Solid-state battery

A solid-state battery is an electrical battery that uses a solid electrolyte for ionic conductions between the electrodes, instead of the liquid or gel polymer electrolytes found in conventional batteries.[1] Solid-state batteries theoretically offer much higher energy density than the typical lithium-ion or lithium polymer batteries.[2]

Solid-state battery
All-solid-state battery with a solid electrolyte between two electrodes
Specific energyThin film type: 300–900 Wh/kg (490–1,470 kJ/lb)
Bulk type: 250–500 Wh/kg (410–820 kJ/lb)
Self-discharge rate6%ｰ85 °C (month) [3]
Cycle durability10,000-100,000 cycles [3]
Nominal cell voltage Thin film type: 4.6 V[4] Bulk type: 2.5 V, [3]
Operating temperature interval-50 °C 〜 125 °C
Charge temperature interval-20 °C 〜 105 °C

While solid electrolytes were first discovered in the 19th century, several issues prevented widespread application. Developments in the late 20th and early 21st century generated renewed interest in the technology, especially in the context of electric vehicles.

Solid-state batteries can use metallic lithium for the anode and oxides or sulfides for the cathode, increasing energy density. The solid electrolyte acts as an ideal separator that allows only lithium ions to pass through. For that reason, solid-state batteries can potentially solve many problems of currently used liquid electrolyte Li-ion batteries, such as flammability, limited voltage, unstable solid-electrolyte interface formation, poor cycling performance, and strength.[5]

Materials proposed for use as electrolytes include ceramics (e.g., oxides, sulfides, phosphates), and solid polymers. Solid-state batteries are found in pacemakers, and in RFID and wearable devices. Solid-state batteries are potentially safer, with higher energy densities. Challenges to widespread adoption include energy and power density, durability, material costs, sensitivity, and stability.[6]

History

Origin

Between 1831 and 1834, Michael Faraday discovered the solid electrolytes silver sulfide and lead(II) fluoride, which laid the foundation for solid-state ionics.[7][8]

1900s-2009

By the late 1950s, several silver-conducting electrochemical systems employed solid electrolytes, at the price of low energy density and cell voltages, and high internal resistance.[9][10] In 1967, the discovery of fast ionic conduction β - alumina for a broad class of ions (Li+, Na+, K+, Ag+, and Rb+) kick-started the development of solid-state electrochemical devices with increased energy density.[11][10][12] Most immediately, molten sodium / β - alumina / sulfur cells were developed at Ford Motor Company in the US,[13] and NGK in Japan.[10] This excitement manifested in the discovery of new systems in both organics, i.e. poly(ethylene) oxide (PEO), and inorganics such as NASICON.[10] However, many of these systems required operation at elevated temperatures, and/or were expensive to produce, limiting commercial deployment.[10] A new class of solid-state electrolyte developed by Oak Ridge National Laboratory, lithium–phosphorus oxynitride (LiPON), emerged in the 1990s. LiPON was successfully used to make thin-film lithium-ion batteries,[14] although applications were limited due to the cost associated with deposition of the thin-film electrolyte, along with the small capacities that could be accessed using the thin-film format.[15][16]

2010-2019

In 2011, Kamaya et al. demonstrated the first solid-electrolyte, Li10GeP2S12 (LGPS), capable of achieving a bulk ionic conductivity in excess of liquid electrolyte counterparts at room temperature.[17] With this, bulk solid-ion conductors could finally compete technologically with Li-ion counterparts.

Researchers and companies in the transportation industry revitalized interest in solid-state battery technologies. In 2011, Bolloré launched a fleet of their BlueCar model cars. The demonstration was meant to showcase the company's cells, and featured a 30 kWh lithium metal polymer (LMP) battery with a polymeric electrolyte, created by dissolving lithium salt in polyoxyethylene co-polymer.

In 2012, Toyota began conducting research into automotive applications.[18] At the same time, Volkswagen began partnering with small technology companies specializing in the technology.

In 2013, researchers at the University of Colorado Boulder announced the development of a solid-state lithium battery, with a solid iron–sulfur composite cathode that promised higher energy.[19]

In 2017, John Goodenough, the co-inventor of Li-ion batteries, unveiled a solid-state glass battery, using a glass electrolyte and an alkali-metal anode consisting of lithium, sodium or potassium.[20] Later that year, Toyota extended its decades-long partnership with Panasonic to include collaboration on solid-state batteries.[21] As of 2019 Toyota held the most SSB-related patents.[22] They were followed by BMW,[23] Honda,[24] Hyundai Motor Company.,[25] and Nissan.[26]

In 2018, Solid Power, spun off from the University of Colorado Boulder,[27] received $20 million in funding from Samsung and Hyundai to establish a manufacturing line that could produce copies of its all-solid-state, rechargeable lithium-metal battery prototype,[28] with a predicted 10 megawatt hours of capacity per year.[29]

Qing Tao started the first Chinese production line of solid-state batteries in 2018 to supply SSBs for "special equipment and high-end digital products".[30]

2020-present

QuantumScape is a solid-state battery startup that spun out of Stanford University. It went public on the NYSE on November 29, 2020, as part of a SPAC merger with Kensington Capital.[31][32] In 2022 the company introduced its 24-layer A0 prototype cells. In Q1 2023, it introduced QSE-5, a 5 amp-hour lithium metal cell. Volkswagen's PowerCo stated that the A0 prototype had met the announced performance metrics. QuantumScape's FlexFrame design combines prismatic and pouch cell designs to accommodate the expansion and contraction of its cells during cycling.[33][34]

In July 2021, Murata Manufacturing announced that it would begin mass production, targeting manufacturers of earphones and other wearables.[35] Cell capacity is up to 25mAh at 3.8V,[36] making it suitable for small mobile devices such as earbuds, but not for electric vehicles. Lithium-ion cells used in electric vehicles typically offer 2,000 to 5,000 mAh at a similar voltage:[37] an EV would need at least 100 times as many of the Murata cells to provide equivalent power.

Ford Motor Company and BMW funded the startup Solid Power with $130 million, and as of 2022 the company had raised $540 million.[38]

In September 2021, Toyota announced their plan to use a solid-state battery, starting with hybrid models in 2025.[39]

In February 2021, Hitachi Zosen announced demonstration experiments on the International Space Station. The Cygnus No. 17, launched on February 19, 2022, confirmed that all-solid-state batteries would be tested on the ISS.[40]

In January 2022, ProLogium signed a technical cooperation agreement with Mercedes-Benz. The investment will be used for solid-state battery development and production preparation.[41]

In early 2022, Swiss Clean Battery (SCB) announced plans to open the world's first factory for sustainable solid-state batteries in Frauenfeld by 2024 with an initial annual production of 1.2 GWh.[42]

In July 2022, Svolt announced the production of a 20 Ah electric battery with an energy density of 350-400 Wh/kg.[43]

In June 2023, Maxell Corporation began mass production of large-capacity solid-state batteries. This battery has a long life and heat resistance. Production of 200 mmAh cylindrical solid-state batteries was to begin in January 2024. Size: diameter 23 mm/height 27 mm.[44]

In September 2023, Panasonic unveiled a solid-state battery for drones. It can be charged from 10% to 80% in 3 minutes and lasts for 10,000 to 100,000 cycles at 25 °C. The battery was expected to be available in the late 2020s.[45]

