Green Car Congress

APRIL 15, 2012

A team of researchers from the US and China have developed novel polymer?graphene polymer with a stable skeleton and highly electroactive functional group can potentially be a high-power cathode candidate because its redox reaction intrinsically has faster kinetics than inorganic intercalation cathodes. Credit: ACS, Song et al.

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Li-ion Polymer Green Batteries 239

Green Car Congress

NOVEMBER 17, 2013

Top: The stress of repeated swelling and shrinking shatters a conventional silicon electrode and its polymer binding. Bottom: An electrode coated with stretchy, self-healing polymer remains intact. (C. 1 for Li 15 Si 4 at room temperature)—almost ten times that of commercialized graphite anodes. Wang et al.,

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Li-ion Polymer Batteries Battery 230

Green Car Congress

JANUARY 7, 2015

A team from the University of Rome Sapienza has developed a rechargeable lithium-ion polymer battery based on the combination of a high capacity sulfur-carbon cathode, nanostructured Li x Sn-C anode and polysulfide-added PEO-based gel membrane. Moreover, the addition of a dissolved polysulfide (i.e.

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Li-ion Polymer Lithium Sulfur Energy 150

Green Car Congress

JUNE 15, 2015

Researchers led by a team from Griffith University in Australia have developed a multifunctional polymer binder that not only maintains the outstanding binding capabilities of sodium alginate but also enhances the mechanical integrity and lithium-ion diffusion coefficient in a LiFePO 4 (LFP) electrode during the operation of the batteries.

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Li-ion Polymer Lithium Ion Sodium 150

Green Car Congress

JUNE 23, 2016

Researchers at the University of Maryland have developed a novel, flexible, solid-state, ion-conducting membrane based on a 3D ion-conducting ceramic nanofiber network. The 3D ion-conducting network is based on percolative garnet-type Li 6.4 The 3D ion-conducting network is based on percolative garnet-type Li 6.4

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Li-ion Lithium Sulfur Batteries Battery 199

Green Car Congress

APRIL 12, 2020

Researchers at Tokyo Metropolitan University have developed a new practical method to make a flexible composite Al-doped LLZO (Al-LLZO) sheet electrolyte (75 ?m m in thickness) for Li-metal batteries, which can be mass-produced at room temperature. Credit: Tokyo Metropolitan University. La,Li)NbO 3 ) and Li 1.3

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Li-ion Batteries Battery Production 459

Green Car Congress

SEPTEMBER 5, 2017

A researcher at Shizuoka University in Japan has identified new solid materials that could lead to the manufacture of non-toxic solid-state lithium-ion batteries, according to a study recently published in an open access paper in the journal Science and Technology of Advanced Materials. —Makoto Moriya (2017).

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Li-ion Lithium Ion Batteries Battery 170

Green Car Congress

MAY 30, 2021

Researchers in the European AMAPOLA (A Marketable Polymer based Al-S battery) project are analyzing the combination of sulfur and aluminum in a battery; both elements are abundant in the earth’s crust. Pre-industrialization.

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Polymer Batteries Battery Li-ion 321

Green Car Congress

FEBRUARY 11, 2014

Researchers led by chemist Joseph DeSimone at the University of North Carolina at Chapel Hill, in collaboration with Nitash P. Balsara at UC Berkeley, have identified a new class of nonflammable electrolytes based on functionalized perfluoropolyethers (PFPEs) for lithium-ion batteries. —Dominica Wong, lead author. —Prof.

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Li-ion Dominica Lithium Ion Batteries 261

Green Car Congress

OCTOBER 24, 2016

A team at Columbia University, with colleagues from Institute Recherche d’Hydro-Québec (IREQ), has developed a new pre-lithiation method to increase the energy density of lithium (Li-ion) batteries by utilizing a trilayer structure that is stable even in ambient air. Credit: ACS, Cao et al. Click to enlarge.

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Li-ion Energy Polymer Batteries 150

Green Car Congress

NOVEMBER 26, 2012

Li-ion cathode materials that deliver high power and capacity and that also do not contain heavy metals are highly desired from a viewpoint of sustainability, the team notes in their paper. discharge properties as a cathode material in a Li-ion battery. Extended charge?discharge Credit: ACS, Nokami et al.

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Li-ion Charging Batteries Battery 287

Green Car Congress

JANUARY 21, 2013

John Goodenough at the University of Texas at Austin and colleague Kyu-Sung Park have written a perspective paper on Li-ion batteries (LIBs), published in the Journal of the American Chemical Society. More recently, at the University of Texas, Austin, Dr. Goodenough patented a new class of iron phosphate materials.

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Li-ion PHEV Transportation Batteries 262

Green Car Congress

JUNE 4, 2013

Schematic illustration of 3D porous SiNP/conductive polymer hydrogel composite electrodes. Each SiNP is encapsulated in a conductive polymer surface. A team at Stanford University has developed stable silicon Li-ion battery anodes by incorporating a conducting polymer hydrogel into the Si-based material.

