Hi, I'm Talha — an EEE student at Bilkent University working at the intersection of robot learning, computer vision, and optimization. I'm interested in how robots can perceive 3D scenes, reason about objects and tools, and plan meaningful physical actions in the real world.

Most of my work focuses on dexterous robotic manipulation, world models, and grounding visual predictions in physical interaction through contact inference and real-robot rollouts. Right now I'm doing research on affordance-guided world models for dexterous manipulation at NYU CILVR with Lerrel Pinto, and contributing to CVXPY at Stanford on disciplined nonlinear programming.

I've studied as a visiting student at UC Berkeley and Stanford, taking courses in machine learning, convex optimization, information devices and systems, and technology leadership. Outside of coursework, I like building projects that tie together perception, planning, and control — with the long-term goal of making robotic systems more capable and reliable.

NYU CILVR

UG Research Intern — Robotics, NYU CILVR

Worked on affordance-guided world models for dexterous robotic manipulation.
Using world-model outputs to run real-robot rollouts by combining RGB observations with physics-based contact inference derived from human data.
CVXPY

DNLP Contributor — Stanford CVXPY

Working on optimality conditions for Disciplined Nonlinear Programming and feasibility checks via maximum constraint violation across constraints during post-solve validation.
Proposal (PDF)
2023–2027

Bilkent University

B.E. in Electrical & Electronics Engineering; robotics, machine learning, optimization, and signal processing.

2024

UC Berkeley

Visiting student in EECS; information devices, systems foundations, and technology leadership.

2025

Stanford University

Visiting student in CS; optimization, machine learning, and reinforcement learning.

Havelsan

Havelsan

Tested edge cases in computer vision algorithms to identify failure modes and evaluate robustness under challenging inputs.
SDT

SDT — ODTÜ Teknokent

Research into applying neural rendering ideas to seismic subsurface imaging: a compact NeRF pipeline adapting multi-view consistency to seismic CMP gathers, plus a proposed tokenized seismic rendering architecture using time–frequency features, vector quantization, and a transformer decoder. No product was released — this was exploratory research toward developing the method.
Related projects
Stanford EE364A study session

Study Session Instructor, Stanford University

Co-led a final-exam review session for EE 364A with three peers, teaching and reviewing key optimization concepts for the class.

A few things that stay with me outside the lab: films, books, and music. I also keep a page for ideas I'm thinking about.

For research, collaboration, or just to say hello, get in touch.