In October 2023, Toyota announced a partnership with Idemitsu Kosan to produce solid-state batteries for their electric vehicles starting in 2028.[46]

In October 2023 Factorial Energy opened a battery manufacturing facility in Methuen, Massachusetts, and began shipping 100-Ah A-samples to automotive partners totaling over 1,000 A-sample cells to Mercedes-Benz. Its technology uses a lithium-metal anode, quasi-solid electrolyte and high-capacity cathode. Its energy density is 391 Wh/kg.[47]

In November 2023, Guangzhou Automobile Group announced that it would adopt solid-state batteries in 2026. The company also revealed that its battery has achieved 400 Wh/kg. Mass production was scheduled to begin in 2025.[48]

On December 28, 2023, Hyundai published its patent for an “all-solid-state battery system provided with pressurizing device”. The cell is a solid-state battery that maintains constant pressure regardless of charging and discharging rates. The system includes an iso-temperature element.[49]

In January 2024, Volkswagen announced that test results of a prototype solid-state battery retained 95% of its capacity after driving 500,000 km. It also passed other performance tests.[50]

In April 2024, Factorial signed a memorandum of understanding with LG Chem. In June it sent its first 106-Ah B-samples to Mercedes-Benz for testing.[47]

Materials

Solid-state electrolytes (SSEs) candidate materials include ceramics such as lithium orthosilicate,[51] glass,[20] sulfides[52] and RbAg4I5.[53][54] Mainstream oxide solid electrolytes include Li1.5Al0.5Ge1.5(PO4)3 (LAGP), Li1.4Al0.4Ti1.6(PO4)3 (LATP), perovskite-type Li3xLa2/3-xTiO3 (LLTO), and garnet-type Li6.4La3Zr1.4Ta0.6O12 (LLZO) with metallic Li.[55] The thermal stability versus Li of the four SSEs was in order of LAGP < LATP < LLTO < LLZO. Chloride superionic conductors have been proposed as another promising solid electrolyte. They are ionic conductive as well as deformable sulfides, but at the same time not troubled by the poor oxidation stability of sulfides. Other than that, their cost is considered lower than oxide and sulfide SSEs.[56] The present chloride solid electrolyte systems can be divided into two types: Li3MCl6 [57][58] and Li2M2/3Cl4.[59] M Elements include Y, Tb-Lu, Sc, and In. The cathodes are lithium-based. Variants include LiCoO2, LiNi1/3Co1/3Mn1/3O2, LiMn2O4, and LiNi0.8Co0.15Al0.05O2. The anodes vary more and are affected by the type of electrolyte. Examples include In, Si, GexSi1−x, SnO–B2O3, SnS –P2S5, Li2FeS2, FeS, NiP2, and Li2SiS3.[60]

One promising cathode material is Li–S, which (as part of a solid lithium anode/Li2S cell) has a theoretical specific capacity of 1,670 mAh g−1, "ten times larger than the effective value of LiCoO2". Sulfur makes an unsuitable cathode in liquid electrolyte applications because it is soluble in most liquid electrolytes, dramatically decreasing the battery's lifetime. Sulfur is studied in solid-state applications.[60] Recently, a ceramic textile was developed that showed promise in a Li–S solid-state battery. This textile facilitated ion transmission while also handling sulfur loading, although it did not reach the projected energy density. The result "with a 500-μm-thick electrolyte support and 63% utilization of electrolyte area" was "71 Wh/kg." while the projected energy density was 500 Wh/kg.[61]

Li-O2 also have high theoretical capacity. The main issue with these devices is that the anode must be sealed from ambient atmosphere, while the cathode must be in contact with it.[60]

A Li/LiFePO4 battery shows promise as a solid-state application for electric vehicles. A 2010 study presented this material as a safe alternative to rechargeable batteries for EV's that "surpass the USABC-DOE targets".[62]

A cell with a pure silicon μSi||SSE||NCM811 anode was assembled by Darren H.S Tan et al. using μSi anode (purity of 99.9 wt %), solid-state electrolyte (SSE) and lithium–nickel–cobalt–manganese oxide (NCM811) cathode. This kind of solid-state battery demonstrated a high current density up to 5 mA cm−2, a wide range of working temperature (-20 °C and 80 °C), and areal capacity (for the anode) of up to 11 mAh cm−2 (2,890 mAh/g). At the same time, after 500 cycles under 5 mA cm−2, the batteries still provide 80% of capacity retention, which is the best performance of μSi all solid-state battery reported so far.[63]

Chloride solid electrolytes also show promise over conventional oxide solid electrolytes owing to chloride solid electrolytes having theoretically higher ionic conductivity and better formability.[64] In addition chloride solid electrolyte's exceptionally high oxidation stability and high ductility add to its performance. In particular a lithium mixed-metal chloride family of solid electrolytes, Li2InxSc0.666-xCl4 developed by Zhou et al., show high ionic conductivity (2.0 mS cm−1) over a wide range of composition. This is owing to the chloride solid electrolyte being able to be used in conjunction with bare cathode active materials as opposed to coated cathode active materials and its low electronic conductivity.[65] Alternative cheaper chloride solid electrolyte compositions with lower, but still impressive, ionic conductivity can be found with an Li2ZrCl6 solid electrolyte. This particular chloride solid electrolyte maintains a high room temperature ionic conductivity (0.81 mS cm−1), deformability, and has a high humidity tolerance.[66]

Uses

Solid-state batteries are potentially useful in pacemakers, RFIDs, wearable devices, and electric vehicles.[67][68]

Electric vehicles

Hybrid and plug-in electric vehicles use a variety of battery technologies, including lithium ion (Li-ion), nickel–metal hydride (NiMH), lead–acid, and electric double-layer capacitor (or ultracapacitor),[69] with Li-ion batteries dominating the market due to their superior energy density.[70] However, compared to fossil fuels (gasoline and diesel), current lithium batteries are still inferior in specific energy and replenishment efficiency (as it takes much longer to fully recharge an EV at a charging station than to fill up an automotive fuel tank at a gas station), compounded by the fact that the infrastructural availability of charging network is still suboptimal, leading to range anxiety that significantly hinders consumer adoption of electric vehicles over conventional ICE vehicles. The improved energy storage offered by solid-state batteries can potentially solve this problem.

Honda stated in 2022 that it planned to start operation of a demonstration line for the production of all-solid-state batteries in early 2024,[71] and Nissan announced that, by FY2028, it aims to launch an electric vehicle with all-solid-state batteries that are to be developed in-house.[72]

In June 2023, Toyota updated its strategy for battery electric vehicles, announcing that it will not use commercial solid-state batteries until at least 2027.[73][74]

Wearables

The characteristics of high energy density and keeping high performance even in harsh environments are expected in realization of new wearable devices that are smaller and more reliable than ever.[67][75]

Equipment in space

In March 2021, industrial manufacturer Hitachi Zosen Corporation announced a solid-state battery they claimed has one of the highest capacities in the industry and has a wider operating temperature range, potentially suitable for harsh environments like space.[76][77] A test mission was launched in February 2022, and in August, Japan Aerospace Exploration Agency (JAXA) announced [78] the solid-state batteries had properly operated in space, powering camera equipment in the Japanese Experiment Module Kibō on the International Space Station (ISS).

