Not exact matches
SOLAR cells built into clothing sound like a great way to charge gadgets while on the move, but
for the idea to work the
cells will have to be both
flexible and cheap.
Flexible, see - through, one - atom - thick sheets of carbon could be a key component
for futuristic
solar cells, batteries, and roll - up LCD screens — and perhaps even microchips.
The phenomenon can be used
for small and
flexible digital memories of the future, and
for completely new types of
solar cells.
Empa scientists have developed a new technique
for manufacturing high - efficiency,
flexible, thin film
solar cells from CIGS (copper indium gallium di - selenide) semiconductors.
New types of
solar cells and
flexible transistors are also in the works, as well as pressure and temperature sensors that could be built into electronic skin
for robotic or bionic applications.
The latest is Metrology of Al2O3 Barrier Film
for Flexible CIGS
Solar Cells, due to appear in the new edition of the International Journal of Energy Optimization and Engineering.
The PTMA is in a class of electrically active polymers that could bring inexpensive transparent
solar cells; antistatic and antiglare coatings
for cellphone displays; antistatic coverings
for aircraft to protect against lightning strikes;
flexible flash drives; and thermoelectric devices, which generate electricity from heat.
In addition, «The team is also interested in testing these fibers
for multifunctional applications, including batteries,
solar cells, biofuel
cells, and sensors
for flexible and wearable optoelectronic systems,» Dai said.
The results are encouraging
for Aspuru - Guzik, who, in collaboration with computer giant IBM, is using the same computational tools to screen some 3.5 million organic molecules in the search
for a new generation of
flexible and lightweight
solar cells.
Organic electronic devices such as OLEDs and organic
solar cells use thin films of organic molecules
for the electrically active materials, making
flexible and low - cost devices possible.
For example, by removing some of the oxygen from graphene oxide, the electrically insulating material can be rendered conductive, opening up prospects for use in flexible electronics, sensors, solar cells and biomedical devic
For example, by removing some of the oxygen from graphene oxide, the electrically insulating material can be rendered conductive, opening up prospects
for use in flexible electronics, sensors, solar cells and biomedical devic
for use in
flexible electronics, sensors,
solar cells and biomedical devices.
Researchers at Brown University have developed a new method
for making
solar cells from perovskite — a faster, more straightforward method that can produce
flexible, high - efficiency, thinner
cells.
This finding is promising
for wearable technology where
flexible solar cells device attached on curved objects yet could enhance light harvesting efficiency.
Solar cells have great potential as a source of clean electrical energy, but so far they have not been cheap, light, and
flexible enough
for widespread use.
He also said, «Additionally, the sale of the portable
solar business enables Global Solar to increase focus on our core product lines, namely, copper indium gallium diselenide (CIGS) solar cells for OEMs such as Dow Solar and the company's commercial - scale flexible modules ideal for building integrated applications.&r
solar business enables Global
Solar to increase focus on our core product lines, namely, copper indium gallium diselenide (CIGS) solar cells for OEMs such as Dow Solar and the company's commercial - scale flexible modules ideal for building integrated applications.&r
Solar to increase focus on our core product lines, namely, copper indium gallium diselenide (CIGS)
solar cells for OEMs such as Dow Solar and the company's commercial - scale flexible modules ideal for building integrated applications.&r
solar cells for OEMs such as Dow
Solar and the company's commercial - scale flexible modules ideal for building integrated applications.&r
Solar and the company's commercial - scale
flexible modules ideal
for building integrated applications.»
Northwestern University researchers recently used metallic nanotubes to make
flexible, semi-transparent, highly conductive films that can be used
for devices such as flat - panel displays and
solar cells.
The Previous Record was 17.6 % Scientists at Empa, the Swiss Federal Laboratories
for Materials Science and Technology, have made
flexible solar cells made of copper indium gallium selenide (CIGS) with a light - conversion efficiency of 18.7