Announcing a comprehensive, open suite of sparse autoencoders for language model interpretability.
Announcing a comprehensive, open suite of sparse autoencoders for language model interpretability.
Announcing a comprehensive, open suite of sparse autoencoders for language model interpretability.
Announcing a comprehensive, open suite of sparse autoencoders for language model interpretability.
Announcing a comprehensive, open suite of sparse autoencoders for language model interpretability.
Announcing a comprehensive, open suite of sparse autoencoders for language model interpretability.
Announcing a comprehensive, open suite of sparse autoencoders for language model interpretability.
Announcing a comprehensive, open suite of sparse autoencoders for language model interpretability.
Announcing a comprehensive, open suite of sparse autoencoders for language model interpretability.
Haptic feedback stands as a cornerstone for the authenticity and depth of engagement in virtual reality and teleoperation systems. Yet, existing haptic devices have grappled with the fidelity of replicating tactile properties, hindered by the constraints on their degrees of freedom and expressive range. This limitation has ignited an urgent quest for innovative solutions that can augment the responsiveness and adaptability of haptic systems.
The future deployment of AIs and robots in our everyday work and life, from fully automated vehicles, to delivery robots, and AI assistants, could either be done by making increasingly capable agents that can do many tasks, or simpler more narrow agents that are designed for specific tasks.
Announcing a comprehensive, open suite of sparse autoencoders for language model interpretability.
Fish fins and insect wings are amazing pieces of natural engineering capable of efficiently moving their owners through water or air. People creating machines to swim or fly have long looked to animals as their models, designing airplanes with wings and boats with fin-shaped rudders. Over the past decades, researchers at Caltech and elsewhere have been exploring bioinspired engineering to see if other natural forms of motion might inform mechanical engineering.
LIG Nex1, a South Korean maker of electronic warfare and communications equipment, says it has paid $240 million for a 60% controlling stake in Ghost Robotics, a Philadelphia-based developer of the Vision 60 dog-like four-legged robots used by the military and law enforcement.
Developers Gain Access to New NVIDIA NIM Microservices for Robotics Simulation in Isaac Lab and Isaac Sim, OSMO Robot Cloud Compute Orchestration Service, Teleoperated Data Capture Workflow and More