaboration. Detectors made of defect engineered substrates, e.g. high resistivity magnetic Czochralski (MCz-Si), epitaxial silicon (Epi-Si) on Czochralski silicon (Cz-Si) substrate, intentionally thermal donor (TD) compensated p-type MCz-Si and oxygen enriched (DOFZ) silicon, have been demonstrated by the RD50 Collaboration. An overview and highlights of the results of these defect engineering techniques were given in this report.
作者 P.LUUKKA
出处 《中国有色金属学会会刊:英文版》 CSCD 2006年第B01期133-136,共4页 Transactions of Nonferrous Metals Society of China
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  • 1GIANNOTTI F, et al. hep-ph/02004087.2002-04.
  • 2LINSTROEM G, et al. Radiation hard silicon detectorsdevelopments by the RIM8 (ROSE) collaboration [J]. Nuclear Instruments and Methods in Physics Research A, 2001,466: 308.
  • 3RUZIN A, et al. Comparison of radiation damage in silicon induced by proton and neutron irradiation [J]. IEEE Trans Nucl Sci, 1999,46(5): 1310.
  • 4HARKONEN J, et al. Processing of microstrip detectors on Czochralski grown high resistivity silicon substrates [J]. Nuclear Instruments and Methods in Physics Research A, 2003, 514:173-179.
  • 5RD50 Status Report 2002/2003, CERN-LHCC-2003-058.
  • 6RD50 Status Report 2004, CERN-LHCC-2004-031.
  • 7HARKONEN J, et al. Proton irradiation results of p+/n-/n+ Cz-Si detectors processed on p-type boron-doped substrates with thermal donor-induced space charge sign inversion [J]. Nuclear Instruments and Methods in Physics Research A, 2005, 552: 43-48.
  • 8PINTILIE I, et al. Stable radiation-induced donor generation and its influence on the radiation tolerance of silicon diodes [J]. Nuclear Instruments and Methods in Physics Research A, 2006, 556: 197-208.
  • 9OEHRLEIN G S. Silicon-oxygen complexes containing three oxygen atoms as the dominant thermal donor species in heat-treated oxygen-containing silicon [J]. J Appl Phys, 1983, 54: 5453.
  • 10WADA K. unified model for formation kinetics of oxygen thermal donors in silicon [J]. Phys Rev B, 1984, 10: 5884.

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  • 1J.Hrknen.Recent progress of CERN 39-cryogenic tracking detectors collaboration[J].中国有色金属学会会刊:英文版,2006,16(B01):137-140.
  • 2我国核应急组织机构和核应急体系进一步完善[J].环境,2012(5):32-33.
  • 3本刊编辑部.我国核应急组织机构和核应急体系进一步完善[J].华北电力技术,2012(4):6-6.
  • 4LIU KeXin.Recent progress in techniques utilized for particle accelerator[J].Science China(Physics,Mechanics & Astronomy),2012,55(12):2326-2330. 被引量:1
