MIT class journeys to fascinating places where mechanical engineering affects biology
For students in 2.788 (Mechanical Engineering and Design of Living Systems), newly discovered phenomena present opportunities for exploration and discovery.
For students in 2.788 (Mechanical Engineering and Design of Living Systems), newly discovered phenomena present opportunities for exploration and discovery.
A passion for biomaterials inspires PhD candidate Eesha Khare to tackle climate change.
Biomaterials pioneer considered “the premier biomedical engineer of the 20th century.”
Engineers develop a rapid screening system to test fracture resistance in billions of potential materials.
Selecta Bioscience’s ImmTOR platform could improve gene therapies and prevent some drug side effects.
Mechanical “training” produces strong, fatigue-resistant, yet soft hydrogels with possible uses in medicine.
Unusual property of the ultrastrong material could be harnessed for twisting or pulling motions.
Study reveals atomic structure of tropoelastin, showing what goes wrong in some diseases.
Reconstituted silk can be several times stronger than the natural fiber and made in different forms.
Researchers in the Media Lab's bioLogic group have created a new form of performance fabric that combines biomaterials research with textile design.
Tiny sea creatures feature transparent optical systems as tough as their shells.
An MIT faculty member since 1995, Hammond succeeds Klavs Jensen as ChemE department head.
Stretchable, biocompatible hydrogels with complex patterning could be used in tissue engineering.
Simulations and experiments aim to improve on spiders in creating strong, resilient fibers.
New analysis shows how bombardier beetles produce an explosive defensive chemical jet.