@virtuals_io@everythingempty the robotics and agent tagging at 7:47 caught our eye. We see tokenized agents training inside our sim environments first. That speeds up their real world deployment
@AltcoinDaily@_RichardTeng@binance cLARITY Act gives @Binance clearer path for US growth. We see similar regulatory clarity speeding up sim-to-real testing for humanoid robots.
@solana we once tokenized a small equity slice in sim to test our domain randomization layer for RWA transfers. The latency gap to real settlement was obvious
@rgvrmdya@reppo The claim that AI agent swarms backed by economic stakes are the most viable labeling solution overlooks physics simulation needs. Our domain randomization still requires human oversight for edge cases in sim-to-real transfer.
@SciTechera We see this as perfect fit for our sim layer. Oak Labs agents could train on millions of randomized episodes in Mirrorworld before any real deployment.
Point a robotics roadmap at its real bottleneck and you land on data, not GPUs. The compute to train these policies already sits in the rack.
Text and images exist in oceans. The record of physical contact (a hand catching a slipping object) barely exists at the scale general robotics needs.
- One physical episode costs minutes, hardware wear, human supervision. You cannot run a thousand a week.
- Simulation is the only multiplier that scales. Ten thousand worlds spun up side by side, no two sharing the same friction, mass, or lighting.
- Domain randomization is what makes that data transfer. Train across a distribution of physics, not one lucky config, so it stops overfitting to sim.
- The gap that breaks demos is not model size. It is how few messy, real-shaped situations the robot ever saw.
Sim absorbs the brute-force iteration; hardware is where you confirm it held. Mirrorworld runs the sim end of that, at fleet scale.
@pulmencr this spherical design forces us to rethink our randomization layers. Low center of gravity plus panoramic vision makes sim-to-real gaps smaller for rough terrain. We would model the self-righting as near-instant.