Drones

Being lighter weight and more powerful than traditional lithium-ion batteries it is reasonable that commercial drones would benefit from solid-state batteries. Vayu Aerospace, a drone manufacturer and designer, noted an increased flight time after they incorporated them into their G1 long flight drone.[79] Another advantage of drones is that all solid battery can quickly charge. In September 2023, Panasonic announced a prototype all-solid-state battery that can charge from 10% to 80% in 3 minutes.[45]

Industrial machinery

All-solid-state batteries have long lifespans and excellent heat resistance. Therefore, it is expected to be used in harsh environments. Production of Maxell's all-solid-state batteries for use in industrial machinery has already begun.

Portable solar generators

In 2023, Yoshino become the first producer of solid-state portable solar generators, 2.5 times higher energy density, double rated and surge AC output wattage of non-solid state lithium (NMC, LFP) generators.[80][81][82]

Challenges

Cost

Thin-film solid-state batteries are expensive to make[83] and employ manufacturing processes thought to be difficult to scale, requiring expensive vacuum deposition equipment.[14] As a result, costs for thin-film solid-state batteries become prohibitive in consumer-based applications. It was estimated in 2012 that, based on then-current technology, a 20 Ah solid-state battery cell would cost US$100,000, and a high-range electric car would require between 800 and 1,000 of such cells.[14] Likewise, cost has impeded the adoption of thin-film solid-state batteries in other areas, such as smartphones.[67]

Temperature and pressure sensitivity

Low temperature operations may be challenging.[83] Solid-state batteries historically have had poor performance.[19]

Solid-state batteries with ceramic electrolytes require high pressure to maintain contact with the electrodes.[84] Solid-state batteries with ceramic separators may break from mechanical stress.[14]

In November 2022, Japanese research group, consisting of Kyoto University, Tottori University and Sumitomo Chemical, announced that they have managed to operate solid-state batteries stably without applying pressure with 230Wh/kg capacity by using copolymerized new materials for electrolyte.[85]

In June 2023, Japanese research group of the Graduate School of Engineering at Osaka Metropolitan University announced that they have succeeded in stabilizing the high-temperature phase of Li3PS4 (α-Li3PS4) at room temperature. This was accomplished via rapid heating to crystallize the Li3PS4 glass.[86]

Interfacial resistance

High interfacial resistance between a cathode and solid electrolyte has been a long-standing problem for all-solid-state batteries.[87]

Interfacial instability

The interfacial instability of the electrode-electrolyte has always been a serious problem in solid-state batteries.[88] After solid-state electrolyte contacts with the electrode, the chemical and/or electrochemical side reactions at the interface usually produce a passivated interface, which impedes the diffusion of Li+ across the electrode-SSE interface. Upon high-voltage cycling, some SSEs may undergo oxidative degradation.

Dendrites

Solid lithium (Li) metal anodes in solid-state batteries are replacement candidates in lithium-ion batteries for higher energy densities, safety, and faster recharging times. Such anodes tend to suffer from the formation and the growth of Li dendrites, non-uniform metal growths which penetrate the electrolyte lead to electrical short circuits. This shorting leads to energy discharge, overheating, and sometimes fires or explosions due to thermal runaway.[89] Li dendrites reduce coulombic efficiency.[90]

The exact mechanisms of dendrite growth remain a subject of research. Studies of metal dendrite growth in solid electrolytes began with research of molten sodium / sodium - β - alumina / sulfur cells at elevated temperature. In these systems, dendrites sometimes grow as a result of micro-crack extension due to the presence of plating-induced pressure at the sodium / solid electrolyte interface.[91] However, dendrite growth may also occur due to chemical degradation of the solid electrolyte.[92]

In Li-ion solid electrolytes apparently stable to Li metal, dendrites propagate primarily due to pressure build up at the electrode / solid electrolyte interface, leading to crack extension.[93] Meanwhile, for solid electrolytes which are chemically unstable against their respective metal, interphase growth and eventual cracking often prevents dendrites from forming.[94]

Dendrite growth in solid-state Li-ion cells can be mitigated by operating the cells at elevated temperature,[95] or by using residual stresses to fracture toughen electrolytes,[93] thereby deflecting dendrites and delaying dendrite induced short-circuiting. Aluminum-containing electronic rectifying interphases between the solid-state electrolyte and the lithium metal anode have also been shown to be effective in preventing dendrite growth.[96]

Mechanical failure

A common failure mechanism in solid-state batteries is mechanical failure through volume changes in the anode and cathode during charge and discharge due to the addition and removal of Li-ions from the host structures.[97]

Cathode

Cathodes will typically consist of active cathode particles mixed with SSE particles to assist with ion conduction. As the battery charges/discharges, the cathode particles change in volume typically on the order of a few percent.[98] This volume change leads to the formation of interparticle voids which worsens contact between the cathode and SSE particles, resulting in a significant loss of capacity due to the restriction in ion transport.[97][99][100]

One proposed solution to this issue is to take advantage of the anisotropy of volume change in the cathode particles. As many cathode materials experience volume changes only along certain crystallographic directions, if the secondary cathode particles are grown along a crystallographic direction which does not expand greatly with charge/discharge, then the change in volume of the particles can be minimized.[101][102] Another proposed solution is to mix different cathode materials which have opposite expansion trends in the proper ratio such that the net volume change of the cathode is zero.[98] For instance, LiCoO2 (LCO) and LiNi0.9Mn0.05Co0.05O2 (NMC) are two well-known cathode materials for Li-ion batteries. LCO has been shown to undergo volume expansion when discharged while NMC has been shown to undergo volume contraction when discharged. Thus, a composite cathode of LCO and NMC at the correct ratio could undergo minimal volume change under discharge as the contraction of NMC is compensated by the expansion of LCO.

Anode

Ideally a solid-state battery would use a pure lithium metal anode due to its high energy capacity. However, lithium undergoes a large increase of volume during charge at around 5 μm per 1 mAh/cm2 of plated Li.[97] For electrolytes with a porous microstructure, this expansion leads to an increase in pressure which can lead to creep of Li metal through the electrolyte pores and short of the cell.[103] Lithium metal has a relatively low melting point of 453K and a low activation energy for self-diffusion of 50 kJ/mol, indicating its high propensity to significantly creep at room temperature.[104][105] It has been shown that at room temperature lithium undergoes power-law creep where the temperature is high enough relative to the melting point that dislocations in the metal can climb out of their glide plane to avoid obstacles. The creep stress under power-law creep is given by:

Where is the gas constant, is temperature, is the uniaxial strain rate, is the creep stress, and for lithium metal , , .[104]

For lithium metal to be used as an anode, great care must be taken to minimize the cell pressure to relatively low values on the order of its yield stress of 0.8 MPa.[106] The normal operating cell pressure for lithium metal anode is anywhere from 1-7 MPa. Some possible strategies to minimize stress on the lithium metal are to use cells with springs of a chosen spring constant or controlled pressurization of the entire cell.[97] Another strategy may be to sacrifice some energy capacity and use a lithium metal alloy anode which typically has a higher melting temperature than pure lithium metal, resulting in a lower propensity to creep.[107][108][109] While these alloys do expand quite a bit when lithiated, often to a greater degree than lithium metal, they also possess improved mechanical properties allowing them to operate at pressures around 50 MPa.[110][111] This higher cell pressure also has the added benefit of possibly mitigating void formation in the cathode.[97]

Advantages

Solid-state battery technology is believed to deliver higher energy densities (2.5x).[112]

Solid-state batteries have excellent theoretical energy density.

