Materials science

A better way to shed waterMIT researchers find that lubricated, nanotextured surfaces improved performance of condensers in power and desalination plants.

Profile: Ju Li explores new nanomaterialsWorking from the scale of atoms on up, he designs materials for future energy applications.

New technique reveals lithium in actionFundamental reactions behind advanced battery technology, revealed in detail by advanced imaging method, could lead to improved materials.

Probing the mysteries of cracks and stressesAnalysis of molecular-level fracture and stress mechanisms could have broad implications for understanding materials’ behavior.

Understanding and predicting materials behaviorDepartment of Nuclear Science and Engineering takes an interdisciplinary approach

Oscillating microscopic beads could be key to biolab on a chipMIT team finds way to manipulate and measure magnetic particles without contact, potentially enabling multiple medical tests on a tiny device.

World-class musician Mark Stewart comes to the Glass LabIn a yearlong residency, the musician and instrument designer will build a glass orchestra with MIT students.

Protein impedes microcirculation of malaria-infected red blood cellsMIT-led research team finds that protein significantly reduces infected cells’ ability to squeeze through tiny channels compared to healthy cells.

Engineers achieve longstanding goal of stable nanocrystalline metalsMethod developed by MIT researchers could produce materials with exceptional strength and other properties.

One-molecule-thick material has big advantagesMIT researchers produce complex electronic circuits from molybdenum disulfide, a material that could have many more applications.

Plants exhibit a wide range of mechanical properties, engineers findBiological structures may help engineers design new materials.

Graphene’s behavior depends on where it sitsNew findings show that the material beneath the thin carbon sheets determines how they react chemically and electrically.

Wrinkled surfaces could have widespread applicationsMIT team discovers way of making perfectly ordered and repeatable surfaces with patterns of microscale wrinkles.

Yildiz wins 2012 Charles W. Tobias Young Investigator Award

Research update: Chips with self-assembling rectanglesNew technique allows production of complex microchip structures in one self-assembling step.

Dripping faucets inspire new way of creating structured particlesResearchers find new method for making spherical particles, from nanoscale to pinhead-sized — including complex beach-ball-like shapes.

A new approach to water desalinationGraphene sheets with precisely controlled pores have potential to purify water more efficiently than existing methods.

New technique allows simulation of noncrystalline materialsMultidisciplinary team develops mathematical approach that could help in simulating materials for solar cells and LEDs.

All-carbon solar cell harnesses infrared lightNew type of photovoltaic device harnesses heat radiation that most solar cells ignore.

Teaching self-assembling structures a new trickMIT researchers produce 3-D configurations that could lead to new microchips and other devices.

Fusion program moves beyond plasma, toward practical powerplant issues

Crowding causes cells to produce an orderly matrix of moleculesMaking proteins stand in line could lead to more lifelike lab tests.

Nuclear science and engineering graduate students win NEUP fellowshipsBlack, Boyd and Shaner among 31 recipients

Gradečak wins Nano Letters young investigator awardMaterials science and engineering professor studies nanophotonics and electronics.