Professor Mildred Dresselhaus, in the spectroscopy lab at MIT. Breathing new life into an old idea, MIT Institute Professor Mildred S. Dresselhaus and co-workers are developing innovative materials for controlling temperatures that could lead to substantial energy savings by allowing more efficient car engines, photovoltaic cells and electronic devices.
Previous studies indicate that probing cells using electronic devices are highly sensitive to the types of interfaces, as the most critical point in signal transfer from the cell to the device is the interface between these two domains [31 34].
America's Department of Transportation is planning a rule change from October 1st to allow passengers and crew to bring fuel-cell-powered electronic devices and one or two fuel cartridges on board in their carry-on baggage.
The first is the belief that future achievements will focus on the hybridization of dissimilar technologies, such as the integration of solar cells and fuel cells in portable electronic devices.
Zhang, X. et al. Flexible all-solution-processed all-plastic multijunction solar cells for powering electronic devices.
One is an investment with Kleiner Perkins Caufield & Byers in Lilliputian Systems, a Wilmington, Mass., company that makes tiny fuel cells for portable electronic devices.
Our model suggests the polar surface-engineering as a strategy to develop more effective photocatalysts and new type of solar cells, electronic and photoelectric devices.
The design principles that follow, guide development of photovoltaic cells, electronic and spintronic devices, biological labels, and other systems rooted in the unique physical and chemical properties of nanoscale materials.
A crucial aspect of the performance of direct methanol fuel cells in portable electronic devices such as mobile phones, MP3 players and laptop computers is control of crossover between the electrodes of liquid or gaseous methanol.