[Lithium ion secondary battery]

Cathode: Lithium cobaltate ⇄ Anode: Graphite→Energy density 370Wh/kg (Cobalt type: theoretical limit value)

[Solid-state battery]

Cathode: Oxide/Sulfide ⇄ Anode: Metallic lithium→Energy density 1440Wh/kg (sulfide type: theoretical limit value)

They may avoid the use of dangerous or toxic materials found in commercial batteries, such as organic electrolytes.[113]

Because most liquid electrolytes are flammable and solid electrolytes are nonflammable, solid-state batteries are believed to have lower risk of catching fire. Fewer safety systems are needed, further increasing energy density at the module or cell pack level.[2][113] Recent studies show that heat generation inside is only ~20-30% of conventional batteries with liquid electrolyte under thermal runaway.[114]

Solid-state battery technology is believed to allow for faster charging.[115][116] Higher voltage and longer cycle life are also possible.[113][83]

Thin-film solid-state batteries

Background

The earliest thin-film solid-state batteries is found by Keiichi Kanehori in 1986,[117] which is based on the Li electrolyte. However, at that time, the technology was insufficient to power larger electronic devices so it was not fully developed. During recent years, there has been much research in the field. Garbayo demonstrated that "polyamorphism" exists besides crystalline states for thin-film Li-garnet solid-state batteries in 2018,[118] Moran demonstrated that ample can manufacture ceramic films with the desired size range of 1–20 μm in 2021.[119]

Structure

Anode materials: Li is favored because of its storage properties, alloys of Al, Si and Sn are also suitable as anodes.

Cathode materials: require having light weight, good cyclical capacity and high energy density. Usually include LiCoO2, LiFePO4, TiS2, V2O5and LiMnO2.[120]

Preparation techniques

Some methods are listed below.[121]

  • Physical methods:
    1. Magnetron sputtering (MS) is one of the most widely used processes for thin-film manufacturing, which is based on physical vapor deposition.[122]
    2. Ion-beam deposition (IBD) is similar to the first method, however, bias is not applied and plasma doesn't occur between the target and the substrate in this process.
    3. Pulsed laser deposition (PLD), laser used in this method has a high power pulses up to about 108 W cm−2.
    4. Vacuum evaporation (VE) is a method to prepare alpha-Si thin films. During this process, Si evaporates and deposits on a metallic substrate.[123]
  • Chemical methods:
    1. Electrodeposition (ED) is for manufacturing Si films, which is convenient and economically viable technique.[124]
    2. Chemical vapor deposition (CVD) is a deposition technique allowing to make thin films with a high quality and purity.[125]
    3. Glow discharge plasma deposition (GDPD) is a mixed physicochemical process. In this process, synthesis temperature has been increased to decrease the extra hydrogen content in the films.[126]

Development of thin-film system
  • Lithium–oxygen and nitrogen-based polymer thin-film electrolytes has got fully used in solid-state batteries.
  • Non-Li based thin-film solid-state batteries have been studied, such as Ag-doped germanium chalcogenide thin-film solid-state electrolyte system.[127] Barium-doped thin-film system has also been studied, which thickness can be 2μm at least.[128] In addition, Ni can also be a component in thin film.[129]
  • There are also other methods to fabricate the electrolytes for thin-film solid-state batteries, which are 1.electrostatic-spray deposition technique, 2. DSM-Soulfill process and 3. Using MoO3 nanobelts to improve the performance of lithium-based thin-film solid-state batteries.[130]

Advantages
  • Compared with other batteries, the thin-film batteries have both high gravimetric as well as volumetric energy densities. These are important indicators to measure battery performance of energy stored.[131]
  • In addition to high energy density, thin-film solid-state batteries have long lifetime, outstanding flexibility and low weight. These properties make thin-film solid-state batteries suitable for use in various fields such as electric vehicles, military facilities and medical devices.

Challenges
  • Its performance and efficiency are constrained by the nature of its geometry. The current drawn from a thin-film battery largely depends on the geometry and interface contacts of the electrolyte/cathode and the electrolyte/anode interfaces
  • Low thickness of the electrolyte and the interfacial resistance at the electrode and electrolyte interface affect the output and integration of thin-film systems.
  • During the charging-discharging process, considerable change of volumetric makes the loss of material.[131]

