Soft Robot
Soft robotics focuses on creating robots from flexible materials, enabling safer and more adaptable interaction with unstructured environments. Current research emphasizes developing accurate models for control, often employing neural networks (like recurrent neural networks and Echo State Networks), physical reservoir computing, and data-driven methods such as Lagrangian Operator Inference and Proper Orthogonal Decomposition for model reduction. This field is significant due to its potential applications in diverse areas like minimally invasive surgery, search and rescue, and underwater exploration, driving advancements in both robotics and materials science.
Papers
Organ Shape Sensing using Pneumatically Attachable Flexible Rails in Robotic-Assisted Laparoscopic Surgery
Aoife McDonald-Bowyer, Solène Dietsch, Emmanouil Dimitrakakis, Joanna M Coote, Lukas Lindenroth, Danail Stoyanov, Agostino Stilli
Design and Evaluation of the SoftSCREEN Capsule for Colonoscopy
Vanni Consumi, Lukas Lindenroth, Jeref Merlin, Danail Stoyanov, Agostino Stilli
Tube-Balloon Logic for the Exploration of Fluidic Control Elements
Jovanna A. Tracz, Lukas Wille, Dylan Pathiraja, Savita V. Kendre, Ron Pfisterer, Ethan Turett, Gus T. Teran, Christoffer K. Abrahamsson, Samuel E. Root, Won-Kyu Lee, Daniel J. Preston, Haihui Joy Jiang, George M. Whitesides, Markus P. Nemitz
The Soft Compiler: A Web-Based Tool for the Design of Modular Pneumatic Circuits for Soft Robots
Lauryn Whiteside, Savita V. Kendre, Tian Y. Fan, Jovanna A. Tracz, Gus T. Teran, Thomas C. Underwood, Mohammed E. Sayed, Haihui J. Jiang, Adam A. Stokes, Daniel J. Preston, George M. Whitesides, Markus P. Nemitz
When Kinematics Dominates Mechanics: Locally Volume-Preserving Primitives for Model Reduction in Finite Elasticity
Xu Yi, Gregory S. Chirikjian