The education that students receive from the MIT MechE Department prepares them for successful careers in their chosen field. Part of that educational process is about receiving the skills and information needed to succeed outside of the classroom, so that students are ready to face the challenges of the professional world.
Nick Fang says predicting how hydrogels transform could help in the design of more complex and effective drug-delivery systems.
A team of researchers at MIT has discovered a way to harness the wrinkling process in a controlled and orderly way.
MIT mechanical engineering graduate student Nenad Miljkovic on condensation, nanodroplet formation, and new nanopatterned surfaces.
Scientists at MIT and the University of Pennsylvania are taking more than inspiration from nature — they’re taking ingredients.
30min lecture delivered by Prof. Beretta at the Junilee 40th Symposium on Mathematical Physics "Geometry & Quanta" on June 25, 2008 in Torun, Poland, held in honor of Prof. A. Kossakowski on his 70th birthday.The lecture summarizes the main mathematical features ...
Scalable nanopatterned surfaces designed by MIT researchers could make for more efficient power generation and desalination.
President and CEO of ViaCyte comments on engineering and hacks.
MIT researchers have engineered a device that delivers a tiny, high-pressure jet of medicine through the skin without the use of a hypodermic needle.
The internal wave field generated by a small Gaussian ridge, as viewed using Synthetic Schlieren
The scattered wave field behind a Gaussian ridege due to an incident mode-1 tide, as viewed using Particle Image velocimetry.
The internal wave field generated by a knife edge, as viewed using Synthetic Schlieren.
A novel internal wave generator producing an internal wave field due to a sinusoidally verying boundary condition.
An experimental internal wave attractor between two Gaussian ridges.
Synthetic schlieren movie of internal tide radiated by a Gaussian ridge.
An internal wave field (red arrows) produced by a novel internal wave generator with sinusoidal boundary conditions.
The velocity field for an internal tide attractor between a pair of Gaussian ridges.
The experimental internal-tide velocity field generated by a Gaussian ridge.
An experimental visualization of the internal wave field radiated by a Gaussian shaped ridge. The waves propaagte as a beam-like structure.
An experimental visualization of the internal wave field radiated by a Gaussian ridge. The waves propagate in the form of beams of focused wave energy.
