From Research to Reality: The Hard Parts of Building Physical AI at Scale β€” Pannag Sanketi, Avolla & AI Summit Seoul & Expo 2026

From Research to Reality: The Hard Parts of Building Physical AI at Scale

Session Overview

The last few years of physical AI have produced breathtaking demos β€” robots folding laundry, making coffee, playing sports. Yet very few of these systems make it out of the lab. This talk is about the gap between a compelling demo and a robot you can actually deploy, and the four capabilities that gap is really made of: reliability, agility, on-device compute, and human-robot interaction.

Drawing on work from Gemini Robotics, Open X-Embodiment, Table Tennis Robots, and on building a robotics company from the ground up, Pannag argues that closing this gap means rethinking defaults the field has grown comfortable with β€” how we source data, how we teach skills, how we architect models for the edge, and how systems adapt once deployed. The aim is not a finished recipe but a sharper map of where the hard problems, and the opportunities, actually sit.

Key Takeaways

  • The real reality gap is demo-to-deployment. The four things a lab lets you ignore β€” reliability, agility, edge compute, and HRI β€” are exactly what production demands.
  • Data is the bottleneck, and tele-op is the wrong lever. Human and internet video are the underused axes for scale and diversity.
  • Imitation gets you started; simulation-based RL is how you scale skills and earn robustness and agility.
  • Edge compute and quick learnability are architecture problems, not afterthoughts. Shrinking a cloud model is not the same as designing for the robot.
  • Continuous learning is the through-line. A robot that can't learn and adapt on the go β€” to new objects, scenes, and people β€” isn't deployable, however good the demo.

Speaker

Pannag Sanketi
Pannag Sanketi
(Former) Robotics Lead, Google DeepMind
Founder, Avolla Inc.
Physical AI Robot Learning Autonomous Systems

Dr. Pannag Sanketi is the founder of Avolla, an early-stage robotics and AI startup, and, until recently, a robotics lead at Google DeepMind. There he co-founded and led Open X-Embodiment (RT-X), one of the largest collaborative robot-learning efforts in the field, contributed to RT-2, and built agile robots β€” including the first to reach amateur human-level competitive play in table tennis. His work sits at the frontier of Physical AI, from large-scale robot learning to autonomous real-world systems. He holds a PhD from UC Berkeley and a B.Tech from IIT Madras.