Thomas Geiger

Swiss Federal Laboratories for Materials Science and Technology

Papers

Total Citations

H-Index

About

Thomas Geiger is a leading researcher at the intersection of soft robotics and smart materials, with a primary focus on developing bio-inspired, self-sensing structures for environmental monitoring. His most notable contribution is the pioneering work on "Self-Sensing Cellulose Structures With Design-Controlled Stiffness" (2021, 12 citations), which introduces a novel class of compliant robots that can both sense and adapt to their surroundings without rigid electronics. By engineering cellulose-based materials with tunable mechanical properties, Geiger has addressed a critical challenge in field robotics: enabling delicate, compliant machines to operate safely in vulnerable ecosystems while maintaining structural integrity. His approach allows for the design of robots that can detect environmental changes—such as pressure or moisture—through their own material properties, eliminating the need for external sensors. This work has significant implications for ecological sampling, agricultural monitoring, and disaster response, where traditional rigid robots risk damaging sensitive habitats. Geiger’s research bridges material science and robotics, offering a sustainable, biodegradable alternative to conventional synthetic sensors. His contributions are shaping the next generation of autonomous, environmentally-conscious robots, making him a key figure in the advancement of soft robotics for real-world applications.