Max Robotics — Global Service Robot Directory + US Certification

About

Simon Fraser University has established itself as a powerhouse in robotics, human-motor neuroscience, and artificial intelligence, blending fundamental biological research with cutting-edge engineering and computational innovation. SFU's research portfolio spans an impressive breadth — from understanding how the central nervous system controls movement and adapts to unstable dynamics, to building next-generation robotic systems for healthcare, autonomous navigation, and embodied AI. A defining strength of SFU's work lies at the intersection of biomechanics and robotics. Landmark studies on motor impedance control and energetic cost optimization during locomotion — now collectively cited thousands of times — have fundamentally shaped our understanding of human movement and directly inspired the design of powered prostheses, exoskeletons, and rehabilitation devices. The lab's "body-in-the-loop" optimization framework exemplifies how SFU translates biological insight into practical assistive technologies, while haptic rehabilitation systems and tactile sensors further demonstrate the university's commitment to clinically meaningful engineering. SFU researchers have also made pivotal contributions to simulation environments for robot learning, including work on SAPIEN and contributions to the Habitat platform, enabling the broader community to train and evaluate robots in realistic virtual worlds. Their investigations into sim-to-real transfer, depth completion for autonomous driving, and crowd navigation using deep reinforcement learning reflect a sustained commitment to deployable, real-world AI systems. Beyond hardware and algorithms, SFU engages critically with the societal dimensions of AI — studying social robots in dementia care, evaluating AI-powered mental health chatbots, and interrogating the ethical boundaries of therapeutic technology. This sociotechnical perspective distinguishes SFU as a place where rigorous engineering meets genuine human impact. Prospective students and collaborators will find a vibrant, interdisciplinary community producing research that consistently shapes both the science and conscience of modern robotics.