Algorithm development, methods in Python/ CUDA C/ C++/C for resolution analysis in Cryo-EM.
Parallelisation of the ResMap application onto GPU/CPU. GPU-release of ResMap used for computation of local resolution of density maps in Cryo-EM. Achieved 5-16X speedup of application.
3D reconstruction in Cryo-EM. Resolution analysis implementation of many different methods.
Research in image processing for cryo-EM. Algorithm development, GPU programming.
High performance Computing (GPU/CPU architecture), Grid Computing (GridBeans in Java), condense matter physic, nano technology.
Parallelization of the serial code onto a Hybrid architecture CPU/GPU using CUDA C.
GridBean development in JAVA in the UNICORE project. Integration of application in the UNICORE project (Grid Computing Rich Client). Development of multiple graphical interfaces using SWING, AWT classes.
School of Electrical and Electronics Engineering, University of Adelaide
November 2003
to August 2008
Full-time
Adelaide
Australia - South Australia
Complex systems studies, financial engineering, derivatives, quantum field theory, game theory, Telecommunication, Electrical engineering.
Research in financial engineering using methods in HPC and a direct application of quantum field theory. This is done using path integrals to contribute to financial mathematics to evaluate a fair price for diverse option such as European, Exotic and American options.
School of Electrical and Electronics Engineering, University of Adelaide, Adelaide, 5005, SA, Austra
September 2004
to August 2008
Complex systems studies, financial engineering, derivatives, quantum field theory, game theory.
Telecommunication, Electrical engineering.
Research in financial engineering using methods in HPC and a direct application of quantum field theory.
This is done using path integrals to contribute to financial mathematics to evaluate a fair price for diverse option such as European, Exotic and American options.
Particles physics. Theoretical and mathematical physics. Statistical physics. Lattice QCD.
Modeling, algorithms, numerical analysis.
Numerical simulation on machines with parallel architecture with Monte Carlo methods.
Data analysis.
Phenomenological system in the theory of strong interactions.
Modeling and visualization of complex physical system.
Management of the production simulations over a forecast period of time. The results were then published in international journals (Physical Review D).
DFT methods for molecular systems and tight binding ab initio methods for transport in condensedmatter physics.
Presentation of results via oral and written presentation.
Can adapt to an abstract formalism. Follow methodological and rigorous procedures. Integrate diversified information from different sources. Analyze and synthesize some scientific information and techniques. Respect the confidentiality of the information. Follow rules within the organization.
Differential geometry. Ordinary and partial differential equations. Topology. Group theory: Abelian and non-Abelian. Lie Algebras and Lie groups, non-commutative geometry. Distribution theory. Stochastic calculus, financial mathematics, stochastic processes. Time series and econometrics. Integral equation and integration theory, as well as numerical integration. Discretisation methods. Statistical methods. Non-commutative geometry.