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PhD Project: Lattice QCD and Machine Learning Approaches to TMD Physics
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\begin{itemize}
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\itemAchieved 93\%+ model fit accuracy by building an end-to-end ML pipeline processing 30,000+ multidimensional observables from Monte Carlo simulations using symbolic regression (PySR) with physics-constrained loss functions.
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\itemGenerated 30,000+ high-fidelity synthetic data points by solving Partial Differential Equations with large-scale Monte Carlo simulations and built an end-to-end AI for Science pipeline to model the underlying physics, achieving over 98\% predictive accuracy with symbolic regression machine learning.
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\item Reduced data processing time 10× by developing GPU-accelerated CUDA C++ (cuFFT) pipelines for multi-terabyte Fourier transforms on HPC clusters.
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\itemEnsured numerical stability and reproducibility across multi-stage fitting and extrapolation workflows by creating production-grade Python and Mathematica packages for jackknife resampling and uncertainty propagation.
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\itemDeveloped production-grade Python \& Mathematica packages for reproducible statistical analysis, ensuring numerical stability in multi-stage workflows (jackknife resampling, uncertainty propagation)
\item Accelerated multi-terabyte scientific calculations by developing and optimizing parallelized C++ CUDA kernels for GPU-accelerated HPC clusters (NERSC Perlmutter), achieving significant runtime reduction in large-scale Monte Carlo simulations.
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\item Accelerated multi-terabyte scientific calculations by developing and optimizing parallelized C++ CUDA kernels for GPU-accelerated HPC clusters (NERSC Perlmutter), significantly reducing runtime for large-scale Monte Carlo simulations.
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\item Managed and executed 75,000+ CPU/GPU compute hours by designing and deploying custom SLURM workflows for large-scale job orchestration, enabling robust, automated parallel analysis.
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\item Increased model reliability through rigorous validation methods, applying AIC-based selection, chi-squared minimization with full covariance matrices, and bootstrap/jackknife resampling across 50,000 correlated data points.
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\item Managed and executed 75,000+ CPU/GPU compute hours by designing and deploying custom SLURM workflows for large-scale job orchestration
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\item Investigated advanced simulation techniques using gradient flow, a method conceptually similar to Flow-Based Generative Models, to analyze the properties of quantum systems and ensure numerical stability
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\item Increased model reliability through rigorous statistical validation on over 50,000 correlated data points, applying methods like AIC-based selection and chi-squared minimization with full covariance matrices.
\item Implemented and managed Mathematica symbolic computation workflows on HPC clusters (NERSC Perlmutter) to analyze complex algebraic structures and symmetry constraints.
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\item Implemented and managed Mathematica symbolic computation workflows on HPC clusters to analyze complex algebraic structures and symmetry constraints.
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\end{itemize}
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@@ -79,30 +81,23 @@ \section*{Technical Projects}
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\item\textbf{$\mathbb{Z}_2$ Lattice Gauge Monte Carlo Simulation}
\item Developed a Physics-Based Simulation from scratch to generate synthetic lattice gauge configurations using Monte Carlo methods on HPC clusters, validating the generated data against known analytical benchmarks.
\item Built a cloud-hosted ML forecasting platform with automated data ingestion, model training, and retrieval pipelines using AWS/Azure, Flask, and React.
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\item Integrated GPT API to generate natural-language summaries, bridging structured data with NLP-driven insights.
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\item Developed a full-stack ML forecasting platform on AWS/Azure featuring automated MLOps pipelines and a GPT API for generating natural-language insights.
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\end{itemize}
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\item\textbf{Neural Network from Scratch with \texttt{NumPy}}
\item Implemented a two-layer neural network from the ground up in NumPy, building a deep understanding of backpropagation, activation functions (ReLU, softmax), and optimization.
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\item Trained the model for the computer vision task of handwritten digit recognition on 5,000 MNIST samples, achieving $80\%$ accuracy within 60 epochs by tuning the learning rate.
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\end{itemize}
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\item\textbf{$\mathbb{Z}_2$ Lattice Gauge Monte Carlo Simulation}
\item Implemented large-scale Monte Carlo simulations on HPC clusters, validating results against analytical benchmarks and optimizing data processing throughput for large datasets.
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\item Implemented and trained a neural network from scratch in NumPy for MNIST digit recognition, achieving 80\% accuracy by building and tuning core components like backpropagation and activation functions
\item Getting Started with Accelerated Computing in CUDA C/C++ by NVIDIA
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\item\href{https://learn.nvidia.com/certificates?id=mMWLgny_SEC5DgHXY9XYEw}{Fundamentals of Accelerated Computing with CUDA Python by NVIDIA}
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\item\href{https://www.coursera.org/account/accomplishments/verify/XG3YT41S0PF5}{Advanced Learning Algorithms by DeepLearning.AI}
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\item Getting Started with Accelerated Computing in CUDA C/C++ by NVIDIA
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\item\href{https://coursera.org/share/b9cffe9c5ba5832ffb99bf7abdd8c384}{Supervised Machine Learning: Regression and Classification by DeepLearning.AI}
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\item\href{https://www.coursera.org/account/accomplishments/professional-cert/certificate/U0HU8UKT89L4}{Google Advanced Data Analytics Professional Certificate}
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