Nanoscale interface improves Li-ion battery electrodes

Microscope images and schematics of (top) one-dimensional C/Sn nanocables and (bottom) two-dimensional G/Sn/G sandwiches.

Scientists from the National Center for Nanoscience and Technology of China develop high-performance electrode materials for lithium-ion batteries.

Buffalo researchers to examine hydrogen fuel production

Sarbajit Banerjee, co-director of UB's New York State Center of Excellence in Materials Informatics, is one of two UB researchers working on the alternative energy project.

Two scientists have received a grant from the Research Corporation for Science Advancement to devise a new method for gleaning hydrogen fuel from water.

Nanoengineering boosts heat to energy conversion

The dark spots show quantum dots within a thermoelectric material. University of Michigan researchers devised a way to increase the heat-to-energy conversion by 200 percent and the electrical conductivity of their material by 43 percent. Thermoelectric materials can convert waste heat to electricity.  Image: Pierre Ferdinand P. Poudeu.

Nanoengineering boosts semiconducting material’s ability to convert heat into power by 200 percent and its electrical conductivity by 43 percent.

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Block copolymers make better solar cells

Researchers at Rice and Pennsylvania State universities have created solar cells based on block copolymers, self-assembling organic materials that arrange themselves into distinct layers. Image: Verduzco Laboratory.

Solar cells created by laboratories at Rice and Pennsylvania State universities could open the door to research on a new class of solar energy devices.

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Solar Cells as Inexpensive as Paint?

Solar Panels as Inexpensive as Paint

Organic photovoltaic materials may lead to solar cells that produce more power and cost less.

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A step towards QD solar cells

This illustration shows a lead sulfide quantum dot array. Each quantum dot (the colored clusters) is 'passivated' by molecules that bind to its surface. Dots that are made up of unequal amounts of lead and sulfur tend to cause electrons (shown in red) to become highly localized, which can substantially lower the electrical transport of the device. Image: Donghun Kim and Jeffrey C. Grossman.

MIT researchers find that the secret lies in off-kilter ratios of the two basic components that make up the dots.

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Tiny Tubes: Hydrogen Storage Inside Single-Walled Nanotubes

Hydrogen storage single-walled carbon nanotubes

Researchers develop high-pressure hydrogen storage using nanocontainers made of single-walled carbon nanotubes with ice valves sealing the ends.

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Graphene heterostructures demonstrate exciting electronic properties

graphene-for-solar-energy

Combining graphene with other one-atom thick materials could create the next generation of solar cells and optoelectronic devices, scientists have revealed.

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Nanowires on their way to highly efficient photovoltaic devices?

Cross-section through a proposed two-junction nanowire-
on-Si solar cell

Review paper analyzes opportunities and obstacles for III-V nanowires in solar energy harvesting.

How does microstructuring impact on solar cell efficiency?

New research has investigated how the internal structure of organic solar cells impacts their performance.

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