Robotics Veteran Erik Schluntz Tests Half-Built Quadruped Robot on Treadmill

Renowned robotics engineer Erik Schluntz, co-founder and former CTO of Cobalt Robotics, recently announced a significant personal milestone in a new quadruped robot project. Schluntz revealed on social media that he successfully completed and tested the front half of his custom-built quadruped robot on a treadmill.

"Last weekend I finished the front 1/2 of my quadruped and was able to test it out on the treadmill," Schluntz stated in the tweet, which included a link to a video showcasing the prototype in action. This marks a tangible step forward in his independent robotics endeavors.

Schluntz brings a wealth of experience to this personal project, having been a pivotal figure in the robotics industry for over a decade. He co-founded Cobalt Robotics, a company known for its AI-enabled security guard robots, and was named to Forbes' "30 Under 30" list for his contributions to the field. His background also includes work on SpaceX’s Flight Software Team and Google[x]’s Smart Contact Lens project, demonstrating a broad expertise in complex engineering and autonomous systems.

Quadruped robots, designed to mimic the locomotion of four-legged animals, are gaining increasing traction for their adaptability across various terrains where wheeled robots may struggle. These robots typically feature advanced control systems and multiple degrees of freedom in their legs, allowing for dynamic gaits and stable movement. Schluntz's decision to build such a complex system underscores his continued passion for hands-on innovation in robotics.

The successful testing of a partially completed robot on a treadmill is a crucial step in the development process, allowing engineers to validate fundamental mechanics and control algorithms in a controlled environment. This methodical approach is typical in advanced robotics development, ensuring stability and functionality before full assembly and deployment. Schluntz's ongoing work highlights the continuous evolution and accessibility of advanced robotics projects, even at an individual level.