J. Lauber
University College London
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Featured researches published by J. Lauber.
Nuclear Instruments & Methods in Physics Research Section A-accelerators Spectrometers Detectors and Associated Equipment | 1998
S. Anderson; J. R. Batley; G. A. Beck; T. Behnke; M. Bobinski; A. A. Carter; J. R. Carter; S. J. De Jong; U. C. Dunwoody; V. Gibson; W. Glessing; M. J. Goodrick; E. Gross; R. Hammarström; G. Hanson; M. Hapke; A. K. Honma; F. R. Jacob; M. Jiminez; C. Jones; P. Jovanovic; T. R. Junk; P. Kyberd; J. Lauber; Andre Martin; A. I. McNab; R. Mir; K. Mühlemann; T.W. Pritchard; D. R. Rust
Abstract The OPAL experiment at the CERN LEP collider recently increased the geometrical acceptance of its silicon microvertex detector. The azimuthal coverage is improved by adding one pair of detector modules to each of the two layers, while the polar angle coverage is extended by adding new detector modules in line with the existing ones. This improves the efficiency for high quality tracking in OPAL and in particular for b quark tagging in Higgs boson searches. A description of the detector is given, with emphasis on new or modified elements with respect to the earlier version. Results on the performance of the new detector are presented.
Nuclear Instruments & Methods in Physics Research Section A-accelerators Spectrometers Detectors and Associated Equipment | 1996
B. Mours; J. Boudreau; R. G. Jacobsen; T. Mattison; E. B. Martin; S. Menary; L. Moneta; G. Redlinger; E. Focardi; G. Parrini; E. Scarlini; S.M. Walther; J. Carr; P. Coyle; J. Drinkard; David Rousseau; Ph. Schwemling; C. Bauer; H. Becker; D. N. Brown; P. Cattaneo; H. Dietl; D. Hauff; Peter Holl; J. Lauber; G. Lutz; G. Lütjens; W. Männer; Hg Moser; A. S. Schwarz
Abstract The ALEPH silicon vertex detector is the first detector operating in a colliding beam environment that uses silicon strip detectors which provide readout on both sides and hence a three-dimensional point measurement for the trajectory of charged particles. The detector system was commissioned successfully at the e+e− collider LEP at the research centre CERN, Switzerland, during the year 1991 while taking data at the Z0 resonance. The achieved spatial resolution of the complete 73 728 channel device (intrinsic plus alignment) is 12 μm in the r-f view and 12 μm in the z view. The design and construction of the entire detector system are discussed in detail and the experience gained in running the detector will be described with special emphasis on the uses of this novel tracking device for the physics of short-lived heavy particles produced in the decays of the Z0 resonance.