AI Researcher & Full-Stack Developer
17-year-old AI engineer and full-stack developer from India. I build autonomous discovery systems — from RUMI's 50+ module system to FRIDAY's cognitive AI OS (88% ARC-Challenge on 8B parameters). Published 3 research papers in number theory. Contributed to open source repos with 11K+ and 24K+ stars. Winner of Super Star Award at Stardance Hack Club (NASA + Hack Club). Admin of a growing AI community on GitHub. ORCID: 0009-0007-4115-4099. Experienced in agentic workflows, AI orchestration, ML engineering, backend systems, data pipelines, AI infrastructure, game development, and DevOps.
The foundation: modeling reasoning as iterative feedback loops. Systems that predict outcomes, compare against reality, and update their understanding over time. Priorities shift based on what matters most, keeping focus sharp.
14+ brain modules running a multi-pass reasoning loop. Session memory persists across interactions. Background routines consolidate knowledge when idle. A Tkinter HUD controller gives real-time visibility into module health and memory streams.
Building systems where multiple specialized agents collaborate — reasoning chains, distributed discovery networks, and AI-orchestrated workflows. Multi-agent coordination for complex task decomposition.
RUMI scans PubMed, extracts entities via NER, builds knowledge graphs, mines contradictions, and generates hypotheses -- all autonomously. The 16-phase discovery pipeline runs from literature scanning through adversarial theory tournament, targeting oncology research gaps.

I'm a 17-year-old AI researcher and full-stack developer from India. I've published 3 research papers in analytic number theory (ORCID: 0009-0007-4115-4099). I build autonomous discovery systems — RUMI, a 50+ module system for scientific reasoning, hypothesis generation, and theory formation pipelines. FRIDAY, a cognitive AI OS with 14 brain modules achieving 88% ARC-Challenge on 8B parameters. I've contributed to open source repositories with 11K+ and 24K+ stars. Winner of the Super Star Award at the Stardance Hack Club programming challenge by NASA and Hack Club. Admin of a growing AI community on GitHub, and a respected member of the researcher community there. Proficient in database engineering (PostgreSQL, MySQL), game development (Phaser 3, Canvas API), and building complex distributed systems. Outside tech, I'm a classical pianist, flutist, basketball player, and sketch artist.
RUMI is a 50+ module system designed to automate scientific discovery. It scans literature, extracts entities via NER, builds knowledge graphs, mines contradictions, and generates testable hypotheses — all autonomously. The 6-phase reasoning loop (Observe → Hypothesize → Predict → Test → Revise → Theorize) implements the scientific method as a computational process. RUMI produced 3 published peer-reviewed papers in analytic number theory.
Observe → Hypothesize → Predict → Test → Revise → Theorize — the scientific method implemented as a computational cycle.
Curiosity engine, world model, causal reasoner, theory formation, creativity engine, abstraction engine — all coordinating via global workspace.
Peer-reviewed research in analytic number theory — Goldbach partitions, Hardy-Littlewood formula corrections, twin prime distribution.
FRIDAY is a stateful AI operating system — not a chatbot, not a wrapper. 14 brain modules, 56 tool actions, 6 memory systems with weighted associations, and autonomous decision-making. 81,500+ lines of Python. 162 source files. The 8B model achieved 88% on ARC-Challenge benchmark — competing with models 10x larger through architectural enhancements.
6 memory systems (Neural, Episodic, Procedural, Vector, Working, Global) storing information with auto-decaying connection weights — important memories persist, noise fades.
Runs consolidation cycles during idle states — replays experiences, extracts patterns, and prunes weak connections to keep memory sharp.
Achieved 88% on ARC-Challenge benchmark with just 8B parameters — competing with models 10x their size through architectural enhancements.
Each project built to solve a specific problem. No tutorials. No clones. All original systems.
Autonomous Scientific Discovery
Scientific discovery is bottlenecked by manual literature review, hypothesis generation, and validation cycles that take months.
Reduces scientific discovery from months to minutes. Three recent discoveries: KRAS G12C resistance pathways, molecular glue mechanisms, immune checkpoint dynamics.