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Li-ion Manufacturer Polymer Deep Cycle 236

Green Car Congress

APRIL 30, 2022

The selected projects are: Advanced Manufacturing Process Innovations – Flex-Ion Battery Innovation Center. The Flex-Ion Battery Innovation Center, a division of Ventra Group Co., will establish a center of excellence for advanced Li-Ion battery manufacturing, in collaboration with partner eCAMION. Lead: Ventra Group Co.;

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Canada Li-ion Emissions Vehicles 304

Green Car Congress

JULY 7, 2016

Silatronix, a developer of unique organosilicon (OS) electrolytes for use in lithium-ion batteries (LIBs) ( earlier post ), has raised US$8 million in new equity capital, and secured partnerships for distribution and joint technological development. Current Li-ion electrolytes are unstable above 60 °C and at charge voltages above 4.3

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Li-ion Batteries Battery Wisconsin 150

Green Car Congress

FEBRUARY 21, 2012

Charge and discharge profile of first and second cycles of Li 2 MnSiO 4 samples measured at 45 °C at 0.02C rate. Researchers from Tohoku University, Japan, have developed novel ultrathin Li 2 MnSiO 4 nanosheets for use as a cathode material in lithium-ion batteries. Credit: ACS, Rangappa et al. Click to enlarge.

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Li-ion Lithium Ion Ni-Li Batteries 230

Green Car Congress

JULY 26, 2016

The dissolution of transition metals (TMs) from Li-ion battery cathodes is a major contributor to cell degradation during cycling and aging. Molecules have been attached to the polymer separator to sequester TMs from the electrolyte before they reach the anode. A variety of strategies have been used to limit degradation by TMs.

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Li-ion Ni-Li Lithium Ion Polymer 150

Green Car Congress

OCTOBER 28, 2021

Battery 500 Phase 2, with BNL, INL, SLAC, General Motors and 8 universities as partners. Ion Conductive High Li+ Transference Number Polymer Composites for Solid-State Batteries. Polymer Electrolytes for Stable Low Impedance Solid State Battery Interfaces. Lawrence Berkeley National Laboratory (LBNL).

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Connect Connected Li-ion Batteries 186

Green Car Congress

AUGUST 26, 2019

Researchers at MIT, with a colleague from Tsinghua University, have developed a safety envelope for Li-ion batteries in electric vehicles by using a high accuracy finite element model of a pouch cell to produce more than 2,500 simulations and subsequently analyzing the data with Machine Learning (ML) algorithms. —Li et al.

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Lithium Ion MIT Li-ion Batteries 332

Green Car Congress

JULY 17, 2012

Researchers at Rice University and Lockheed Martin have developed a method for creating macroporous silicon thin films (MPSF) for use as cost-effective and high-performance anode materials in Li-ion batteries. The researchers infiltrate a polymer binder, polyacrylonitrile (PAN), to these thin films. Click to enlarge.

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Li-ion Universal Lithium Ion Batteries 231

Green Car Congress

DECEMBER 17, 2009

Li-ion batteries) as 3D structures to enable the powering of smart dust mote devices, and outlined several theoretical 3D structures for the batteries, which would have to have very high capacities to be able to fit on the device but still provide sufficient power. Credit: ACS. proposed configuring charge insertion batteries (i.e.,

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Li-ion Colorado Commercial Universal 319

Green Car Congress

FEBRUARY 23, 2011

Scanning electron microscope image of polyethylene microcapsules spin coated onto Li-ion battery anode. These microcapsules are thermally triggered during thermal runaway conditions and infuse the anode shutting down ion transport and preventing lithium fires. Photo credit: Marta Baginska. Click to enlarge.

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Li-ion Illinois Concept Batteries 240

Green Car Congress

MARCH 8, 2017

The goal of the novel type of high-voltage battery is to extend the range of electric vehicles, to shorten charging times, to reduce battery weight, to enhance stability and durability, and above all, to substitute critical or precious raw materials commonly used in conventional lithium-ion batteries.

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Li-ion Batteries Battery Lithium Ion 150

Green Car Congress

MARCH 24, 2014

A team of researchers at the University of Delaware has discovered a “sticky” conductive material that may eliminate the need for binders in Li-ion battery electrodes. Zeyuan Cao and Bingqing Wei (2014) “Fragmented Carbon Nanotube Macrofilms as Adhesive Conductors for Lithium-Ion Batteries,” ACS Nano doi: 10.1021/nn500585g.

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Li-ion Carbon Lithium Ion Delaware 210

Green Car Congress

MARCH 8, 2013

mol l -1 Li 2 SO 4 aqueous solution as electrolyte. Researchers from Fudan University in China and Technische Universität Chemnitz in Germany have developed an aqueous rechargeable lithium battery (ARLB) using coated Li metal as the anode. mol l -1 Li 2 SO 4 aqueous solution as electrolyte, an ARLB is built up.

