Radek Podskubka

I take part in the development and optimisation of C++ tensor library Introduced an innovative tensor algorithm for the numerical solution of linear systems of equations and by optimization I have reached speed-up factor 30. MATLAB toolbox is used for comparison of testing results and for data visualization as well. Library will be further utilized for applications in image processing

PhD researcher in the field of particle physics. As a member of Herwig 7 developer team, I link particle physics with C++ development. I introduced a new supervised machine learning algorithm classifying different types of particle jet processes at LHC at CERN and reached the efficiency of 70%. Using this algorithm I developed a new method discriminating between different types of particle jets and enhanced its success rate by already existing techniques.

Elected PhD representative of the Karlsruhe School of Elementary Particle and Astroparticle Physics: Science and Technology (KSETA). I was participating on organizing scientific workshop for KSETA PhD fellows in Freudentstadt (18 participants) and organizing excursion for KSETA PhD fellows to DESY facility (12 participants). My responsibility was also participation on regular meetings with senior members of KSETA executive board, giving feedback on the general requirements and complains of PhD Fellows

As a member of Herwig 7 collaboration at the Institute of Theoretical Physics at KIT I validated jet production simulations in Herwig++/Matchbox Monte Carlo event generator by comparison with data measured at LHC at CERN and I Solved the problem of statistically low amount of data in specific parameter region for jet processes.

As a member of ATLAS experiment at CERN in Geneva I contributed to ATLAS standard model group by calculation of theoretical uncertainties of jet production at LHC using NLOJet++ tool.

Individual study program concerning study of jets in the framework of Herwig 7 Monte Carlo event generator. Comparison of calculated theoretical results to data measured by LHC at CERN, particularly by ATLAS and CMS experiments.

Advanced courses in Quantum Field Theory, Particle Phenomenology, Theory of Nucleus and Nuclear Models, Theory of Electroweak Interactions and Quantum Chromodynamics. Practical course of measurement techniques and data interpretation in Particle Physics and Nuclear Physics.

General courses in Mechanics, Electrodynamics, Optics, Quantum Mechanics, Atomic Physics, Nuclear Physics and Particle Phenomenology. Advanced course of Mathematical Analysis. Basic course of measurement techniques and data interpretation.