Results 191 to 200 of about 2,260,777 (336)
Maximal eccentric-concentric strength determines stretch-shortening cycle leg power across biological sexes. [PDF]
Jordan MJ +5 more
europepmc +1 more source
This review identifies key design considerations for insect‐inspired microrobots capable of multimodal locomotion. To draw inspiration, biological and robotic strategies for moving in air, on water surfaces, and underwater are examined, along with approaches for crossing the air–water interface.
Mija Jovchevska +2 more
wiley +1 more source
Phenotypic Matching Without Genetic Correlation in Dimorphic Legs of Bulb Mites. [PDF]
Solano-Brenes D +4 more
europepmc +1 more source
Design of mechanical stiffness switch for hydraulic quadruped robot legs inspired by equine distal forelimb [PDF]
Jungsan Cho, Sangdeok Park, Kab-Il Kim
openalex +1 more source
Pak Biawak, a necrobot, embodies an unusual fusion of biology and robotics. Designed to repurpose natural structures after death, it challenges conventional boundaries between nature and engineering. Its movements are precise yet unsettling, raising questions about sustainability, ethics, and the untapped potential of biointegrated machines.
Leo Foulds +2 more
wiley +1 more source
Gait Planning and Load-Bearing Capacity Analysis of Bionic Quadrupedal Robot Actuated by Water Hydraulic Artificial Muscles. [PDF]
Li J, Zhang Z, Feng S, Yang Y, Gong Y.
europepmc +1 more source
Automated poultry processing lines still rely on humans to lift slippery, easily bruised carcasses onto a shackle conveyor. Deformability, anatomical variance, and hygiene rules make conventional suction and scripted motions unreliable. We present ChicGrasp, an end‐to‐end hardware‐software co‐designed imitation learning framework, to offer a ...
Amirreza Davar +8 more
wiley +1 more source
Deep Sea Drilling Project, Leg 2, Foraminifera from Selected Samples
W. H. Blow
openalex +1 more source
Compliant Pneumatic Feet with Real‐Time Stiffness Adaptation for Humanoid Locomotion
A compliant pneumatic foot with real‐time variable stiffness enables humanoid robots to adapt to changing terrains. Using onboard vision and pressure control, the foot modulates stiffness within each gait cycle, reducing impact forces and improving balance. The design, cast in soft silicone with embedded air chambers and Kevlar wrapping, offers durable,
Irene Frizza +3 more
wiley +1 more source

