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chinese Physics c 2014年第9期38卷 1-4页

作者： K.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.g.ab A.V.gritsan c.g.ojean D.E.groom M.grnewald 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. University of Minnesota School of Physics and Astronomy116 Church St.S.E.MinneapolisMN 55455USA University of Maryland Department of PhysicsCollege ParkMD 20742-4111USA Albert Einstein center for Fundamental Physics Universitat BernCH-3012 BernSwitzerland Lab.Nazionali di Frascati dell'INFN CP 13via E.Fermi40I-00044 Frascati(Roma)Italy Departement de physique Universite de MontrealC.P.6128succ.centre-villeMontreal(Quebec) H3C 3J7Canada Pacific Northwest National Laboratory 902 Battelle BoulevardRichlandWA 99352USA Department of Physics and Astronomy University of OklahomaNormanOK 73019USA Department of Physics University of WisconsinMadisonWI 53706USA Physics Division Lawrence Berkeley National Laboratory1 Cyclotron RoadBerkeleyCA 94720USA cERN European Organization for Nuclear ResearchCH-1211 Geneve 23Switzerland Department of Physics The Ohio State University191 W.Woodruff Ave.ColumbusOH 43210 cOMPAS group Institute for High Energy PhysicsRU- 142284ProtvinoRussia LPNHE IN2P3-CNRS et Universites de Paris 6 et 7F-75252 ParisFrance Max-Planck-Institute of Physics 80805 MunichGermany Department of Physics University of WashingtonSeattleWA 98195USA Ludwig-Maximilians-Universitat Fakultdt für PhysikSchellingstr.4D-80799 MünchenGermany Enrico Fermi Institute and Department of Physics University of ChicagoChicagoIL 60637-1433USA Department of Physics Syracuse UniversitySyracuseNY13244USA Department of Physics Columbia University538 W.120th StreetNew YorkNY10027 USA High Energy Physics group Blackett LaboratoryImperial CollegePrince Consort RoadLondon SW7 2AZUK Jefferson Lab 12000 Jefferson Ave.Newport NewsVA 23606USA Department of Physics University of VirginiaPO Box 400714CharlottesvilleVA 22904USA Fermi National Accelerator Laboratory P.O.Box 500BataviaIL 60510USA Kavli Institute for cosmological Physics University of ChicagoChicagoIL 60637-1433USA Department of Physics and Astronomy University of SussexFalmerBrighton BN1 9QHUK Department o

The Review summarizes much of particle physics and cosmology. Using data from previous editions, plus 3,283 new measurements from 899 papers, we list, evaluate, and average measured properties of gauge bosons and the recently discovered Higgs boson, leptons, quarks, mesons, and baryons. We summarize searches for hypothetical particles such as heavy neutrinos, supersymmetric and technicolor particles, axions, dark photons, etc. All the particle properties and search limits are listed in Summary Tables. We also give numerous tables, figures, formulae, and reviews of topics such as Supersymmetry, Extra Dimensions, Particle Detectors, Probability, and Statistics. Among the 112 reviews are many that are new or heavily revised including those on： Dark Energy, Higgs Boson Physics, Electroweak Model, Neutrino cross Section Measurements, Monte carlo Neutrino generators, Top Quark, Dark Matter, Dynamical Electroweak Symmetry Breaking, Accelerator Physics of colliders, High-Energy collider Parameters, Big Bang Nucleosynthesis, Astrophysical constants and cosmological Parameters. A booklet is available containing the Summary Tables and abbreviated versions of some of the other sections of this full Review. All tables, listings, and reviews （and errata） are also available on the Particle Data group website： http ：//pdg. lbl. gov.

