Stuart C Burgess

About

Stuart C. Burgess is a pioneering robotics and mechanical engineering researcher whose work sits at the fascinating intersection of biology and machine design. His research spans bioinspired robotics, multi-modal locomotion, soft actuators, and assistive exoskeleton technology, drawing systematically from nature's engineering solutions to advance robotic capability. Burgess is perhaps best known for his highly cited 2013 work on multi-modal locomotion (184 citations), which examined how robots might replicate the remarkable ability of animals to move fluidly across land, air, and water — a challenge that remains central to modern robotics. His studies of the common guillemot, *Uria aalge*, exemplify this approach, translating the seabird's dual aerial-aquatic locomotion into practical wing designs for robotic vehicles. He has also made significant contributions to joint biomechanics, developing bio-inspired condylar hinges modeled on the human knee and publishing influential reviews of biological linkage mechanisms. His work on robotic exoskeletons, informed by precise kinematic modeling of the human hand, carries real clinical promise for assistive technologies. Spanning flapping-wing micro air vehicles to dielectric elastomer actuators, Burgess's body of work — accumulating over 470 citations — reflects a consistently innovative career translating biological principles into transformative engineering solutions.

Research Focus

Key Achievements

Top Papers

1. 1
   Multi-modal locomotion: from animal to application

   184 citations · 2013
2. 2
   Power optimization of a conical dielectric elastomer actuator for resonant robotic systems

   48 citations · 2019
3. 3
   Development of a parametric kinematic model of the human hand and a novel robotic exoskeleton

   42 citations · 2011
4. 4
   Development of a biologically inspired multi-modal wing model for aerial-aquatic robotic vehicles through empirical and numerical modelling of the common guillemot,<i>Uria aalge</i>

   41 citations · 2010
5. 5
   A review of linkage mechanisms in animal joints and related bioinspired designs

   39 citations · 2021
6. 6
   From Natural Flyers to the Mechanical Realization of a Flapping Wing Micro Air Vehicle

   29 citations · 2006
7. 7
   A Bio-Inspired Condylar Hinge for Robotic Limbs

   27 citations · 2013
8. 8
   A bio-inspired condylar hinge joint for mobile robots

   23 citations · 2011
9. 9
   Improved single- and multi-contact life-time testing of dental restorative materials using key characteristics of the human masticatory system and a force/position-controlled robotic dental wear simulator

   21 citations · 2011
10. 10
    Impact of Marine Locomotion Constraints on a Bio-inspired Aerial-Aquatic Wing: Experimental Performance Verification

    20 citations · 2013

Key Collaborators

Contact & Links