Associate Professor of Physicsneumeist@purdue.edu
Office: Physics 374
Telephone: (765) 494-5198 (Purdue) +41 22 767 1681 (CERN)
Fax: (765) 494-0706 (Purdue) +41 22 767 8940 (CERN)
M.S., Physics, University of Technology Vienna, 1992
Ph.D., Physics, University of Technology Vienna, 1996
Prof. Neumeister's research focus is on experimental particle physics. His main areas of interest include the phenomenon of electro-weak symmetry breaking, the origin of the matter anti-matter asymmetry in the Universe, and the search for new physics beyond the established Standard Model of particle physics. In order to answer the main questions in these areas, high-energy particle accelerators, innovative detectors and powerful computers are required.
The Large Hadron Collider (LHC) at CERN provides a crucial new capability to study the elementary constituents of matter and the fundamental forces that control their behavior at the most basic level. For the next two decades the LHC will probe the high-energy frontier to search for new phenomena. It uniquely has sufficient energy and luminosity to probe in detail the TeV energy scale relevant to electroweak symmetry breaking and allows the study of the most pressing issue in particle physics: the origin of mass.
Currently Prof. Neumeister is a member of the CMS (Compact Muon Solenoid) collaboration, where he is active in the fields of event selection and reconstruction, computing, software development and data analysis. He is operating the CMS Tier-2 analysis center at Purdue.
The physics adventure of CMS has just begun. The CMS experiment studies proton-proton collisions at a centre-of-mass energy of 14 (7) TeV produced by the LHC. The experiment is expected to answer unresolved questions about the current standard theory of elementary particles and their interactions, and enable an even deeper level of knowledge about the fundamental building blocks of nature. The main goal of CMS is to understand the mechanism via which the symmetry between the electromagnetic and weak interaction is broken. In addition, most new theories of fundamental interactions (e.g. Supersymmetry) predict that the LHC will observe a host of new particles. The CMS experiment searches for new particles and phenomena, such as extra dimensions and the existence of massive gauge bosons, at the energy frontier.