Two New AI Planning Papers Want Robots to Think Before They Act. Here's Why That Matters on the Floor.
A pair of arxiv papers on robot planning caught my eye this week. One's about object-aware decision-making, the other about robots refining their own plans mid-thought. Both point in the same direction.
By
Two robotics planning papers dropped on arXiv this week that I think are worth paying attention to, even if the abstracts read like they were written by someone who's never had to debug a KUKA KR500 at 2am with a production deadline breathing down their neck.
Let me explain why I care.
The basic problem both papers are trying to solve is one I've watched the industry wrestle with for years. Robots are good at doing things they've been explicitly told to do. They're bad at figuring out what to do when the situation changes. Back when I was at Kuka, we spent enormous effort on path planning and collision avoidance, and the honest truth is that most of the intelligence was baked in by engineers, not learned by the machine. The robot didn't know a pallet was there. It knew a set of coordinates to avoid.
These two papers are chipping away at that problem from different angles.
The first paper, out of what appears to be a multi-institution research group, introduces something called COMET, which stands for Causal Object-centric Model for Efficient Tree search. The core idea is that instead of treating a camera feed as one big blob of pixels, the system breaks the scene into individual objects and reasons about them separately. It then uses Monte Carlo Tree Search, a planning technique borrowed from game AI, to think ahead in that object-structured space. Crucially, it has a mechanism for figuring out which objects actually matter for the task at hand, so it's not wasting compute worrying about a background wall when it should be focused on the part it needs to pick up.
Tested across eight different tasks, including environments from ManiSkill and Robosuite (both are standard manipulation benchmarks), COMET apparently outperforms comparable approaches during early training. That last part, early training, is worth noting. It's not claiming to be best overall, just faster to get good. For industrial applications where retraining time costs money, that's actually a meaningful claim. Though I'll be honest, this is based on benchmark results from the paper itself, and I haven't seen independent replication yet.
Verwandte Beiträge
More in Industrial
The Apple supplier priced its shares at the maximum and still had to turn away demand, which tells you something about where hardware money is flowing right now.
James Chen · 25 Jun · 5 min
Prime Day deals on Echos and Ring cameras are fine, but let's not confuse consumer gadgets with the serious robotics work happening in warehouses.
Robert "Bob" Macintosh · 25 Jun · 3 min
Amazon's CEO made his first India trip and left behind a $13 billion AI commitment and an aggressive quick-commerce expansion. The numbers are real. The execution is the hard part.
James Chen · 25 Jun · 6 min
A wave of arXiv preprints this week tackles one of manipulation's oldest problems: how do you get a robot to learn from imperfect, incomplete, or just plain missing data?