See also

References
  1. Vandervell, Andy (26 September 2017). "What is a solid-state battery? The benefits explained". Wired UK. Retrieved 7 January 2018.
  2. Reisch, Marc S. (20 November 2017). "Solid-state batteries inch their way to market". C&EN Global Enterprise. 95 (46): 19–21. doi:10.1021/cen-09546-bus.
  3. "セラミックパッケージ型全固体電池・評価用電源モジュールキット｜二次電池｜Biz.maxell - マクセル". Biz.maxell - マクセル.
  4. "コイン形全固体電池・バイポーラ型全固体電池｜二次電池｜Biz.maxell - マクセル". Biz.maxell - マクセル.
  5. Ping, Weiwei; Yang, Chunpeng; Bao, Yinhua; Wang, Chengwei; Xie, Hua; Hitz, Emily; Cheng, Jian; Li, Teng; Hu, Liangbing (September 2019). "A silicon anode for garnet-based all-solid-state batteries: Interfaces and nanomechanics". Energy Storage Materials. 21: 246–252. doi:10.1016/j.ensm.2019.06.024. S2CID 198825492.
  6. Weppner, Werner (September 2003). "Engineering of solid state ionic devices". International Journal of Ionics. 9 (5–6): 444–464. doi:10.1007/BF02376599. S2CID 108702066. Solid state ionic devices such as high performance batteries...
  7. Funke K (August 2013). "Solid State Ionics: from Michael Faraday to green energy-the European dimension". Science and Technology of Advanced Materials. 14 (4): 043502. Bibcode:2013STAdM..14d3502F. doi:10.1088/1468-6996/14/4/043502. PMC 5090311. PMID 27877585.
  8. Lee, Sehee (2012). "Solid State Cell Chemistries and Designs" (PDF). ARPA-E. Retrieved 7 January 2018.
  9. Owens, Boone B.; Munshi, M. Z. A. (January 1987). "History of Solid State Batteries" (PDF). Defense Technical Information Center. Corrosion Research Center, University of Minnesota. Bibcode:1987umn..rept.....O. Archived (PDF) from the original on February 24, 2020. Retrieved 7 January 2018.
  10. Whittingham, M. Stanley (2021-02-01). "Solid-state ionics: The key to the discovery and domination of lithium batteries: some learnings from β-alumina and titanium disulfide". MRS Bulletin. 46 (2): 168–173. Bibcode:2021MRSBu..46..168W. doi:10.1557/s43577-021-00034-2. ISSN 1938-1425. OSTI 1848581. S2CID 233939199.
  11. Yung-Fang Yu Yao; Kummer, J. T. (1967-09-01). "Ion exchange properties of and rates of ionic diffusion in beta-alumina". Journal of Inorganic and Nuclear Chemistry. 29 (9): 2453–2475. doi:10.1016/0022-1902(67)80301-4. ISSN 0022-1902.
  12. Whittingham, M. S. "Beta alumina—Prelude to a revolution in solid state electrochemistry". NBS Special Publications. 13 (364): 139–154.
  13. "New battery packs powerful punch - USATODAY.com". usatoday30.usatoday.com. Retrieved 2022-12-08.
  14. Jones, Kevin S.; Rudawski, Nicholas G.; Oladeji, Isaiah; Pitts, Roland; Fox, Richard. "The state of solid-state batteries" (PDF). American Ceramic Society Bulletin. 91 (2).
  15. LaCoste, Jed D.; Zakutayev, Andriy; Fei, Ling (2021-02-25). "A Review on Lithium Phosphorus Oxynitride". The Journal of Physical Chemistry C. 125 (7): 3651–3667. doi:10.1021/acs.jpcc.0c10001. ISSN 1932-7447. OSTI 1772959. S2CID 234022942.
  16. Liang, XiaoPing; Tan, FeiHu; Wei, Feng; Du, Jun (2019-02-23). "Research progress of all solid-state thin film lithium Battery". IOP Conference Series: Earth and Environmental Science. 218 (1): 012138. Bibcode:2019E&ES..218a2138L. doi:10.1088/1755-1315/218/1/012138. ISSN 1755-1315. S2CID 139860728.
  17. Kamaya, Noriaki; Homma, Kenji; Yamakawa, Yuichiro; Hirayama, Masaaki; Kanno, Ryoji; Yonemura, Masao; Kamiyama, Takashi; Kato, Yuki; Hama, Shigenori; Kawamoto, Koji; Mitsui, Akio (July 2011). "A lithium superionic conductor". Nature Materials. 10 (9): 682–686. Bibcode:2011NatMa..10..682K. doi:10.1038/nmat3066. ISSN 1476-4660. PMID 21804556.
  18. Greimel, Hans (27 January 2014). "Toyota preps solid-state batteries for '20s". Automotive News. Retrieved 7 January 2018.
  19. "Solid-state battery developed at CU-Boulder could double the range of electric cars". University of Colorado Boulder. 18 September 2013. Archived from the original on 7 November 2013. Retrieved 7 January 2018.
  20. "Lithium-Ion Battery Inventor Introduces New Technology for Fast-Charging, Noncombustible Batteries". University of Texas at Austin. 28 February 2017. Retrieved 7 January 2018.
  21. Buckland, Kevin; Sagiike, Hideki (13 December 2017). "Toyota Deepens Panasonic Battery Ties in Electric-Car Rush". Bloomberg Technology. Retrieved 7 January 2018.
  22. Baker, David R (3 April 2019). "Why lithium-ion technology is poised to dominate the energy storage future". www.renewableenergyworld.com. Bloomberg. Retrieved 7 April 2019.
  23. "Solid Power, BMW partner to develop next-generation EV batteries". Reuters. 18 December 2017. Retrieved 7 January 2018.
  24. Krok, Andrew (21 December 2017). "Honda hops on solid-state battery bandwagon". Roadshow by CNET. Retrieved 7 January 2018.
  25. Lambert, Fred (6 April 2017). "Hyundai reportedly started pilot production of next-gen solid-state batteries for electric vehicles". Electrek. Retrieved 7 January 2018.
  26. "Honda and Nissan said to be developing next-generation solid-state batteries for electric vehicles". The Japan Times. Kyodo News. 21 December 2017. Retrieved 7 January 2018.
  27. Danish, Paul (2018-09-12). "Straight out of CU (and Louisville): A battery that could change the world". Boulder Weekly. Retrieved 2020-02-12.
  28. "Solid Power raises $20 million to build all-solid-state batteries — Quartz". qz.com. 10 September 2018. Retrieved 2018-09-10.
  29. "Samsung Venture, Hyundai Investing in Battery Producer". Bloomberg.com. 10 September 2018. Retrieved 2018-09-11.
  30. Lambert, Fred (20 November 2018). "China starts solid-state battery production, pushing energy density higher". Electrek.
  31. Wayland, Michael (2020-09-03). "Bill Gates-backed vehicle battery supplier to go public through SPAC deal". CNBC. Retrieved 2021-01-07.
  32. Manchester, Bette (30 November 2020). "QuantumScape successfully goes public". electrive.com.
  33. Doll, Scooter (January 16, 2024). "QuantumScape unveils beating heart of its solid-state battery tech: the FlexFrame cell". Electrek.co.
  34. QuantumScape, "Introducing FlexFrame, QuantumScape's Proprietary Cell Format (video)", Youtube, retrieved 2024-02-09
