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BASF Battery Materials will discuss its latest improvements in Nickel Metal Hydride (NiMH) battery technology for grid energystorage applications at the 8 th International Renewable EnergyStorage Conference and Exhibition (IRES 2013), being held 18-20 November 2013 in Berlin, Germany.
NASA has selected four proposals for advanced Li-ion and Li-sulfurenergystorage technologies that may be used to power the agencys future space missions. High Energy Density and Long-Life Li-S Batteries for Aerospace Applications, submitted by the California Institute of Technology in Pasadena.
Researchers at Rensselaer Polytechnic Institute (RPI) have now developed a method to use this cheap and abundant waste byproduct to build a components for lithium-sulfur batteries. When the sulfur loading was further increased to 68 wt%, the capacity still reaches as high as 1100 mA h g ?1 per cycle over 200 cycles.
Automakers and other energystorage stakeholders are lining up to test new lithium-sulfur EV batteries from the US startup Lyten. The post Lithium-Sulfur EV Batteries To Be Tested By Automakers appeared first on CleanTechnica.
The Department of Energy’s Oak Ridge National Laboratory and Solid Power Inc. have signed an exclusive agreement licensing lithium-sulfur materials for next-generation batteries. Solid Power licensed a portfolio of ORNL patents relating to lithium-sulfur compositions that will enable development of more energy-dense batteries.
developer of the Lyten 3D Graphene decarbonization supermaterials platform, commissioned its Lithium-Sulfur battery pilot line at its facility in Silicon Valley. The pilot line will deliver cells that exceed conventional Nickel-Cobalt-Manganese (NMC) lithium-ion battery gravimetric energy densities. Lyten, Inc.,
A new biologically inspired battery membrane has enabled a battery with five times the capacity of the industry-standard lithium ion design to run for the thousand-plus cycles needed to power an electric car.
Researchers at Argonne National Laboratory have advanced lithium-sulfur (Li-S) battery research by creating a redox-active interlayer within the battery that adds energystorage capacity while nearly eliminating a traditional problem with sulfur batteries. —Lee et al.
Controls and energystorage top the list. The greatest amount of investment is related to, in order of funding, controls; energystorage; vehicle body and architecture; and electric motors. HI-WI, iKRAVT); controls for energystorage systems (i.e. Energystorage. Source: JRC. Click to enlarge.
Fraunhofer IWS in Dresden, Germany will hold its 3rd annual workshop on Lithium-sulfur batteries from 12-13 November 2014. As with the prior Lithium-Sulfur Battery Workshops in 2012 and 2013, this year’s symposium will bring together an international audience of scientists and industrial customers.
The new projects in four focus areas join the existing Faraday Institution research projects that collectively aim to deliver the organisation’s mission to accelerate breakthroughs in energystorage technologies to benefit the UK in the global race to electrification.
Despite its current troubles, Stellantis is pushing forward with big EV battery plans including new lithium-sulfur technology and a new lithium-ion battery factory in Indiana. The post New Lithium-Sulfur EV Battery Could Reverse The Ill Fortunes Of Stellantis appeared first on CleanTechnica.
Researchers at the US Department of Energy’s Lawrence Berkeley National Laboratory have demonstrated in the laboratory a lithium-sulfur (Li/S) battery that has more than twice the specific energy of lithium-ion batteries, and that lasts for more than 1,500 cycles of charge-discharge with minimal decay of the battery’s capacity.
The US Department of Energy (DOE) Advanced Research Projects Agency - Energy (ARPA-E) will award approximately $36 million to 22 projects to develop transformational electric vehicle (EV) energystorage systems using innovative chemistries, architectures and designs. National Renewable Energy Laboratory.
Scientists from Gwangju Institute of Science and Technology (GIST), Korea, have found that a new catalyst material can improve lithium–sulfur battery life significantly. Long-term cycle performance and Coulombic efficiency of 15% CoC 2 O 4 -containing carbon layer on a sulfur cathode with CoC 2 O 4 under various current densities.
The composite shows good rate performance and excellent cycling stability for use as a cathode material in Lithium-sulfur batteries. Polyaniline is an interesting conducting polymer because it works as a substrate to load sulfur and can be used as a cathode in lithiumsulfur batteries. —Li et. Raji, Errol L.
Researchers at Beihang University in Beijing have developed a linear molecule sulfur-rich organic material as sulfur cathode for a lithium-sulfur battery. The tetramethylthiuram disulfide-sulfur (TMTD-S) cathode material delivers an initial capacity of 685?mAh 1 at 0.2C (1?C?=?1061?mAh 1 after 200 cycles.
Recycling w/o 2nd” indicates retired batteries that are directly recycled without a second life as energystorage systems (ESSs). NMC/NCA scenario illustrates that the market share of NMC/NCA will increase to 100% by 2050. Recycling w/2nd” denotes retired batteries reused as ESSs before recycling. Zhang et al.
Consultancy Frost &Sullivan has selected UK-based lithium-sulfur battery developer OXIS Energy to receive the 2014 European Frost & Sullivan Award for Technology Innovation. Additionally, OXIS Energy’slithium-sulfur battery has long lifecycles. Batteries Li-Sulfur' Earlier post.).
UK-based Lithium-sulfur battery company OXIS Energy ( earlier post ) reported developing a Lithium-sulfur cell achieving in excess of 300 Wh/kg. In August, for example, OXIS Energy and Multi Source Power technologies (MSP) formed a partnership to develop Li-sulfur batteries for marine applications.
