P. Grosse-Wiesmann
Stanford University
Network
Latest external collaboration on country level. Dive into details by clicking on the dots.
Publication
Featured researches published by P. Grosse-Wiesmann.
Physical Review Letters | 1990
S. Komamiya; Le Diberder F; G. S. Abrams; C.E. Adolphsen; D. Averill; J. Ballam; B. Barish; T. Barklow; B. A. Barnett; J. Bartelt; S. Bethke; D. Blockus; G. Bonvicini; A. M. Boyarski; B. Brabson; A. Breakstone; F. Bulos; P. R. Burchat; D. L. Burke; R. J. Cence; J. Chapman; M. Chmeissani; D. Cords; D. P. Coupal; P. D. Dauncey; H. DeStaebler; D. E. Dorfan; J. Dorfan; D.C. Drewer; R. Elia
We measured the differential jet-multiplicity distribution in {ital e}{sup +}{ital e}{sup {minus}} annihilation with the Mark II detector. This distribution is compared with the second-order QCD prediction and {alpha}{sub {ital s}} is determined to be 0.123{plus minus}0.009{plus minus}0.005 at {radical}{ital s}{approx}{ital M}{sub {ital Z}} (at the SLAC Linear Collider) and 0.149{plus minus}0.002{plus minus}0.007 at {radical}{ital s}=29 GeV (at the SLAC storage ring PEP). The running of {alpha}{sub {ital s}} between these two center-of-mass energies is consistent with the QCD prediction.
Nuclear Instruments & Methods in Physics Research Section A-accelerators Spectrometers Detectors and Associated Equipment | 1989
P. Grosse-Wiesmann
Abstract We investigate the possibility of colliding a linear accelerator electron beam with a particle beam stored in a circular storage ring. Such a scheme allows e + e − colliders with a center-of-mass energy of a few hundred GeV and eP colliders with a center-of-mass energy of several TeV. High luminosities are possible for both colliders.
Physics Letters B | 1989
W.B. Atwood; Isard Dunietz; P. Grosse-Wiesmann
Abstract The forward-backward asymmetry in e + e − annihilation induced by neutral currents allows an effective particle-antiparticle separation. This is used to define a simple CP violating observable. At the Z o resonance, where th production rates are high, polarized electrons may increase the forward-backward asymmetries by up to a factor six. The number of events necessary to establish a CP -violating effect with neutral B mesons is reduced by about an order of magnitude compared with the usual lepton tag method.
Physical Review Letters | 1990
S. Komamiya; F. Le Diberder; G. S. Abrams; C.E. Adolphsen; D. Averill; J. Ballam; B. Barish; T. Barklow; B. A. Barnett; J. Bartelt; S. Bethke; D. Blockus; G. Bonvicini; A. M. Boyarski; B. Brabson; A. Breakstone; F. Bulos; P. R. Burchat; D. L. Burke; R. J. Cence; J. Chapman; M. Chmeissani; D. Cords; D. P. Coupal; P. D. Dauncey; H. DeStaebler; D. E. Dorfan; J. Dorfan; D.C. Drewer; R. Elia
We measured the differential jet-multiplicity distribution in {ital e}{sup +}{ital e}{sup {minus}} annihilation with the Mark II detector. This distribution is compared with the second-order QCD prediction and {alpha}{sub {ital s}} is determined to be 0.123{plus minus}0.009{plus minus}0.005 at {radical}{ital s}{approx}{ital M}{sub {ital Z}} (at the SLAC Linear Collider) and 0.149{plus minus}0.002{plus minus}0.007 at {radical}{ital s}=29 GeV (at the SLAC storage ring PEP). The running of {alpha}{sub {ital s}} between these two center-of-mass energies is consistent with the QCD prediction.
Physical Review Letters | 1990
G. S. Abrams; C.E. Adolphsen; D. Averill; J. Ballam; B. Barish; T. Barklow; B. A. Barnett; J. Bartelt; S. Bethke; D. Blockus; G. Bonvicini; A. M. Boyarski; B. Brabson; A. Breakstone; F. Bulos; P. R. Burchat; D. L. Burke; R. J. Cence; J. Chapman; M. Chmeissani; D. Cords; D. P. Coupal; P. D. Dauncey; H. DeStaebler; D. E. Dorfan; J. Dorfan; D.C. Drewer; R. Elia; G.J. Feldman; D. Fernandes
Physical Review Letters | 1990
J.F. Kral; G. S. Abrams; C.E. Adolphsen; D. Averill; J. Ballam; B. Barish; T. Barklow; B. A. Barnett; J. Bartelt; S. Bethke; D. Blockus; G. Bonvicini; A. M. Boyarski; B. Brabson; A. Breakstone; F. Bulos; P. R. Burchat; D. L. Burke; R. J. Cence; J. Chapman; M. Chmeissani; D. Cords; D. P. Coupal; P. D. Dauncey; H. DeStaebler; D. E. Dorfan; J. Dorfan; D.C. Drewer; R. Elia; G.J. Feldman
Physical Review Letters | 1990
M. Swartz; G. S. Abrams; C.E. Adolphsen; D. Averill; J. Ballam; Barry C. Barish; T. Barklow; B. A. Barnett; J. Bartelt; S. Bethke; D. Blockus; G. Bonvicini; A. M. Boyarski; B. Brabson; A. Breakstone; F. Bulos; P. R. Burchat; D. L. Burke; R. J. Cence; J. Chapman; M. Chmeissani; D. Cords; D. P. Coupal; P. D. Dauncey; H. DeStaebler; D. E. Dorfan; J. Dorfan; D.C. Drewer; R. Elia; G.J. Feldman
Physical Review Letters | 1990
S. R. Wagner; D.A. Hinshaw; R. A. Ong; A. Snyder; G. S. Abrams; C.E. Adolphsen; C. Akerlof; J. P. Alexander; M. P. Alvarez; D. Amidei; A. Baden; J. Ballam; B. Barish; T. Barklow; B. A. Barnett; J. Bartelt; D. Blockus; G. Bonvicini; A. M. Boyarski; J. Boyer; B. Brabson; A. Breakstone; J. M. Brom; F. Bulos; P. R. Burchat; D. L. Burke; F. Butler; F. Calvino; R. J. Cence; J. Chapman
Physical Review Letters | 1990
T. Barklow; G. S. Abrams; C.E. Adolphsen; D. Averill; J. Ballam; Barry C. Barish; B. A. Barnett; J. Bartelt; S. Bethke; D. Blockus; G. Bonvicini; A. M. Boyarski; B. Brabson; A. Breakstone; F. Bulos; P. R. Burchat; D. L. Burke; R. J. Cence; J. Chapman; M. Chmeissani; D. Cords; D. P. Coupal; P. D. Dauncey; H. DeStaebler; D. E. Dorfan; J. Dorfan; D.C. Drewer; R. Elia; G.J. Feldman; D. Fernandes
Physical Review Letters | 1991
J J Gomez-Cadenas; C. A. Heusch; G. S. Abrams; C.E. Adolphsen; C. Akerlof; J. P. Alexander; M. P. Alvarez; D. Amidei; A. Baden; J. Ballam; B. Barish; T. Barklow; B. A. Barnett; J. Bartelt; D. Blockus; G. Bonvicini; A. M. Boyarski; J. Boyer; B. Brabson; A. Breakstone; J. M. Brom; F. Bulos; P. R. Burchat; D. L. Burke; F. Butler; F. Calvino; R. J. Cence; J. Chapman; D. Cords; D. P. Coupal