  35. Fukutomi, Shuntaro. "Murata to mass-produce all-solid-state batteries in fall". Nikkei Asia. Retrieved 19 July 2021.
  36. "Murata develops solid state battery for wearables applications". 29 July 2021.
  37. "Category: 18650/20700/21700 Rechargeable batteries". 29 July 2021.
  38. Pranshu Verma (18 May 2022). "Inside the race for a car battery that charges fast — and won't catch fire". The Washington Post.
  39. "Toyota Outlines Solid-State Battery Tech". 8 September 2021. Retrieved 12 November 2021.
  40. Deguchi, Hayabusa (2022-02-27). "ノースロップ・グラマン「シグナス補給船」打ち上げ成功 日本の実験機器・超小型衛星も搭載". sorae 宇宙へのポータルサイト (in Japanese). Retrieved 2023-11-22.
  41. "Taiwan battery maker ProLogium signs investment deal with Mercedes-Benz". Reuters. 27 January 2022. Retrieved 1 November 2022.
  42. "Swiss Clean Battery plans 7.6-GWh gigafactory". Renewables Now. Retrieved 2023-04-27.
  43. "Svolt Energy develops solid-state battery cells that will allow vehicles to reach over 1,000 km range". July 19, 2022.
  44. "会社四季報オンライン｜株式投資・銘柄研究のバイブル". shikiho.toyokeizai.net. Retrieved 2023-10-28.
  45. 日経クロステック（xTECH） (2023-10-03). "パナソニックHDが全固体電池、3分で充電可能". 日経クロステック（xTECH） (in Japanese). Retrieved 2023-12-01.
  46. "Toyota Inks Deal to Mass Produce Solid State EV Batteries With 932-Mile Range". PCMAG. Retrieved 2023-10-24.
  47. Weiss, C. C. (2024-06-13). "Solid-state battery from US cell maker hits new milestone". New Atlas. Retrieved 2024-06-13.
  48. "中国・広汽集団、「全固体電池」を2026年に搭載へ ベンチャー投資やスピンオフなど幅広く布石(東洋経済オンライン)". Yahoo!ファイナンス (in Japanese). Retrieved 2023-12-05.
  49. Johnson, Peter (January 2, 2024). "Hyundai patents an all-solid-state EV battery system in the US". electrek.co. Retrieved February 8, 2024.
  50. Flaherty, Nick (2024-01-06). "VW validates lithium metal solid state battery performance". eeNews Europe. Retrieved 2024-01-08.
  51. Chandler, David L. (12 July 2017). "Study suggests route to improving rechargeable lithium batteries". Massachusetts Institute of Technology. Researchers have tried to get around these problems by using an electrolyte made out of solid materials, such as some ceramics.
  52. Chandler, David L. (2 February 2017). "Toward all-solid lithium batteries". Massachusetts Institute of Technology. Researchers investigate mechanics of lithium sulfides, which show promise as solid electrolytes.
  53. Wang, Yuchen; Akin, Mert; Qiao, Xiaoyao; Yan, Zhiwei; Zhou, Xiangyang (September 2021). "Greatly enhanced energy density of all-solid-state rechargeable battery operating in high humidity environments". International Journal of Energy Research. 45 (11): 16794–16805. doi:10.1002/er.6928. S2CID 236256757.
  54. Akin, Mert; Wang, Yuchen; Qiao, Xiaoyao; Yan, Zhiwei; Zhou, Xiangyang (September 2020). "Effect of relative humidity on the reaction kinetics in rubidium silver iodide based all-solid-state battery". Electrochimica Acta. 355: 136779. doi:10.1016/j.electacta.2020.136779. S2CID 225553692.
  55. Chen, Rusong; Nolan, Adelaide M.; Lu, Jiaze; Wang, Junyang; Yu, Xiqian; Mo, Yifei; Chen, Liquan; Huang, Xuejie; Li, Hong (April 2020). "The Thermal Stability of Lithium Solid Electrolytes with Metallic Lithium". Joule. 4 (4): 812–821. doi:10.1016/j.joule.2020.03.012. S2CID 218672049.
  56. Wang, Kai; Ren, Qingyong; Gu, Zhenqi; Duan, Chaomin; Wang, Jinzhu; Zhu, Feng; Fu, Yuanyuan; Hao, Jipeng; Zhu, Jinfeng; He, Lunhua; Wang, Chin-Wei; Lu, Yingying; Ma, Jie; Ma, Cheng (December 2021). "A cost-effective and humidity-tolerant chloride solid electrolyte for lithium batteries". Nature Communications. 12 (1): 4410. Bibcode:2021NatCo..12.4410W. doi:10.1038/s41467-021-24697-2. PMC 8292426. PMID 34285207.
  57. Li, Xiaona; Liang, Jianwen; Luo, Jing; Norouzi Banis, Mohammad; Wang, Changhong; Li, Weihan; Deng, Sixu; Yu, Chuang; Zhao, Feipeng; Hu, Yongfeng; Sham, Tsun-Kong; Zhang, Li; Zhao, Shangqian; Lu, Shigang; Huang, Huan; Li, Ruying; Adair, Keegan R.; Sun, Xueliang (2019). "Air-stable Li 3 InCl 6 electrolyte with high voltage compatibility for all-solid-state batteries". Energy & Environmental Science. 12 (9): 2665–2671. doi:10.1039/C9EE02311A. S2CID 202881108.
  58. Schlem, Roman; Muy, Sokseiha; Prinz, Nils; Banik, Ananya; Shao-Horn, Yang; Zobel, Mirijam; Zeier, Wolfgang G. (February 2020). "Mechanochemical Synthesis: A Tool to Tune Cation Site Disorder and Ionic Transport Properties of Li 3 MCl 6 (M = Y, Er) Superionic Conductors". Advanced Energy Materials. 10 (6): 1903719. doi:10.1002/aenm.201903719. hdl:1721.1/128746. S2CID 213539629.
  59. Zhou, Laidong; Kwok, Chun Yuen; Shyamsunder, Abhinandan; Zhang, Qiang; Wu, Xiaohan; Nazar, Linda F. (2020). "A new halospinel superionic conductor for high-voltage all solid state lithium batteries". Energy & Environmental Science. 13 (7): 2056–2063. doi:10.1039/D0EE01017K. OSTI 1657953. S2CID 225614485.
  60. Takada, Kazunori (February 2013). "Progress and prospective of solid-state lithium batteries". Acta Materialia. 61 (3): 759–770. Bibcode:2013AcMat..61..759T. doi:10.1016/j.actamat.2012.10.034.
  61. Gong, Yunhui; Fu, Kun; Xu, Shaomao; Dai, Jiaqi; Hamann, Tanner R.; Zhang, Lei; Hitz, Gregory T.; Fu, Zhezhen; Ma, Zhaohui; McOwen, Dennis W.; Han, Xiaogang; Hu, Liangbing; Wachsman, Eric D. (July 2018). "Lithium-ion conductive ceramic textile: A new architecture for flexible solid-state lithium metal batteries". Materials Today. 21 (6): 594–601. doi:10.1016/j.mattod.2018.01.001. OSTI 1538573. S2CID 139149288.
  62. Damen, L.; Hassoun, J.; Mastragostino, M.; Scrosati, B. (October 2010). "Solid-state, rechargeable Li/LiFePO4 polymer battery for electric vehicle application". Journal of Power Sources. 195 (19): 6902–6904. Bibcode:2010JPS...195.6902D. doi:10.1016/j.jpowsour.2010.03.089.
  63. Tan, Darren H. S.; Chen, Yu-Ting; Yang, Hedi; Bao, Wurigumula; Sreenarayanan, Bhagath; Doux, Jean-Marie; Li, Weikang; Lu, Bingyu; Ham, So-Yeon; Sayahpour, Baharak; Scharf, Jonathan; Wu, Erik A.; Deysher, Grayson; Han, Hyea Eun; Hah, Hoe Jin; Jeong, Hyeri; Lee, Jeong Beom; Chen, Zheng; Meng, Ying Shirley (24 September 2021). "Carbon-free high-loading silicon anodes enabled by sulfide solid electrolytes". Science. 373 (6562): 1494–1499. Bibcode:2021Sci...373.1494T. doi:10.1126/science.abg7217. PMID 34554780. S2CID 232147704.
