Hi, I am Anuran! I am an M.Tech. student in Computer Science & Engineering at the University of Calcutta, where I am advised by Dr. Sanjit Kumar Setua. My academic journey is driven by a deep commitment to advancing the frontiers of artificial intelligence. I am passionate about pioneering fundamental and applied research, transforming complex theoretical mathematics into robust, trustworthy computational systems.
My research bridges theoretical mathematical foundations with high-stakes, real-world AI deployment. I am particularly passionate about engineering deterministic, physically-grounded algorithmic architectures—such as integrating Partial Differential Equations (PDEs) into neural topologies—and bypassing heavy framework abstractions to build robust, trustworthy systems. For my M.Tech. dissertation, I developed PHORENSICS, a physics-informed computational forensics framework designed for synthetic media detection and Generative AI security.
Previously, I earned my M.Sc. in Computer Science from the University of Calcutta, advised by Dr. Rajat Kumar Pal, where I focused on engineering resource-scarce neural networks for computational linguistics.
Before my master's, I completed my B.Sc. in Computer Science at The Bhawanipur Education Society College. During my undergraduate career, I was fortunate to be mentored by and collaborate with a distinguished group of researchers, including Prof. Sanjib Halder, Prof. Priyanka Banerjee, Dr. Ritajit Majumdar (IBM Research), and Dr. Debasmita Bhoumik (Indian Statistical Institute). These foundational collaborations shaped my research trajectory, enabling me to develop data-efficient machine learning techniques for predictive analytics and highly robust recommendation systems.
Engineered a "Tabula Rasa" custom Sequence-to-Sequence (Seq2Seq) Transformer from scratch in PyTorch to parse and resolve complex Ordinary Differential Equations (ODEs). Designed a dual-system neuro-symbolic architecture that routes neural structural pattern recognition directly into a deterministic algebraic kernel (SymPy) for hallucination-free, mathematically verified step-by-step integration.
Engineered a robust, physically-grounded computational framework for Generative AI security and synthetic media detection. Successfully integrated Partial Differential Equations (PDEs) and Global Spectral Analysis to mathematically isolate Generative AI origins far beyond standard semantic AI limits. Published the core framework to PyPI, architecting pure Python routines to guarantee deterministic, reproducible computational outcomes.
Developed a hybrid verification framework combining local Gemma3 LLM reasoning, semantic tracking, and iterative self-improvement loops to validate factual claims against dynamically retrieved documents.
Engineered a "Tabula Rasa" dual-path PyTorch research pipeline for extracting and visualizing high-dimensional embeddings. Designed a custom Convolutional Siamese Network utilizing Contrastive Loss.
Engineered an end-to-end behavioral cloning architecture based on the NVIDIA DAVE-2 CNN to learn complex perception-to-control mapping. Developed robust data preprocessing and augmentation engines.
Modeled highly nonlinear relationships within structured real-estate datasets using specialized CatBoost regression, mitigating overfitting through ordered boosting for regional micro-economic variance.
Authors: Seal, T., Bhattacharya, A., Das, S., Patra, S., Dawn, D. D., Khan, A., & Setua, S. K.
Published in: Applied Computing for Software and Smart Systems (Proceedings of ACSS 2024). Springer LNNS.
Authors: Bhattacharya, A., Singhania, A. V., Banerjee, P., Majumdar, R., & Bhoumik, D.
Published in: Emerging Technologies in Data Mining and Information Security (Proceedings of IEMIS 2022). Springer LNNS.