关键词： REVIEW OF PARTIcLE PHYSIcS

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Variable High-Order Multiblock Overlapping grid Methods for Mixed Steady and Unsteady Multiscale Viscous Flows,Part II:Hypersonic Nonequilibrium Flows

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communications in computational Physics 2013年第2期13卷 583-602页

作者： Andrea Lani Björn Sjögreen H.c.Yee William D.Henshaw NASA ames/Stanford centre for Turbulence Research Palo AltoCAUSA Lawrence Livermore National Laboratory LivermoreCAUSA MS 258-5 NASA Ames Research CenterMoffett FieldCAUSA

The variable high-order multiblock overlapping(overset)grids method of Sj¨ogreen&Yee[cicP,Vol.5,2009]for a perfect gas has been extended to nonequilibrium *** work makes use of the recently developed high-order well-balanced shock-capturing schemes and their filter counterparts[Wang et al.,***.,2009,2010]that exactly preserve certain non-trivial steady state solutions of the chemical nonequilibrium governing *** turbulence with strong shocks and flows containing both steady and unsteady components is best treated by mixing of numerical methods and switching on the appropriate scheme in the appropriate subdomains of the flow fields,even under the multiblock grid or adaptive grid refinement *** low dissipative sixth-or higher-order shock-capturing filter methods are appropriate for unsteady turbulence with shocklets,second-and thirdorder shock-capturing methods are more effective for strong steady or nearly steady shocks in terms of *** is anticipated that our variable high-order overset grid framework capability with its highly modular design will allow for an optimum synthesis of these new algorithms in such a way that the most appropriate spatial discretizations can be tailored for each particular region of the *** this paper some of the latest developments in single block high-order filter schemes for chemical nonequilibrium flows are applied to overset grid *** numerical approach is validated on a number of test cases characterized by hypersonic conditions with strong shocks,including the reentry flow surrounding a 3D Apollo-like NASA crew Exploration Vehicle that might contain mixed steady and unsteady components,depending on the flow conditions.

关键词： Unstructured mesh hypersonic flows thermo-chemical nonequilibrium residual distribution schemes double cone

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Finite Element Analysis of Femoral Strains in Older Adults During Stair Ascent and Descent

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Journal of Science in Sport and Exercise 2022年第2期4卷 168-179页

作者： chen Deng Jason c.g.llette Timothy R.Derrick Division of Sport Biomechanics School of Sport ScienceBeijing Sport UniversityNo.48Xinxi RoadBeijing 100084People’s Republic of China Department of Kinesiology Iowa State UniversityAmesIAUSA

Purpose Understanding the femur load environment during daily activity is necessary for the understanding of risk of femoral pain,pain related falls,and femoral fractures,which could help the design of osteogenic exercises or the preventa-tive methods for older *** Using the finite element femur analysis,this study was to estimate the femoral strains at 9 cross-sections along the long axis of femur for stair ascent and descent(n=17;age:50-65 years).Motion analysis and inverse dynamics were com-bined with musculoskeletal modelling and optimization,then were used as input to a 3-D femur model to estimate femoral *** at the hip contact force peaks were *** The compressive and tensile strains during stair descent were greater than ascent for all or most cross-sections,especially for the proximal cross-sections of the femur:stair ascent produced−324.0±103.8 to−483.7±191.0μεcompressive strains and descent produced−608.8±288.4 to 1016.0±444.1με;stair ascent produced 336.2±105.4 to 391.8±136.9μεtensile strains and descent produced 546.9±252.8 to 741.7±333.6με.conclusion Strains represent the material deformation effect on the bone due to the sum of all the bone external *** bone strains could help future studies analyze load conditions in a more comprehensive way for other physical activities,which predicts the risk of stress fractures and tests if alternative methods(gait type change)could reduce stress and strain effectively.

关键词： Femoral cross-sections Finite element method Bone strains Stair ascent and descent Older adults

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Machine learning guided discovery of ternary compounds involving La and immiscible co and Pb elements

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npj computational Materials 2022年第1期8卷 2462-2470页

作者： Renhai Wang Weiyi Xia Tyler JSlade Xinyu Fan Huafeng Dong Kai-Ming Ho Paul c.canfield cai-Zhuang Wang School of Physics and Optoelectronic Engineering Guangdong University of Technology510006GuangzhouChina Department of Physics and Astronomy Iowa State UniversityAmesIA50011USA ames Laboratory-USDOE Iowa State UniversityAmesIA50011USA Department of Physics University of Science and Technology of China230026HefeiChina

Ternary compounds with an immiscible pair of elements are relatively unexplored but promising for novel quantum materials *** what third element and its ratio that can be added to make stable ternary compounds out of an immiscible pair of elements remains a great *** this work,we combine a machine learning(ML)method with ab initio calculations to efficiently search for the energetically favorable ternary La-co-Pb compounds containing immiscible elements co and *** previously reported structures are correctly captured by our ***,we predict a ground state La_(3)coPb compound and 57 low-energy La-co-Pb ternary *** to synthesize La_(3)coPb via multiple techniques produce mixed or multi-phases samples with,at best,ambiguous signals of the predicted lowest-energy La_(3)coPb and the second lowest-energy La_(18)co_(28)Pb_(3)*** calculated results of gibbs free energy are consistent with experiments,and will provide very useful guidance for further experimental synthesis.