  64. Tanibata, Naoto; Takimoto, Shuta; Nakano, Koki; Takeda, Hayami; Nakayama, Masanobu; Sumi, Hirofumi (2020-08-03). "Metastable Chloride Solid Electrolyte with High Formability for Rechargeable All-Solid-State Lithium Metal Batteries". ACS Materials Letters. 2 (8): 880–886. doi:10.1021/acsmaterialslett.0c00127. ISSN 2639-4979. S2CID 225759726.
  65. Zhou, Laidong; Zuo, Tong-Tong; Kwok, Chun Yuen; Kim, Se Young; Assoud, Abdeljalil; Zhang, Qiang; Janek, Jürgen; Nazar, Linda F. (January 2022). "High areal capacity, long cycle life 4 V ceramic all-solid-state Li-ion batteries enabled by chloride solid electrolytes". Nature Energy. 7 (1): 83–93. Bibcode:2022NatEn...7...83Z. doi:10.1038/s41560-021-00952-0. ISSN 2058-7546. OSTI 1869086. S2CID 245654129.
  66. Wang, Kai; Ren, Qingyong; Gu, Zhenqi; Duan, Chaomin; Wang, Jinzhu; Zhu, Feng; Fu, Yuanyuan; Hao, Jipeng; Zhu, Jinfeng; He, Lunhua; Wang, Chin-Wei; Lu, Yingying; Ma, Jie; Ma, Cheng (2021-07-20). "A cost-effective and humidity-tolerant chloride solid electrolyte for lithium batteries". Nature Communications. 12 (1): 4410. Bibcode:2021NatCo..12.4410W. doi:10.1038/s41467-021-24697-2. ISSN 2041-1723. PMC 8292426. PMID 34285207.
  67. Carlon, Kris (24 October 2016). "The battery technology that could put an end to battery fires". Android Authority. Retrieved 7 January 2018.
  68. "Will solid-state batteries power us all?". The Economist. 16 October 2017.
  69. "Batteries for Hybrid and Plug-In Electric Vehicles". Alternative Fuels Data Center. Retrieved 7 January 2018.
  70. "Energy Storage". National Renewable Energy Laboratory. Retrieved 7 January 2018. Many automakers have adopted lithium-ion (Li-ion) batteries as the preferred EDV energy storage option, capable of delivering the required energy and power density in a relatively small, lightweight package.
  71. "All-solid-state battery technology". Honda. August 2022. Retrieved 9 November 2022.
  72. "High-quality battery technology that dramatically boosts the performance of EVs". Nissan. Retrieved 19 June 2023.
  73. Yuri Kageyama (13 June 2023). "Japan's Toyota announces initiative for all-solid state battery as part of electric vehicles plan". AP News. Retrieved 17 June 2023.
  74. "Toyota Unveils New Technology That Will Change the Future of Cars" (Press release). Toyota. 13 June 2023. Retrieved 17 June 2023.
  75. Henry Brown (4 May 2021). "Murata will soon start mass production of solid-state batteries". gadget tendency. Retrieved 12 November 2021.
  76. "All-solid-state Lithium-ion Batteries". Hitachi Zosen Corporation. Retrieved 17 November 2021.
  77. Ryotaro Sato (4 March 2021). "'World's highest-capacity' solid-state battery developed in Japan". Nikkei Asia. Retrieved 22 February 2023.
  78. "JAXA and Hitachi Zosen Jointly Confirm All-solid-state Lithium-ion Batteries' Charge/Discharge Operation in Space, World First". Japanese Aerospace Exploration Agency. 5 August 2022. Retrieved 22 February 2023.
  79. "Solid State Batteries have arrived!". 5 November 2022.
  80. ALL the New Power Stations at CES 2023!? - EcoFlow, Bluetti, Jackery, Zendure, Yoshino, UGreen!, retrieved 2023-09-23
  81. "Solid-State Technology". Yoshino Power. Retrieved 2023-09-23.
  82. "Yoshino Portable Power Stations". Yoshino Power. Retrieved 2023-09-23.
  83. Jones, Kevin S. "State of Solid-State Batteries" (PDF). Retrieved 7 January 2018.
  84. "New hybrid electrolyte for solid-state lithium batteries". 21 December 2015. Retrieved 7 January 2018.
  85. ""柔固体"型電池の共同開発に成功 新素材による高容量化で、次世代電池の早期実用化に貢献" [Achieved in developing "Flexible solid" state battery: Large capacity by new material]. Kyoto University (in Japanese). 7 November 2022. Retrieved 9 November 2022.
  86. Kimura, Takuya; Inaoka, Takeaki; Izawa, Ryo; Nakano, Takumi; Hotehama, Chie; Sakuda, Atsushi; Tatsumisago, Masahiro; Hayashi, Akitoshi (June 20, 2023). "Stabilizing High-Temperature α-Li3PS4 by Rapidly Heating the Glass". Journal of the American Chemical Society. 145 (26): 14466–14474. doi:10.1021/jacs.3c03827.
  87. Lou, Shuaifeng; Yu, Zhenjiang; Liu, Qingsong; Wang, Han; Chen, Ming; Wang, Jiajun (September 2020). "Multi-scale Imaging of Solid-State Battery Interfaces: From Atomic Scale to Macroscopic Scale". Chem. 6 (9): 2199–2218. doi:10.1016/j.chempr.2020.06.030. S2CID 225406505.
  88. Richards, William D.; Miara, Lincoln J.; Wang, Yan; Kim, Jae Chul; Ceder, Gerbrand (12 January 2016). "Interface Stability in Solid-State Batteries". Chemistry of Materials. 28 (1): 266–273. doi:10.1021/acs.chemmater.5b04082. hdl:1721.1/101875. S2CID 14077506.
  89. Wang, Xu; Zeng, Wei; Hong, Liang; Xu, Wenwen; Yang, Haokai; Wang, Fan; Duan, Huigao; Tang, Ming; Jiang, Hanqing (March 2018). "Stress-driven lithium dendrite growth mechanism and dendrite mitigation by electroplating on soft substrates". Nature Energy. 3 (3): 227–235. Bibcode:2018NatEn...3..227W. doi:10.1038/s41560-018-0104-5. S2CID 139981784.
  90. Cheng, Xin-Bing; Zhang (17 November 2015). "A Review of Solid Electrolyte Interphases on Lithium Metal Anode". Advanced Science. 3 (3): 1500213. doi:10.1002/advs.201500213. PMC 5063117. PMID 27774393.
  91. Armstrong, R. D.; Dickinson, T.; Turner, J. (1974). "The Breakdown of Beta-Alumina Ceramic Electrolyte". Electrochimica Acta. 19 (5): 187–192. doi:10.1016/0013-4686(74)85065-6.
  92. De Jonghe, Lutgard C.; Feldman, Leslie; Beuchele, Andrew (1981-03-01). "Slow degradation and electron conduction in sodium/beta-aluminas". Journal of Materials Science. 16 (3): 780–786. Bibcode:1981JMatS..16..780J. doi:10.1007/BF02402796. ISSN 1573-4803. OSTI 1070020. S2CID 189834121.
  93. D. Fincher, Cole; Athanasiou, Christos E.; Gilgenbach, Colin; Wang, Michael; Sheldon, Brian W.; Carter, W. Craig; Chiang, Yet-Ming (November 2022). "Controlling dendrite propagation in solid-state batteries with engineered stress". Joule. 6 (11): 2542–4351. doi:10.1016/j.joule.2022.10.011. S2CID 253694787.
  94. Tippens, Jared; Miers, John C.; Afshar, Arman; Lewis, John A.; Cortes, Francisco Javier Quintero; Qiao, Haipeng; Marchese, Thomas S.; Di Leo, Claudio V.; Saldana, Christopher; McDowell, Matthew T. (2019-06-14). "Visualizing Chemomechanical Degradation of a Solid-State Battery Electrolyte". ACS Energy Letters. 4 (6): 1475–1483. doi:10.1021/acsenergylett.9b00816. ISSN 2380-8195. S2CID 195582019.
