Tough, Flexible, Strong: Characterization of Soft–Soft Silicone Interfaces for Soft Robotics
Charlotte M. Folinus, Kaitlyn P. Becker · SAGE Publications · 2026
This study characterizes soft-soft silicone interfaces to guide material selection and design in soft robotics.
Plain English summary
Why this matters
Key findings
- Characterization of five addition-curing silicone rubbers and five bonding processes.
- Defined performance metrics: toughness, flexibility, and strength.
- Substrate material and bonding method jointly determine failure behavior.
- Insights into characteristic failure modes can inform design strategies.
- Framework provided for material selection in soft robotics.
What's new
The study offers a systematic characterization of soft-soft silicone interfaces, providing a framework for material selection and design strategies in soft robotics.
Limitations
The abstract does not mention specific applications or the broader implications of the findings beyond soft robotics.
Commercial context
The abstract does not provide information on commercial availability or readiness.
Publication
- Publisher
- SAGE Publications
- Publication date
- March 10, 2026
- Research type
- Paper
- License
- https://journals.sagepub.com/page/policies/text-and-data-mining-license
Tags
More on Soft Robotics Materials
See all →Fabric Pneumatic Artificial Muscles Based on the Drawstring Principle
This research introduces a novel drawstring fabric pneumatic artificial muscle that enhances compactness and performance for robotics applications.
Hand Rehabilitation Dynamic Splint with Variable Force via Pneumatic Artificial Muscle Actuators
A dynamic hand splint using pneumatic actuators shows promise for improving rehabilitation through controllable force during exercises.
Multi-Mode Pneumatic Artificial Muscles Driven by Hybrid Positive-Negative Pressure
The study presents a new type of inflatable artificial muscle that can be programmed for various movements, enhancing soft robotics applications.
Fabric Pneumatic Artificial Muscle-Based Head-Neck Exosuit: Design, Modeling, and Evaluation
This research presents a fabric pneumatic artificial muscle-based exosuit designed to assist head-neck mobility, particularly for patients with neurological disorders.
Monolithically Printed Pneumatic Proprioceptive Actuator with Integrated Optical Waveguide Using a Single Material
This research presents a method for creating pneumatic proprioceptive actuators with integrated optical waveguides using a single material, enhancing soft robotics capabilities.
Twisting Tube Artificial Muscle (TTAM) and Its Application in Agonist and Antagonist Drive
The Twisting Tube Artificial Muscle (TTAM) offers a novel approach to pneumatic artificial muscles, enhancing mobility and performance in robotic applications.
Recently published
Latest research →A modular block-based acoustic metamaterial absorber with coiled cavities for enhanced sound absorption
This research presents a modular acoustic metamaterial with tunable sound absorption capabilities for low-frequency applications.
A Comprehensive Study on the Development of Stimuli-Responsive Smart Polymer Systems for Controlled Drug Delivery
This study highlights the potential of multi-stimulus responsive smart polymers for enhanced drug delivery systems.
Bio-inspired re-entrant honeycomb metamaterial with programmable dual-plateau mechanical response
A bio-inspired re-entrant honeycomb mechanical metamaterial is described as having a programmable dual-plateau mechanical response.
Modelling the thermo-mechanical responses and shape recovery performance of particle-reinforced shape memory polymer composites in cold and hot programming
A study focused on modeling thermo-mechanical behavior and shape recovery of particle-reinforced shape-memory polymer composites when programmed in cold versus hot conditions.