Machine Learning Engineer | Mathematics & Physics Enthusiast
I study learning and computation in large-scale neural systems using tools from statistical physics, dynamical systems, information theory, and geometry. I also build physics‑informed and scientific ML systems for modeling complex physical phenomena.
My research lies at the intersection of statistical physics, dynamical systems theory, and machine learning. I investigate the fundamental mechanisms underlying learning and computation in large-scale neural systems through the lens of statistical mechanics, information geometry, and optimization theory. My work addresses questions of generalization, scaling laws, and the emergence of structure in high-dimensional representations.
On the applied side, I develop physics-informed neural networks and scientific computing frameworks for modeling complex physical phenomena—from quantum systems to fluid dynamics. This involves numerical methods for PDEs, uncertainty quantification, and interpretable models that respect physical constraints. I also work on accelerated AI systems and distributed ML pipelines, with particular focus on efficient training dynamics and memory-constrained optimization.
Creating educational materials on Artificial Intelligence and Machine Learning, focusing on simplifying complex technical concepts for learners worldwide.
Coached 1,900+ professionals and collaborated with universities. Delivered workshops on Accelerated AI using NVIDIA's NeMo Services, Cloud, RAPIDS, and Jetson Nano.
Advanced research in predictive modeling, multi-agent systems, and computer vision applications.
Automated telephony with energy-efficient Conversational AI on distributed systems.
Employed advanced AI for reverse engineering tasks, including vulnerability identification and data extraction. Developed AI-driven reverse engineering frameworks for efficiency and precision.
Designed anomaly detection pipelines and ensured data reliability through cleansing and correction. Documented data quality findings and recommendations.
Mentored teens in AI, code, and AI ethics for the Global Techathon, developing a Healthcare Information Technology (HIT) solution.
Advanced LLM development and optimization for chemistry applications.
Foundation work in data engineering and ML systems for chemistry applications.
Developed ML models for pet tracking using geospatial data and SAR applications. Analyzed pet location data and incorporated environmental factors for predictive modeling.
Leading AI training initiatives and educational programs for computer science students.
Contributing articles on human rights and technology topics for the institutional publication.
Leading ML initiatives and organizing workshops for the developer community.
Led data science community initiatives and organized technical events.
Active participation in professional development and technical conferences.
Long-term contributor to science and technology initiatives in the student community.
Advanced study of the universe's structure, evolution, and fundamental physics.
Theoretical foundations and practical applications of quantum computing systems.
Advanced quantum mechanics and its applications in modern physics.
Stochastic Processes, Statistical Learning, Convex Optimization, Advanced Statistics, Operational Research, Numerical Methods
Computer Architectures Engineering, Operating Systems Engineering, Smart Devices, Embedded Intelligent Systems and IoT
Discrete Time Signal Processing, Protocol Engineering, Random Signal Processing, 5G Networks
Received municipal, provincial, and ministerial honors. Authored Python course for scientific computing and created chemistry handbook.
Utilized Gaussian B-splines in Kolmogorov-Arnold approximators for interpretable ML. Demonstrated KANs' universality for solving parametric differential equations.
Developed a voice-controlled robotic vehicle using LPU-based Whisper Large for millisecond response times.
Proposed a quantum restricted Boltzmann machine (QBM) for accurate data representations in high-dimensional Hilbert spaces.
Python implementation based on the Kolmogorov-Arnold Representation Theorem for regression and classification tasks.
Built a generative model from scratch using PyTorch, based on Stable Diffusion concepts.
Implemented a Python framework for Neuro Evolution of Augmented Topologies.
Implemented fraud detection with MLFlow and ZenML for streamlined ML lifecycle management and automated model deployment.
Authored a comprehensive book covering advanced graph theory topics, algorithms, and applications in computer science.
Collection of natural language processing projects using various techniques and modern frameworks including TensorFlow and PyTorch.
Comprehensive documentation of Python libraries for data scientists and analysts, covering essential tools and techniques.
IoT project using ESP32/Arduino to monitor and display plant conditions via sensors, creating an interactive pet plant experience.
Developed a horror game using Unreal Engine and C++ with intelligent zombie AI powered by decision trees for realistic gameplay.
Introduced a Chain-of-Actions and Retrieve-As-You-Go approach for LLM action planning, outperforming GPT-4 by 29%.
Presented Mamba, a linear-time architecture outperforming Transformers for long sequences.
Overview of the Transformer architecture, focusing on self-attention and scalability in NLP.
Detailed the architecture and applications of FFNNs as universal approximators.
Won for developing an astronaut robot for Mars sample collection.
Interested in collaborating on AI research, discussing machine learning projects, or exploring opportunities in accelerated AI systems? I'd love to hear from you.