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Harvard University has established itself as one of the world's most influential forces in soft robotics, bioinspired systems, and human-machine interfaces, producing research that has fundamentally reshaped how engineers and scientists think about machines that interact with the physical world. At the heart of this work is the Wyss Institute for Biologically Inspired Engineering, a powerhouse research center whose interdisciplinary culture bridges materials science, mechanical engineering, medicine, and computer science in ways few institutions can match. Harvard's contributions to soft robotics are nothing short of foundational. Pioneering work on pneumatic networks, elastomeric actuators, and multigait locomotion — each now canonical references with over 1,500 citations — established the intellectual scaffolding for an entirely new subfield. The laboratory's multigait soft robot, inspired by boneless creatures like squid and starfish, demonstrated that rigid components are not prerequisites for complex movement, sparking a global research movement. Complementing this, Harvard's work on entirely soft autonomous robots and 3D-printed functionally graded systems has pushed fabrication techniques to remarkable new frontiers, with multimaterial 3D printing enabling unprecedented design freedom. Beyond locomotion, Harvard researchers have demonstrated profound humanitarian impact, developing neurally controlled robotic arms for individuals with tetraplegia and soft rehabilitative gloves for stroke patients — work that collectively commands nearly 4,500 citations and speaks directly to robotics as a vehicle for improving human lives. The RoboBee project, achieving controlled insect-scale flight, showcases the university's extraordinary range, tackling microrobotics challenges that demand innovations in materials, actuation, and control simultaneously. For prospective students and collaborators, Harvard represents an environment where scientific ambition is matched by fabrication capability, clinical translation, and genuine interdisciplinary collaboration — a rare combination that continues to define the cutting edge of modern robotics.