Scientific Computing Expertise

High-Performance Scientific Computing

Developing sophisticated computational solutions for complex scientific and engineering challenges. With 15+ years of experience, I specialize in high-performance computing, numerical algorithms, and large-scale simulations that push the boundaries of computational science.

Numerical Methods

Advanced numerical algorithms for solving differential equations, linear algebra, optimization, and Monte Carlo simulations.

Parallel Computing

Multi-core, GPU, and distributed computing solutions using OpenMP, MPI, CUDA, and modern parallel programming paradigms.

Performance Optimization

Code profiling, algorithmic optimization, memory management, and scalability analysis for maximum computational efficiency.

Fundamentals

Core concepts in numerical methods, floating-point arithmetic, and computational mathematics foundations.

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Advanced Techniques

Sophisticated algorithms for partial differential equations, finite element methods, and computational fluid dynamics.

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Project Portfolio

High-impact scientific computing projects including simulations, modeling, and computational research.

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Tools & Frameworks

Comprehensive overview of scientific computing tools, libraries, and high-performance computing platforms.

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Tutorials & Examples

Practical tutorials on implementing numerical algorithms and optimizing computational performance.

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Interview Preparation

Technical interview preparation for scientific computing and high-performance computing roles.

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Core Competencies

Numerical Algorithms

  • Linear algebra (BLAS, LAPACK, sparse methods)
  • Ordinary and partial differential equations
  • Optimization algorithms (gradient descent, genetic algorithms)
  • Monte Carlo and quasi-Monte Carlo methods
  • Finite element and finite difference methods

High-Performance Computing

  • Parallel programming (OpenMP, MPI)
  • GPU computing (CUDA, OpenCL)
  • Distributed computing and cluster management
  • Memory optimization and cache efficiency
  • Scalability analysis and performance profiling

Programming Languages

  • C/C++ for performance-critical applications
  • Fortran for scientific legacy code
  • Python (NumPy, SciPy, Numba)
  • MATLAB for rapid prototyping
  • Julia for modern scientific computing

Applications

  • Computational fluid dynamics (CFD)
  • Molecular dynamics and quantum simulations
  • Climate and weather modeling
  • Financial modeling and risk analysis
  • Image processing and computer vision