Carlos E. Castro
Papers
14
Total Citations
508
H-Index
8
About
Carlos E. Castro is a pioneering researcher at the intersection of DNA nanotechnology, molecular robotics, and biomedical engineering. Best known for his groundbreaking work in DNA origami, Castro has fundamentally advanced the field by transforming rigid nanostructures into mechanically functional, dynamic devices capable of programmed motion and sensing. His 2013 paper on compliant DNA origami nanostructures with tunable mechanical properties (137 citations) established a foundation for engineering flexibility and responsiveness into self-assembled DNA systems—a conceptual leap that catalyzed subsequent innovations in molecular-scale robotics. Castro's research explores how DNA nanodevices can sense environmental cues, apply measurable forces, and execute complex, paper-origami-inspired motions at the nanoscale. His work on cation-activated avidity for rapid device reconfiguration (76 citations) and high-force DNA force spectrometers (31 citations) demonstrates a sustained effort to push these devices toward real-world applications in nanomedicine, drug delivery, and force measurement. Notably, he has also contributed to biomedical engineering through direct-write 3D printing of biomaterials for intracorporeal tissue engineering (91 citations). Across more than 500 cumulative citations, Castro has built a uniquely interdisciplinary research identity that bridges mechanical engineering principles with cutting-edge biomolecular design.
Research Focus
Key Achievements
Top Papers
- 1DNA Origami Compliant Nanostructures with Tunable Mechanical Properties137 citations · 2013
- 2
- 3Cation-Activated Avidity for Rapid Reconfiguration of DNA Nanodevices76 citations · 2018
- 4Dynamic DNA Origami Device for Measuring Compressive Depletion Forces71 citations · 2017
- 5
- 6High-Force Application by a Nanoscale DNA Force Spectrometer31 citations · 2022
- 7
- 8
- 9Design and Fabrication of DNA Origami Mechanisms and Machines8 citations · 2012
- 10Steric Communication between Dynamic Components on DNA Nanodevices7 citations · 2023