| Science Home | Future students | Current students | Postgraduate | Research | Staff | Contact us |
| Staff directory | A-Z index | Site map |
CSABA BALAZS
RESEARCH INTERESTSRecent experiments and observations have shown that 95% of the Universe's energy density seemingly lies in a dark sector comprising dark matter, a form of yet undiscovered matter, and dark energy, whose origin is unknown. My research priority is to shed light on this dark side of the Universe, piecing together the outstanding puzzle of dark energy and dark matter. Working on the field of elementary particle theory, my research goal is to understand how to extend the standard model of theoretical particle physics and cosmology to accommodate the dark sector. In my dark matter search I currently focus on supersymmetry, which relates the traditional matter particles to carriers of various forces, resulting in the most powerful extensions of the standard model. My dark energy research is underpinned by the recognition of the central role of entropy, which could lead to deep connections between particle and gravitational physics. I examine the experimental consequences of these extensions. The next round of particle collider and astrophysical experiments are expected to shed light on some of the deepest mysteries of particle physics: the origin of matter, and the origin of dark energy. SELECTED PUBLICATIONSSupersymmetry parameter analysis: SPA convention and project. SUSY Les Houches accord: Interfacing SUSY spectrum calculators, decay packages, and event generators. Direct detection of dark matter in supersymmetric models. Updated reach of the CERN LHC and constraints from relic density, b ---> s gamma and a(mu) in the mSUGRA model. Chi**2 analysis of the minimal supergravity model including WMAP, g(mu)-2 and b ---> s gamma constraints. Updated constraints on the minimal supergravity model. Neutralino relic density in minimal supergravity with coannihilations. Impact of muon anomalous magnetic moment on supersymmetric models. Higgs boson production at the LHC with soft gluon effects. Collider tests of compact space dimensions using weak gauge bosons. QCD corrections to scalar production via heavy quark fusion at hadron colliders. k(T) effects in direct photon production. Photon pair production with soft gluon resummation in hadronic interactions. Probing Higgs bosons with large bottom Yukawa coupling at hadron colliders. Soft gluon effects on lepton pairs at hadron colliders. Citation information is obtained from the Spires HEP database (http://www.slac.stanford.edu/spires) and updated on 12 July 2007. |