关键词： elements immiscible ternary

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Metal intercalation-induced selective adatom mass transport on graphene

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Nano Research 2016年第5期9卷 1434-1441页

作者： Xiaojie Liu cai-Zhuang Wang Myron Hupalo Hai-Qing Lin Kai-Ming Ho Patricia A. Thiel Michael c. Tringides center for Quantum Science and School of Physics Northeast Normal University Changchun 730777 China ames Laboratory-U.S. Department of Energy and Department of Physics and Astronomy Iowa State University Ames IA 50011 USA Beijing computational Science Research center Beijing 100084 China ames Laboratory-U.S. Department of Energy Department of Chemistry and Department of Materials Science and Engineering Iowa State University Ames IA 50011 USA

Recent experiments indicate that metal intercalation is a very effective method to manipulate the graphene-adatom interaction and control metal nanostructure formation on graphene. A key question is mass transport, i.e., how atoms deposited uniformly on graphene populate different areas depending on the local intercalation. Using first-principles calculations, we show that partially intercalated graphene, with a mixture of intercalated and pristine areas, can induce an alternating electric field because of the spatial variations in electron doping, and thus, an oscillatory electrostatic potential. This alternating field can change normal stochastic adatom diffusion to biased diffusion, leading to selective mass transport and consequent nucleation, on either the intercalated or pristine areas, depending on the charge state of the adatoms.

关键词： graphene intercalation electrostatic potential selective adsorption first-principle calculation

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Total Hadronic cross Sections

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chinese Physics c 2014年第9期 537-540页

作者： K.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 University of Minnesota School of Physics and Astronomy 116 church St.S.E. Minneapolis MN 55455 USA University of Maryland Department of Physics college Park MD 20742-4111 USA Albert Einstein center for Fundamental Physics Universitat Bern cH-3012 Bern Switzerland Lab.Nazionali di Frascati dell'INFN cP 13 via E.Fermi 40 I-00044 Frascati(Roma) Italy Departement de physique Universite de Montreal c.P.6128 succ.centre-ville Montreal(Quebec) H3c 3J7 canada Pacific Northwest National Laboratory 902 Battelle Boulevard Richland WA 99352 USA Department of Physics and Astronomy University of Oklahoma Norman OK 73019 USA Department of Physics University of Wisconsin Madison WI 53706 USA Physics Division Lawrence Berkeley National Laboratory 1 cyclotron Road Berkeley cA 94720 USA cERN European Organization for Nuclear Research cH-1211 geneve 23 Switzerland Department of Physics The Ohio State University 191 W.Woodruff Ave. columbus OH 43210 cOMPAS group Institute for High Energy Physics RU- 142284 Protvino Russia LPNHE IN2P3-cNRS et Universites de Paris 6 et 7 F-75252 Paris France Max-Planck-Institute of Physics 80805 Munich germany Department of Physics University of Washington Seattle WA 98195 USA Ludwig-Maximilians-Universitat Fakultdt für Physik Schellingstr.4 D-80799 München germany Enrico Fermi Institute and Department of Physics University of chic.g. chic.g. IL 60637-1433 USA Department of Physics Syracuse University Syracuse NY 13244 USA Department of Physics columbia University 538 W.120th Street New York NY 10027 USA High Energy Physics group Blackett Laboratory Imperial college Prince consort Road London SW7 2AZ UK Jefferson Lab 12000 Jefferson Ave. Newport News VA 23606 USA Department of Physics University of Virginia PO Box 400714 charlottesville VA 22904 USA Fermi National Accelerator Laboratory P.O.Box 500 Batavia IL 60510 USA Kavli Institute for cosmological Physics University of chic.g. chic.g. IL 60637-1433 USA Department of Physics and Astronomy University of Sussex Falmer Brighton BN1 9QH UK Department o

