A. A. Connor
Papers
1
Total Citations
4
H-Index
1
About
A. A. Connor investigates the intersection of soft robotics and fluid dynamics, with a primary focus on bio-inspired locomotion and magnetic-responsive materials. Their work explores how symmetry-breaking mechanisms in flexible appendages can enhance propulsion and maneuverability, drawing direct inspiration from natural swimming strokes. Connor’s most cited study, "Effects of symmetry-breaking mechanisms on the flow field around magnetic-responsive material appendages that mimic swimming strokes" (2024, 4 citations), quantifies how asymmetric joint designs and cycle periods dramatically alter flow fields and motion outcomes. Notably, this research demonstrates that an appendage combining an asymmetric joint with an asymmetric cycle achieves significantly faster downward motion—a key insight for developing agile, untethered soft robots. By systematically linking material asymmetry to performance gains, Connor provides foundational principles for designing magnetic-responsive swimmers capable of precise directional control. This work holds promise for applications in biomedical devices, environmental monitoring, and underwater exploration, where efficient, small-scale propulsion is critical. Connor’s contributions are shaping how researchers understand and exploit asymmetry in soft, stimuli-responsive systems.
Research Focus
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Top Papers
- 1