This division supports projects developing and demonstrating new approaches to control/program biology for biomedical intervention, without preference for any particular disease or application.
Emphasis in this program is on engineering new biomechanical materials, sensors, actuators, and other parts and modules to interface and communicate with human biology and engineered systems for biomedical intervention. These parts and modules act as biotransducers to convert mechanical energy into biological action. Projects should be directed toward overcoming a technological challenge that limits biomedical adoption. This program encourages projects that use a design-build-test approach.
Examples of biomechanical parts and modules include but are not limited to:
- mechano-sensitive scaffolds for modulating tissue
- microgrippers and drills for surgical robots
- 3D printed tactile sensors for prosthetics
- soft elastomeric actuators for assistive devices
Additional emphasis in this program is on the development of screening and processing tools and the discovery of design principles to design, build, and test engineered biomechanical modules.
Tissue engineering (also called "Regenerative Medicine") refers to the attempt to create functional human tissue from cells in a laboratory.
This short video briefly highlights 6 cool technologies that your tax dollars have helped to fund.
Research funded by the NIH at the Massachusetts Institute of Technology has resulted in the ability to provide both mouse liver function and human liver function in the same mouse. This capability enables researchers to investigate how human livers metabolize drugs, to test susceptibility to toxicity, and to demonstrate species-specific responses that typically do not show up until clinical trials.
New material promotes wound healing