(Updated September 2013,cOMPAS group,fflEP,Protvino)This updated version of the total hadronic cross sections review is based on the first half of 2013 update of the database for total cross section and the ratio of the real-to-imaginary parts of the forward elastic scattering hadronic *** data on total pp coUisions cross sections from cERN-LHc-TOTEM[1]and new data from cosmic rays experiment PAO[2]were *** use a procedure for ranking models as described in[3]to identify the safest parameterizations for ***,the models giving the best fit of accelerator data also reproduce the experimental cosmic ray nucleon-nucleon data extracted from nucleon-air data with no

关键词： Total Hadronic cross Sections data

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High-energy collider parameters

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chinese Physics c 2014年第9期 392-396页

作者： K.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 University of Minnesota School of Physics and Astronomy 116 church St.S.E. Minneapolis MN 55455 USA University of Maryland Department of Physics college Park MD 20742-4111 USA Albert Einstein center for Fundamental Physics Universitat Bern cH-3012 Bern Switzerland Lab.Nazionali di Frascati dell'INFN cP 13 via E.Fermi 40 I-00044 Frascati(Roma) Italy Departement de physique Universite de Montreal c.P.6128 succ.centre-ville Montreal(Quebec) H3c 3J7 canada Pacific Northwest National Laboratory 902 Battelle Boulevard Richland WA 99352 USA Department of Physics and Astronomy University of Oklahoma Norman OK 73019 USA Department of Physics University of Wisconsin Madison WI 53706 USA Physics Division Lawrence Berkeley National Laboratory 1 cyclotron Road Berkeley cA 94720 USA cERN European Organization for Nuclear Research cH-1211 geneve 23 Switzerland Department of Physics The Ohio State University 191 W.Woodruff Ave. columbus OH 43210 cOMPAS group Institute for High Energy Physics RU- 142284 Protvino Russia LPNHE IN2P3-cNRS et Universites de Paris 6 et 7 F-75252 Paris France Max-Planck-Institute of Physics 80805 Munich germany Department of Physics University of Washington Seattle WA 98195 USA Ludwig-Maximilians-Universitat Fakultdt für Physik Schellingstr.4 D-80799 München germany Enrico Fermi Institute and Department of Physics University of chic.g. chic.g. IL 60637-1433 USA Department of Physics Syracuse University Syracuse NY 13244 USA Department of Physics columbia University 538 W.120th Street New York NY 10027 USA High Energy Physics group Blackett Laboratory Imperial college Prince consort Road London SW7 2AZ UK Jefferson Lab 12000 Jefferson Ave. Newport News VA 23606 USA Department of Physics University of Virginia PO Box 400714 charlottesville VA 22904 USA Fermi National Accelerator Laboratory P.O.Box 500 Batavia IL 60510 USA Kavli Institute for cosmological Physics University of chic.g. chic.g. IL 60637-1433 USA Department of Physics and Astronomy University of Sussex Falmer Brighton BN1 9QH UK Department o

HIgH-ENERgY cOLLIDER PARAMETERS:e+e-colliders（I）Updated in September 2013 with numbers received from representatives of the colliders（contact ***,LBNL）.The table shows parameter values as achieved by July 1,*** are,where appropriate,r.m.s.;unless noted otherwise,energies refer to beam energy;H and V indicate horizontal and vertical directions;*** for *** for the defunct SPEAR,DORIS,PETRA,PEP,TRISTAN,and VEPP-2M colliders may be found in our 1996 edition（***.D54,1 July 1996,Part I）.

