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HOME/PEOPLE/OLAOLU SHORINWA
// PERSON

Olaolu Shorinwa

ROLE CO-AUTHORMENTIONS 3LAST SEEN AUGUST 27, 2026
// BIO

Ola Shorinwa is a PhD student in Mechanical Engineering at Stanford University, where he works with Professor Mac Schwager in the Multi-Robot Systems Lab. His research focuses on distributed optimization and control algorithms for multi-agent and multi-robot systems, including distributed resource allocation and model predictive control. He is a co-author on publications such as a tutorial on distributed optimization methods for multi-robot systems and Splat-MOVER, presented at CoRL 2024.

// RECENT MENTIONS
// SIGNALS
3 SIGNALS
01
product·arXiv Physical AI·AUGUST 27, 2026

CLAP demonstrates that a single video world model trained across multiple robot embodiments (Franka, WidowX, bimanual YAM, G1 humanoid) can match or surpass models trained exclusively on one robot platform. On the DROID dataset, CLAP-CURR achieves a PSNR of 19.138 and LPIPS of 0.204, compared to the single-embodiment Ctrl-World baseline's 18.928 PSNR and 0.205 LPIPS

Source
02
mention·arXiv Physical AI·AUGUST 27, 2026

The robotics community has largely assumed that relative action spaces (e.g., 'move 3cm in x') are easier to learn than absolute action spaces because they have narrower distributions. CLAP's experiments contradict this for end-effector-conditioned video models: 'relative-action spaces underperform absolute-action spaces in future prediction conditioned on end-effector actions across all perceptual metrics and robot environments, e.g., by about 14.6% in LPIPS in the DROID environment'

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03
hire·arXiv Physical AI·JUNE 23, 2026

Ola Shorinwa: Co-author whose work often focuses on multi-agent systems and optimization.

Source

AI-extracted from podcast / newsletter / paper summaries. May contain errors.