Sentences with phrase «hydrogen storage at»

EWE plans to construct a power - to - gas (PtG) facility above a storage site in Huntorf in Lower Saxony in 2018, and a small cavern is to be used to test hydrogen storage at some point in the future.
Says materials scientist Michael Heben, who worked on the project: This points to the possibility of high - density hydrogen storage at room temperatures.
During the search for optimal compounds for hydrogen storage at the Institute of Physical Chemistry of the Polish Academy of Sciences (IPC PAS) in Warsaw an accidental, albeit very interesting, discovery has been made: while the pressure was being increased one of the tested materials suddenly elongated significantly.
The work also demonstrates hydrogen storage at cryogenic temperatures, and the researchers are now keen to develop hydrogen storage in the activated coffee grounds at less extreme temperatures.

Not exact matches

Sung June Cho, a chemist at the Korean Institute of Energy Research in Taejon, suspected that the storage capabilities of nanotubes could result in part from their ability to conduct electrical charges, which may help hydrogen molecules adhere.
But Rothenberger and others at the meeting emphasized that a viable hydrogen storage material would have to give up the gas when it is needed.
Hydrogen seems to be an excellent and clean energy vector, and catalysis is expected to be at the core of the new developing technologies for the production, storage, and burning of hydrogen in fueHydrogen seems to be an excellent and clean energy vector, and catalysis is expected to be at the core of the new developing technologies for the production, storage, and burning of hydrogen in fuehydrogen in fuel cells.
Scientists at GM and its partner HRL Laboratories in Malibu, Calif., have reported advances in two hydrogen storage technologies — cryoadsorption and destabilized complex metal hydrides.
At the same time, they also make it possible to obtain high - purity hydrogen for clean energy generation and storage, making ceramic membranes a key technology for transforming the energy sector (Energiewende).
Frank Graf, Section Head of the test laboratory of the German Technical and Scientific Association of Gas and Water (DVGW) at KIT, adds: «So far, admixture of hydrogen in the natural gas grid has been limited to a few percent, as storage, distribution, and use require the solution of various technical problems.»
The commission's new research funding program, which will run from 2014 to 2020 under the name Horizon 2020, will continue three existing JTIs: Fuel Cells and Hydrogen, which aims to develop clean technologies for energy transport and storage; Clean Sky, for the development of cleaner aircraft; and the Innovative Medicines Initiative (IMI), a JTI aimed at speeding up drug development.
Shin - ichi Orimo at the Advanced Institute for Materials Research, Tohoku University, is excited about the potential of hydrogen - containing materials known as hydrides for energy storage.
Among the areas of research that inspire Dr. Cui are: the development of new technologies to further the development of electric transportation; creating new battery chemistry for grid - scale storage at ultra-low cost; and harnessing low - cost technologies for the development of catalysts for efficient carbon dioxide reduction and conversion into highly valuable products and inert carbon - hydrogen bond activation.
He serves on the Lujan Center Neutron review committee at LANSCE, the Advisory Board for the Hydrocarbon Resources Gordon Research Conference and is a panel expert on the International Energy Agency (IEA) task on Hydrogen Storage.
«The hardest part is getting the hydrogen back onto the storage material,» said Dr. Tom Autrey, a chemist at PNNL who was involved with the study.
Both the American Crystallographic Association and the American Chemical Society Division of Inorganic Chemistry recognized Mulfort's research at Northwestern University, performed for her 2008 doctoral degree, on hydrogen storage in metal - organic frameworks.
Existing hydrogen storage quantities support research at the following capacities and pressures; 100 kg at 20 bar, 80 kg at 400 bar and 60 kg at 875 bar (for a total of 240 kg stored on - site).
Katie Randolph is a Technology Manager at the U.S. Department of Energy's (DOE's) Fuel Cell Technologies Office where she manages a wide range of hydrogen production, delivery, and storage research and development projects.
At EMSL, the GA helps users advance molecular science in areas such as aerosol formation, bioremediation, catalysis, climate change, hydrogen storage, and subsurface science.
The hydrogen fuel tanks are mounted beneath the cargo floor, with the storage batteries located at the center of the chassis.
Future technological developments may well include hydrogen storage solar systems; one can imagine a closed system (no H2 leaks) in which solar energy is used to split water to H2 and O2 during the daytime, which is then recombined to generate electricity and reform H2O at night, and so on.
A new paper, presented at the SolarPACES Annual Conference proposes using ceria particles not only as the redox reactant in hydrogen production, but for also for heat transfer and storage.
Yaghi's group and Jeffrey Long's group at UC Berkeley both recently created MOFs that can hold up to 7.5 % of their weight in hydrogen, better than a benchmark for hydrogen storage set by the U.S. Department of Energy.
Researchers at Lawrence Berkeley National Laboratory (Berkeley Lab) have developed a new, environmentally stable solid - state hydrogen storage material constructed of Mg nanocrystals encapsulated by atomically thin and gas - selective reduced graphene oxide (rGO) sheets.
There are various types of technologies that can play significant roles in mitigating climate change, including energy efficiency improvements throughout the energy system (especially at the end use side); solar, wind, nuclear fission and fusion and geothermal, biomass and clean fossil technologies, including carbon capture and storage; energy from waste; hydrogen production from non-fossil energy sources and fuel cells (Pacala and Socolow, 2004; IEA, 2006b).
The storage costs per kilowatt hour are estimated at $ 0.10 for hydrogen and $ 0.15 for methane.
To their surprise, the titanium augmented sodium alanate's capabilities as a storage system - lowering the temperature at which hydrogen was released, making the process much more efficient, while allowing for easier refueling and storage of high - density hydrogen at more conventional pressures and temperatures.The result: a near - doubling of the stored gas» weight - percent when compared to other cheap materials.
In other words, the titanium helped accelerate processes in the hydride that were essential to extracting hydrogen at lower temperatures - an important realization that will help scientists gain a better understanding of other materials» properties as hydrogen storage systems (and lead to the discovery of better ones).
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This increase in storage is accomplished by pressurizing the hydrogen to a much greater degree than previous tanks: Where older models might be pressurized at 2 - 10 atmospheres this new prototype tank can operate at a pressure of 350 atmospheres.
Before practicing law, Shrestha was a research scientist at Los Alamos National Laboratory in New Mexico, where his investigation on materials for hydrogen storage technology received several patents.
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