Skip to content
RobotensorRobotensor
Blog

tech

6 posts carry this tag, newest first.

Every post
  1. 8 min read

    The Physical AI Frontier: Closing the Gap Between Simulation and Reality

    The next frontier of robotics AI is turning intelligence learned in simulation into reliable behavior in the physical world. Sim2Real is becoming a core stack—combining domain randomization, system identification, digital twins, learned dynamics, and real-world feedback to bridge that gap.

  2. 5 min read

    Behavior Prompting Policy: demonstrations as prompts for robot control

    Behavior Prompting Policy (BPP) lets robots learn new tasks from a single demonstration at inference time, using the demo as context rather than retraining the model. Its strongest results suggest that behavioral diversity matters more than repeated demonstrations, enabling robots to recombine familiar skills into new tasks without gradient updates.

  3. 6 min read

    Zero-WAM Makes Robot ICL Real — But Its Biggest Opportunity Is Still Ahead

    Zero-WAM brings in-context learning to robotics by using human demonstration videos as task prompts, achieving strong zero-shot cross-task results with a large world-action model and HumanGen synthetic data. An important step toward robotic ICL, but current evidence remains domain-specific, computationally heavy, and short of universal zero-shot robot learning.

  4. 11 min read

    Robotics in 2026: From Imitation to Self-Improving Physical Intelligence

    Robotics is evolving from task-specific imitation toward generalist models that can adapt, learn from experience, and improve after deployment. The next robotics frontier isn’t just better pretrained models—it’s robots that can attempt, observe, remember, practice, and improve from their own real-world experience.

  5. 7 min read

    The Missing Variable in Robot Benchmarking: The Task Itself

    Robot benchmarks have become much better at varying environments and scenes, but they still often rely on predefined task sets. The next step is to generate new, valid tasks at evaluation time, creating a stronger test of whether robots can truly generalize beyond benchmark-specific patterns.

  6. 7 min read

    What in-context robot learning asks of a model

    A policy that meets an unfamiliar task ought to get better at it while it is working, not after a retraining run. This is what that means precisely, where the idea comes from, why the competition runs two tracks rather than one, and what a strong result would and would not prove.