Materials science and engineering

MIT aerospace engineers have found a way to bond composite layers, producing a material that is substantially stronger and more resistant to damage than other advanced composites. The improvement may lead to stronger, lighter airplane parts.

Carbon nanotube “stitches” strengthen composites

Method to reinforce these materials could help make airplane frames lighter, more damage-resistant.

August 2, 2016

Erica Eggleton is working this summer in the lab of MIT Professor Krystyn Van Vliet on lithium manganese oxide (LMO) electrodes for lithium ion batteries. Here, she measures out carbon powder, a binder, and LMO, the active powder used in the battery electrodes.

Analyzing lithium ion battery fatigue

Summer Scholar Erica Eggleton joins Van Vliet Lab to make and test lithium manganese oxide electrodes.

August 2, 2016

MIT Energy Initiative researchers are making technological progress across the low-carbon energy spectrum.

Addressing climate change with Low-Carbon Energy Centers

New interdisciplinary centers will advance clean technology in key areas.

July 28, 2016

Roughness- and deflection-induced excess carbon dioxide emissions on Virginia’s Interstate Highway network in 2013

Data-driven approach to pavement management lowers greenhouse gas emissions

July 26, 2016

In a new concept for battery cathodes, nanometer-scale particles made of lithium and oxygen compounds (depicted in red and white) are embedded in a sponge-like lattice (yellow) of cobalt oxide, which keeps them stable. The researchers propose that the material could be packaged in batteries that are very similar to conventional sealed batteries yet provide much more energy for their weight.

New lithium-oxygen battery greatly improves energy efficiency, longevity

New chemistry could overcome key drawbacks of lithium-air batteries.

July 25, 2016

Left to right: Roland Pellenq of the Department of Civil and Environmental Engineering (CEE), Katerina Ioannidou of the MIT Energy Initiative, and Franz-Josef Ulm of CEE have developed a detailed understanding of the nanoscale forces at work as cement hardens — a critical step toward developing stronger, longer-lasting, less carbon-intensive concrete for “greener” construction in the future.

Designing climate-friendly concrete, from the nanoscale up

New understanding of concrete’s properties could increase lifetime of the building material, decrease emissions.

July 21, 2016

The process of making a stack of parallel sheets of graphene starts with a chemical vapor deposition process (I) to make a graphene sheet with a polymer coating; these layers are then stacked (II), folded and cut (III) and stacked again and pressed, multiplying the number of layers. The team used a related method the team to produce scroll-shaped fibers.

Borrowing from pastry chefs, engineers create nanolayered composites

Method to stack hundreds of nanoscale layers could open new vistas in materials science.

July 21, 2016

At left: A single crystal compound of gadolinium, platinum, and bismuth made with naturally occurring elements. At right, a single crystal of this material made with isotopically enriched gadolinium for neutron scattering experiments. Both crystals are approximately 1 mm in size.

Mixing topology and spin

MIT-led team demonstrates paired topology and intrinsic magnetism in compound combining gadolinium, platinum, and bismuth.

July 19, 2016

MIT postdoc Junwei Liu and collaborators are proposing a new random access memory (RAM) device architecture using ferroelectric tunneling RAM.

Charging up random access memory

Researchers demonstrate room-temperature ferroelectric states in ultra-thin films of tin and tellurium.

July 14, 2016

Professional rider and founder of Mirai EV of Japan Yosihiro Kishimoto rides the electric bike designed by the KOMMIT Electric Vehicle Team.

Team led by MIT engineers places second at Pikes Peak International Hill Climb

Motorcycle completes 12.5 miles, 156 turns for a second-place finish in the race's Electric Bike Division.

July 11, 2016

Unlocking the past with the future of imaging

New grants help MIT Libraries, DMSE, and CSAIL push the boundaries of examining artifacts.

July 7, 2016

$The method combines optical microscopy techniques (left, in pink) with electron backscatter diffraction (right, in green) to measure characteristics of the boundaries between crystal grains, which help determine the material’s overall properties.$

MIT News | Massachusetts Institute of Technology - On Campus and Around the world

Browse By

Topics

Departments

Centers, Labs, & Programs

Schools

Topic