关键词： LHc Pb High-energy collider parameters length cERN BEPc high MHz exp cell KEK

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High-throughput reaction engineering to assess the oxidation stability of MAX phases

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npj computational Materials 2021年第1期7卷 20-32页

作者： D.Sauceda P.Singh A.R.Falkowski Y.chen T.Doung g.Vazquez M.Radovic R.Arroyave Department of Materials Science & Engineering Texas A&M UniversityCollege StationTX 77843USA Department of Mechanical Engineering Texas A&M UniversityCollege StationTX 77843USA ames Laboratory US Department of EnergyIowa State UniversityAmesIA50011USA

The resistance to oxidizing environments exhibited by some Mn+1AXn(MAX)phases stems from the formation of stable and protective oxide layers at high operating *** MAX phases are hexagonally arranged layered nitrides or carbides with general formula M_(n+1)AX_(n),n=1,2,3,where M is early transition elements,A is A block elements,and X is c/*** attempts to model and assess oxide phase stability in these systems has been limited in scope due to higher computational *** address the issue,we developed a machine-learning driven high-throughput framework for the fast assessment of phase stability and oxygen reactivity of 211 chemistry MAX phase M_(2)*** proposed scheme combines a sure independence screening sparsifying operator-based machine-learning model in combination with grand-canonical linear programming to assess temperaturedependent gibbs free energies,reaction products,and elemental chemical activity during the oxidation of MAX *** thermodynamic stability,and chemical activity of constituent elements of Ti_(2)Alc with respect to oxygen were fully assessed to understand the high-temperature oxidation *** predictions are in good agreement with oxidation experiments performed on Ti_(2)*** were also able to explain the metastability of Ti_(2)Sic,which could not be synthesized experimentally due to higher stability of competing *** generality of the proposed approach,we discuss the oxidation mechanism of cr_(2)*** insights of oxidation behavior will enable more efficient design and accelerated discovery of MAX phases with maintained performance in oxidizing environments at high temperatures。

关键词： stability MAX maintained

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THE cKM QUARK-MIXINg MATRIX

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chinese Physics c 2014年第9期38卷 214-222页

12.1. Introduction The masses and mixings of quarks have a common origin in the Standard Model （SM）. They arise from the Yukawa interactions with the Higgs condensate,

关键词： QcD THE cKM QUARK-MIXINg MATRIX cKM SM

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b MESONS

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chinese Physics c 2014年第9期 1336-1367+547页

作者： K.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.g.ab A.V.gritsan c.g.ojean D.E.groom M.grnewald 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. University of Minnesota School of Physics and Astronomy 116 church St.S.E. Minneapolis MN 55455 USA University of Maryland Department of Physics college Park MD 20742-4111 USA Albert Einstein center for Fundamental Physics Universitat Bern cH-3012 Bern Switzerland Lab.Nazionali di Frascati dell'INFN cP 13 via E.Fermi 40 I-00044 Frascati(Roma) Italy Departement de physique Universite de Montreal c.P.6128 succ.centre-ville Montreal(Quebec) H3c 3J7 canada Pacific Northwest National Laboratory 902 Battelle Boulevard Richland WA 99352 USA Department of Physics and Astronomy University of Oklahoma Norman OK 73019 USA Department of Physics University of Wisconsin Madison WI 53706 USA Physics Division Lawrence Berkeley National Laboratory 1 cyclotron Road Berkeley cA 94720 USA cERN European Organization for Nuclear Research cH-1211 geneve 23 Switzerland Department of Physics The Ohio State University 191 W.Woodruff Ave. columbus OH 43210 cOMPAS group Institute for High Energy Physics RU- 142284 Protvino Russia LPNHE IN2P3-cNRS et Universites de Paris 6 et 7 F-75252 Paris France Max-Planck-Institute of Physics 80805 Munich germany Department of Physics University of Washington Seattle WA 98195 USA Ludwig-Maximilians-Universitat Fakultdt für Physik Schellingstr.4 D-80799 München germany Enrico Fermi Institute and Department of Physics University of chic.g. chic.g. IL 60637-1433 USA Department of Physics Syracuse University Syracuse NY 13244 USA Department of Physics columbia University 538 W.120th Street New York NY 10027 USA High Energy Physics group Blackett Laboratory Imperial college Prince consort Road London SW7 2AZ UK Jefferson Lab 12000 Jefferson Ave. Newport News VA 23606 USA Department of Physics University of Virginia PO Box 400714 charlottesville VA 22904 USA Fermi National Accelerator Laboratory P.O.Box 500 Batavia IL 60510 USA Kavli Institute for cosmological Physics University of chic.g. chic.g. IL 60637-1433 USA Department of Physics and Astronomy University of Sussex Falmer Brighton BN1 9QH UK Department o

关键词： HBc MESONS

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