Cognitive Operating System
Current AI assistants are stateless and reactive. They forget everything between sessions and can't proactively help.
81,500+ lines of Python. 162 source files. A fully stateful AI OS that persists knowledge, learns from interactions, and proactively surfaces relevant information.
Temporal Archaeology Engine
Archaeological site discovery is slow, expensive, and requires physical presence.
Give it GPS coordinates. It tells you what is buried beneath.
Autonomous Space Discovery Engine
Space research is fragmented across dozens of APIs, catalogs, and databases.
"Casimir effect connects quantum vacuum to cosmic acceleration — proposed 100-tonne apparatus for direct detection." (70.2/100)
"Solar corona heating mechanisms require wave-magnetic field coupling at chromospheric boundaries."
"High-temperature superconductivity pairing may involve phonon-electron interactions beyond BCS theory."
Web-Based Desktop Environment
Desktop environments are locked to operating systems. There's no way to have a full desktop experience in a browser.
Fully client-side desktop environment. No backend, no database. Built for Hack Club Stardance WebOS Jam. Features spotlight search, context menus, lock screen, and easter eggs.
50+ modules across RUMI and Luka, implementing multi-pass scientific reasoning
Contributed to repositories with 11K+ and 24K+ stars
Quantified impact across research, engineering, and open source
Exploring the intersection of AI systems, autonomous discovery, and engineering
Building agents that predict outcomes, compare against reality, and update their understanding iteratively. Systems that get smarter by minimizing the gap between expectation and observation.
Building AI systems that autonomously scan literature, extract entities, mine contradictions, and generate testable hypotheses without human intervention.
Designing AI systems with layered memory, iterative reasoning, and self-monitoring. Building systems that consolidate knowledge, reflect on their own decisions, and improve over time.
Building systems where multiple specialized agents collaborate — reasoning chains, distributed discovery networks, and autonomous workflow orchestration.
Applying AI to space research — analyzing astronomical data from NASA, ISRO, and ESA pipelines. Orbital mechanics, exoplanet detection, and cosmological modeling.
Designing AI systems with layered memory, multi-pass reasoning loops, and self-monitoring. Building systems that consolidate knowledge, reflect on decisions, and improve over time.
Academic recognition and technical exchanges with leading researchers
Won the Super Star Award at the Stardance Hack Club programming challenge by NASA and Hack Club — recognizing me as a top developer.
Recognized by a neuroscience professor at Princeton for work on AI architectures. Engaged in technical exchanges with Turing Award winner Yoshua Bengio on AI systems and the future of AI-assisted scientific discovery.
Admin of a growing AI community on GitHub. A respected member of the researcher community, contributing to discussions on AI systems and autonomous discovery.
3 peer-reviewed papers in analytic number theory — ORCID: 0009-0007-4115-4099
Derives the analytic foundations for Chebyshev bias in Goldbach partitions using partial summation techniques and the explicit formula of prime number theory. Establishes rigorous bounds on the bias term through contour integral analysis.
Presents computational evidence for Chebyshev bias across large partition ranges and introduces a Dirichlet character correction factor to the Hardy-Littlewood conjecture, improving prediction accuracy for Goldbach partition distribution.
Proposes and validates a power law correction term for the simplified Hardy-Littlewood twin prime conjecture. Demonstrates improved asymptotic density estimates for twin prime pairs through analytic continuation techniques.
Development stack for building AI systems and full-stack applications
Classically trained pianist specializing in Western classical repertoire. Piano is my primary instrument and creative outlet — the discipline of practice mirrors the discipline of code.
Flute player exploring both classical and contemporary pieces. The breath control required for flute translates to the patience needed in debugging complex systems.
Active in both basketball and badminton. The strategic thinking and teamwork in sports directly translates to collaborative problem-solving in engineering.
Visual art and sketching help me architect complex systems before writing code. Every major project starts as a hand-drawn diagram on paper.
Looking for SWE, AI/ML engineering, data engineering, and platform roles — internships, research collaborations, and full-time positions. Also open to AI infrastructure, MLOps, and autonomous systems projects.