Researchers at the Department of Energy’s Pacific Northwest National Laboratory (PNNL) have designed a lithium–sulfur battery using electrically connected graphite and lithium metal as a hybrid anode to control undesirable surface reactions on lithium. Huang et al. Click to enlarge. —Huang et al.
She’s excited about bringing lithium-sulfur batteries into a new era at Lyten, one in which […] Previously, she worked with Tesla for more than 6 years as a top battery engineer and manager. She’s also spent time at Panasonic, Uber, and Quantumscape.
To develop higher capacity batteries, researchers have looked to lithium-sulfur batteries because of sulfur’s high theoretical capacity and energy density. It also consumes fresh lithium and electrolytes, and reduces battery performance.
Stanford University scientists have created a new ultrahigh surface area three-dimensional porous graphitic carbon material that significantly boosts the performance of energy-storage technologies. Previously reported sulfur electrodes often had areal capacity of below 3 mAh g −1 and cycling lifetime of less than 200 cycles.
Lithium-sulfur batteries are prospects for future batteries as they are made from cheaper and more environmentally friendly materials than lithium-ion batteries. They also have higher energystorage capacity and work well at much lower temperatures. However, they suffer from short lifetimes and energy loss.
The first Calbattery/CALEB LIB will utilize novel high-voltage lithium cobalt oxide cathode, high voltage dual-phase electrolyte, and conventional anode materials that can be used for power tools, laptops, and cell phones. Earlier post.).
A team of researchers in China has devised a simple and mass-produceable method to modify a Li metal anode to avoid the formation of an unstable solid electrolyte interphase (SEI) and the subsequent growth of Li dendrites in high-energy-density Li-S batteries. A paper on their work is published in the journal EnergyStorage Materials.
A team of researchers led by scientists at the US Department of Energy’s Lawrence Berkeley National Laboratory (Berkeley Lab) have designed an active polyelectrolyte binder (PEB) that actively regulates key ion transport processes within a lithium-sulfur battery, and have also shown how it functions on a molecular level.
Researchers at Stanford University and SLAC led by Stanford associate professor Yi Cui have used a sulfur–TiO 2 yolk–shell design for a cathode material for a lithium-sulfur battery that achieved an initial specific capacity of 1,030?mAh?g This is the highest performing sulfur cathode in the world, as far as we know.
Researchers at Tsinghua University have combined two types of carbon materials to create a new composite sulfur cathode material for a high-energy and high-power lithium-sulfur battery. 2014) “ Hierarchical Nanostructured Carbon/Sulfur Hybrid Cathode for High-Performance Lithium-Sulfur Battery ,” IMLB 17.
Researchers at Jiangsu Normal University in China have devised a boron-doped carbon-sulfur (BCS) aerogel with consecutive “core-shell” stuctures as a binder-free cathode for lithium-sulfur batteries. Good porous structures of BCS aerogel can provide sufficient space for the expansion of active sulfur.
The high stability of these electrolytes enables batteries that can work at very high temperatures, high voltages and with next-generation “beyond lithium-ion” technologies like lithium-sulfur and metal-air batteries. Boulder Ionics Corp.,
The technologies covered in the report include Lithiumsulfur (LiS); Magnesium-ion (Mg-ion); solid electrolyte; next-generation flow batteries; and metal-air batteries. In a new report , Navigant Research forecasts that the market for next-generation advanced batteries (i.e., billion in 2023.
Next-generation batteries will see explosive growth after 2030: Lithium-sulfur will jump from $6 billion in 2030 to $29 billion in 2035, while solid-state batteries will climb from $3 billion to $42 billion over the same period. The report is part of the Lux Research EnergyStorage Intelligence service.
Researchers in China are proposing a new strategy for addressing some of the issues limiting the commercialization of high energy density lithium-sulfur batteries ( earlier post ): using small sulfur allotropes (different forms of the same element)—i.e., sulfur batteries, such as Li?S, Credit: ACS, Xin et al.
ARPA-E OPEN 2012 selections: Transportation EnergyStorage. that could improve the amount of energystorage allowing an. Lithium-Sulfur Batteries. innovative water-based, lithium-sulfur battery. Today, lithium-sulfur battery technology offers the lightest high-energy batteries.
Under the European Union’s Horizon 2020 research and innovation program, the EU has launched ALISE (Advanced LithiumSulfur battery for xEV), a pan-European collaboration focused on the development and commercial scale-up of new materials and on the understanding of the electrochemical processes involved in lithium-sulfur technology.
The researchers said that their work, published in the Proceedings of the National Academy of Sciences (PNAS), represents a significant breakthrough to enable high performance lithium batteries. Using lithium metal in organic liquid electrolyte systems faces many challenges in terms of battery performance and safety. La 3 Zr 2 Al 0.2
The research pathways focus on fuel diversification, vehicle efficiency, energystorage, lightweight materials, and new mobility technologies to improve the overall energy efficiency and affordability of the transportation system. Lithium-sulfur and lithium-air battery cell development.
The “classic” high-energy capacity Lithium-sulfur battery is predicated on the use of a sulfur-based cathode and a Lithium-metal anode. Among the issues hampering the commercialization of this attractive technology are the safety and performance issues associated with the use of the lithium-metal anode.
Vasant Kumar at the University of Cambridge and Professor Renjie Chen at the Beijing Institute of Technology has devised a three-dimensional hierarchical sandwich-type graphene sheet-sulfur/carbon (GS-S/C ZIF8-D ) composite to address performance-related issues in Lithium-sulfur batteries such as low efficiency and capacity degradation.
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