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Li-ion Low Cost Recharge Ni-Li 281

Green Car Congress

MARCH 16, 2014

Researchers at Mie University in Japan have developed a new protected lithium electrode for aqueous lithium/air rechargeable batteries. Lead researcher Nobuyuki Imanishi said that the system has a practical energy density of more than 300 Wh/kg, about twice that of many commercial lithium-ion batteries. mAh cm -2 of capacity.

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Universal Li-ion Lithium Air Batteries 236

Green Car Congress

JANUARY 3, 2013

Researchers at North Carolina State University (NCSU) have combined carbon coating and a carbon nanotube (CNT) framework to improve the cycling stability of Si (silicon) anodes for Li-ion batteries. lithium atoms to form Li 22 Si 5 alloy, accompanied by a volume expansion of about 400%. Credit: ACS, Xue et al.

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Li-ion Carbon Lithium Ion Polymer 240

Green Car Congress

OCTOBER 23, 2013

Researchers at Drexel University report in a paper in the Journal of the American Chemical Society on the potential for 2D niobium and titanium carbide materials as high-power electrode materials for Li-ion batteries (LIBs). Specific lithiation (circles.) Credit: ACS, Naguib et al. Click to enlarge. Earlier post.). Batteries'

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Li-ion Power Powered Batteries 218

Green Car Congress

JULY 7, 2015

The lead inventors of the technology are UCSB professor Dr. The lead inventors of the technology are UCSB professor Dr. Alan Heeger, the recipient of a Nobel Prize in 2000 for the discovery and development of conductive polymers, and Dr. David Vonlanthen, a project scientist and expert in energy storage at UCSB. Startup BioSolar, Inc.

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Polymer Li-ion Low Cost 2014 150

Green Car Congress

MARCH 27, 2013

EnerG2, a manufacturer of advanced carbons for next-generation energy storage ( earlier post ), has begun production of nano-structured hard carbon for Li-ion battery anodes that it says can boost anode capacity by more than 50% over standard graphite. Click to enlarge. — Dr. Aaron Feaver, CTO and Co-Founder of EnerG2.

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Li-ion Carbon Standards Energy Storage 281

Green Car Congress

SEPTEMBER 9, 2011

Reversible Li extraction capacity of nanoSi electrodes with alginate, CMC and PVDF binders vs. cycle number collected for the current density of 4200 mA g –1 for cells cycled in the potential window of 0.01-1 1 V vs. Li/Li +. Click to enlarge. —Kovalenko et al.

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Li-ion Lithium Ion Batteries Battery 301

Green Car Congress

JANUARY 28, 2016

A team from Stanford University and the Department of Energy’s SLAC National Accelerator Laboratory has developed a new practical, high-energy-capacity lithium-ion battery anode out of silicon by encapsulating Si microparticles (∼1–3 µm) using conformally synthesized cages of multilayered graphene. —Li et al.

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Li-ion Lithium Ion Energy Batteries 150

Green Car Congress

JUNE 19, 2014

A team led by Argonne National Laboratory and including Brookhaven and Lawrence Berkeley National Laboratories and the University of Utah, is developing a new high energy redox couple (250 Wh/kg) based on a high-capacity full gradient concentration cathode (FCG) (230 mAh/g) ( earlier post ) and a Si-Sn composite anode (900 mAh/g).

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Li-ion PHEV Ni-Li Batteries 316

Green Car Congress

APRIL 13, 2020

Researchers at Toyohashi University of Technology in Japan have developed an active sulfur material and carbon nanofiber (S-CNF) composite material for all-solid-state Li-sulfur batteries using a low-cost and straightforward liquid phase process. Copyright Toyohashi University Of Technology. —Phuc et al. 9b02062.

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Carbon Lithium Sulfur Li-ion Batteries 243

Green Car Congress

DECEMBER 7, 2020

An international team of researchers has demonstrated a combination of techniques that allows for the precise measurement of ions moving through a Li-ion battery. The team’s paper, which details velocities of lithium ions moving through a polymer electrolyte, was published in the RSC journal Energy and Environmental Science.

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Transportation International Li-ion Lithium Ion 170

Green Car Congress

FEBRUARY 10, 2015

Lawrence Berkeley National Laboratory (Berkeley Lab) battery scientist Nitash Balsara and co-inventor Joseph DeSimone of the University of North Carolina at Chapel Hill, have launched Blue Current , a startup company backed by investment firm Faster LLC, to commercialize their non-flammable electrolytes for Li-ion batteries.

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Li-ion Commercial Lithium Ion Batteries 150

Green Car Congress

FEBRUARY 3, 2020

The new electrode concept comes from the laboratory of Ju Li, the Battelle Energy Alliance Professor of Nuclear Science and Engineering and professor of materials science and engineering. —Ju Li. One of the biggest problems is that when the battery is charged up, atoms accumulate inside the lithium metal, causing it to expand.

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Li-ion Design Molten Salt Batteries 268