  • 5K.A.Olive,K.Agashe,C.Amsler,M.Antonelli,J.-F.Arguin,D.M.Asner,H.Baer,H.R.Band,R.M.Barnett,T.Basaglia,C.W.Bauer,J.J.Beatty,V.I.Belousov,J.Beringer,G.Bernardi,S.Bethke,H.Bichsel,O.Biebe,E.Blucher,S.Blusk,G.Brooijmans,O.Buchmueller,V.Burkert,M.A.Bychkov,R.N.Cahn,M.Carena,A.Ceccucci,A.Cerr,D.Chakraborty,M.-C.Chen,R.S.Chivukula,K.Copic,G.Cowan,O.Dahl,G.D'Ambrosio,T.Damour,D.de Florian,A.de Gouvea,T.DeGrand,P.de Jong,G.Dissertor,B.A.Dobrescu,M.Doser,M.Drees,H.K.Dreiner,D.A.Edwards,S.Eidelman,J.Erler,V.V.Ezhela,W.Fetscher,B.D.Fields,B.Foster,A.Freitas,T.K.Gaisser,H.Gallagher,L.Garren,H.-J.Gerber,G.Gerbier,T.Gershon,T.Gherghetta,S.Golwala,M.Goodman,C.Grab,A.V.Gritsan,C.Grojean,D.E.Groom,M.Grnewald,A.Gurtu,T.Gutsche,H.E.Haber,K.Hagiwara,C.Hanhart,S.Hashimoto,Y.Hayato,K.G.Hayes,M.Heffner,B.Heltsley,J.J.Hernandez-Rey,K.Hikasa,A.Hocker,J.Holder,A.Holtkamp,J.Huston,J.D.Jackson,K.F.Johnson,T.Junk,M.Kado,D.Karlen,U.F.Katz,S.R.Klein,E.Klempt,R.V.Kowalewski,F.Krauss,M.Kreps,B.Krusche,Yu.V.Kuyanov,Y.Kwon,O.Lahav,J.Laiho,P.Langacker,A.Liddle,Z.Ligeti,C.-J.Lin,T.M.Liss,L.Littenberg,K.S.Lugovsky,S.B.Lugovsky,F.Maltoni,T.Mannel,A.V.Manohar,W.J.Marciano,A.D.Martin,A.Masoni,J.Matthews,D.Milstead,P.Molaro,K.Monig,F.Moortgat,M.J.Mortonson,H.Murayama,K.Nakamura,M.Narain,P.Nason,S.Navas,M.Neubert,P.Nevski,Y.Nir,L.Pape,J.Parsons,C.Patrignani,J.A.Peacock,M.Pennington,S.T.Petcov,Kavli IPMU,A.Piepke,A.Pomarol,A.Quadt,S.Raby,J.Rademacker,G.Raffel,B.N.Ratcliff,P.Richardson,A.Ringwald,S.Roesler,S.Rolli,A.Romaniouk,L.J.Rosenberg,J,L.Rosner,G.Rybka,C.T.Sachrajda,Y.Sakai,G.P.Salam,S.Sarkar,F.Sauli,O.Schneider,K.Scholberg,D.Scott,V.Sharma,S.R.Sharpe,M.Silari,T.Sjostrand,P.Skands,J.G.Smith,G.F.Smoot,S.Spanier,H.Spieler,C.Spiering,A.Stahl,T.Stanev,S.L.Stone,T.Sumiyoshi,M.J.Syphers,F.Takahashi,M.Tanabashi,J.Terning,L.Tiator,M.Titov,N.P.Tkachenko,N.A.Tornqvist,D.Tovey,G.Valencia,G.Venanzoni,M.G.Vincter,P.Vogel,A.Vogt,S.P.Wakely,W.Walkowiak,C.W.Walter,D.R.Ward,G.Weiglein,D.H.Weinberg,E.J.Weinberg,M.White,L.R.Wiencke,C.G.Wohl,L.Wolfenstein,J.Womersley,C.L.Woody,R.L.Workman,A.Yamamoto,W.-M.Yao,G.P.Zeller,O.V.Zenin,J.Zhang,R.-Y.Zhu,F.Zimmermann,P.A.Zyla,G.Harper,V.S.Lugovsky,P.Schaffner.RADIOACTIVITY AND RADIATION PROTECTION[J].Chinese Physics C,2014,38(9):460-465.
  • 6爱民.PS四十年长盛不衰[J].高能物理参考资料,1996(5):19-22.
  • 7中国次临界能源堆物理设计及相关实验研究项目正式启动[J].核工程研究与设计,2010(3).
  • 8张涛,祖瑜.我国首次核事故应急演习“神盾-2009”成功举行[J].国防科技工业,2009(11):9-11. 被引量:1
  • 9王聚文.Some aspects in accelerator structure studies at SLAC[J].Chinese Physics C,2009,33(S2):96-101.
  • 10Sun Liangting Li Jinyu Ma Baohua Wang Hui Wang Pingzhi Zhang Xuezhen Feng Yucheng Zhang Zimin Li Xixia Shang Yong Liu Huiping Zhao Hongwei Ma Xinwen Song Mingtao Zhan Wenlong.Recent Progress of LAPECR2[J].近代物理研究所和兰州重离子加速器实验室年报:英文版,2006(1):148-148.

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