  95. Wang, Michael; Wolfenstine, Jeffrey B.; Sakamoto, Jeff (2019-02-10). "Temperature dependent flux balance of the Li/Li7La3Zr2O12 interface". Electrochimica Acta. 296: 842–847. doi:10.1016/j.electacta.2018.11.034. ISSN 0013-4686. S2CID 106296290.
  96. "New 'smart layer' could enhance the durability and efficiency of solid-state batteries". University of Surrey. Retrieved 16 April 2023.
  97. Deysher, Grayson; Ridley, Phillip; Ham, So-Yeon; Doux, Jean-Marie; Chen, Yu-Ting; Wu, Erik A.; Tan, Darren H. S.; Cronk, Ashley; Jang, Jihyun; Meng, Ying Shirley (2022-05-01). "Transport and mechanical aspects of all-solid-state lithium batteries". Materials Today Physics. 24: 100679. doi:10.1016/j.mtphys.2022.100679. ISSN 2542-5293. S2CID 247971631.
  98. Koerver, Raimund; Zhang, Wenbo; de Biasi, Lea; Schweidler, Simon; Kondrakov, Aleksandr O.; Kolling, Stefan; Brezesinski, Torsten; Hartmann, Pascal; Zeier, Wolfgang G.; Janek, Jürgen (2018). "Chemo-mechanical expansion of lithium electrode materials – on the route to mechanically optimized all-solid-state batteries". Energy & Environmental Science. 11 (8): 2142–2158. doi:10.1039/C8EE00907D. ISSN 1754-5692.
  99. Koerver, Raimund; Aygün, Isabel; Leichtweiß, Thomas; Dietrich, Christian; Zhang, Wenbo; Binder, Jan O.; Hartmann, Pascal; Zeier, Wolfgang G.; Janek, Jürgen (2017-07-11). "Capacity Fade in Solid-State Batteries: Interphase Formation and Chemomechanical Processes in Nickel-Rich Layered Oxide Cathodes and Lithium Thiophosphate Solid Electrolytes". Chemistry of Materials. 29 (13): 5574–5582. doi:10.1021/acs.chemmater.7b00931. ISSN 0897-4756.
  100. Shi, Tan; Zhang, Ya-Qian; Tu, Qingsong; Wang, Yuhao; Scott, M. C.; Ceder, Gerbrand (2020). "Characterization of mechanical degradation in an all-solid-state battery cathode". Journal of Materials Chemistry A. 8 (34): 17399–17404. doi:10.1039/D0TA06985J. ISSN 2050-7488. S2CID 225222096.
  101. Zhou, Yong-Ning; Ma, Jun; Hu, Enyuan; Yu, Xiqian; Gu, Lin; Nam, Kyung-Wan; Chen, Liquan; Wang, Zhaoxiang; Yang, Xiao-Qing (2014-11-18). "Tuning charge–discharge induced unit cell breathing in layer-structured cathode materials for lithium-ion batteries". Nature Communications. 5 (1): 5381. Bibcode:2014NatCo...5.5381Z. doi:10.1038/ncomms6381. ISSN 2041-1723. PMID 25451540.
  102. Kim, Un-Hyuck; Ryu, Hoon-Hee; Kim, Jae-Hyung; Mücke, Robert; Kaghazchi, Payam; Yoon, Chong S.; Sun, Yang-Kook (April 2019). "Microstructure-Controlled Ni-Rich Cathode Material by Microscale Compositional Partition for Next-Generation Electric Vehicles". Advanced Energy Materials. 9 (15): 1803902. doi:10.1002/aenm.201803902. ISSN 1614-6832. S2CID 104475168.
  103. Doux, Jean-Marie; Nguyen, Han; Tan, Darren H. S.; Banerjee, Abhik; Wang, Xuefeng; Wu, Erik A.; Jo, Chiho; Yang, Hedi; Meng, Ying Shirley (January 2020). "Stack Pressure Considerations for Room-Temperature All-Solid-State Lithium Metal Batteries". Advanced Energy Materials. 10 (1): 1903253. arXiv:1910.02118. doi:10.1002/aenm.201903253. ISSN 1614-6832. S2CID 203838056.
  104. LePage, William S.; Chen, Yuxin; Kazyak, Eric; Chen, Kuan-Hung; Sanchez, Adrian J.; Poli, Andrea; Arruda, Ellen M.; Thouless, M. D.; Dasgupta, Neil P. (2019). "Lithium Mechanics: Roles of Strain Rate and Temperature and Implications for Lithium Metal Batteries". Journal of the Electrochemical Society. 166 (2): A89–A97. Bibcode:2019JElS..166A..89L. doi:10.1149/2.0221902jes. ISSN 0013-4651. S2CID 104319914.
  105. Messer, R.; Noack, F. (1975-02-01). "Nuclear magnetic relaxation by self-diffusion in solid lithium:T1-frequency dependence". Applied Physics. 6 (1): 79–88. Bibcode:1975ApPhy...6...79M. doi:10.1007/BF00883553. ISSN 1432-0630. S2CID 94108174.
  106. Masias, Alvaro; Felten, Nando; Garcia-Mendez, Regina; Wolfenstine, Jeff; Sakamoto, Jeff (February 2019). "Elastic, plastic, and creep mechanical properties of lithium metal". Journal of Materials Science. 54 (3): 2585–2600. Bibcode:2019JMatS..54.2585M. doi:10.1007/s10853-018-2971-3. ISSN 0022-2461. S2CID 139507295.
  107. Okamoto, H. (February 2009). "Li-Si (Lithium-Silicon)". Journal of Phase Equilibria and Diffusion. 30 (1): 118–119. doi:10.1007/s11669-008-9431-8. ISSN 1547-7037. S2CID 96833267.
  108. Predel, B. (1997), Madelung, O. (ed.), "Li-Sb (Lithium-Antimony)", Li-Mg – Nd-Zr, Landolt-Börnstein - Group IV Physical Chemistry, vol. H, Berlin/Heidelberg: Springer-Verlag, pp. 1–2, doi:10.1007/10522884_1924, ISBN 978-3-540-61433-3, retrieved 2022-05-19
  109. Sherby, Oleg D.; Burke, Peter M. (January 1968). "Mechanical behavior of crystalline solids at elevated temperature". Progress in Materials Science. 13: 323–390. doi:10.1016/0079-6425(68)90024-8.
  110. Tan, Darren H. S.; Chen, Yu-Ting; Yang, Hedi; Bao, Wurigumula; Sreenarayanan, Bhagath; Doux, Jean-Marie; Li, Weikang; Lu, Bingyu; Ham, So-Yeon; Sayahpour, Baharak; Scharf, Jonathan (2021-09-24). "Carbon-free high-loading silicon anodes enabled by sulfide solid electrolytes". Science. 373 (6562): 1494–1499. Bibcode:2021Sci...373.1494T. doi:10.1126/science.abg7217. ISSN 0036-8075. PMID 34554780. S2CID 232147704.
  111. Luo, Shuting; Wang, Zhenyu; Li, Xuelei; Liu, Xinyu; Wang, Haidong; Ma, Weigang; Zhang, Lianqi; Zhu, Lingyun; Zhang, Xing (December 2021). "Growth of lithium-indium dendrites in all-solid-state lithium-based batteries with sulfide electrolytes". Nature Communications. 12 (1): 6968. Bibcode:2021NatCo..12.6968L. doi:10.1038/s41467-021-27311-7. ISSN 2041-1723. PMC 8630065. PMID 34845223.
  112. Dudney, Nancy J; West, William C; Nanda, Jagjit, eds. (2015). Handbook of Solid State Batteries. Materials and Energy. Vol. 6 (2nd ed.). World Scientific Publishing Co. Pte. doi:10.1142/9487. hdl:10023/9281. ISBN 978-981-4651-89-9.
  113. Bullis, Kevin (19 April 2011). "Solid-State Batteries - High-energy cells for cheaper electric cars". MIT Technology Review. Retrieved 7 January 2018.
  114. Inoue, Takao; Mukai, Kazuhiko (18 January 2017). "Are All-Solid-State Lithium-Ion Batteries Really Safe?–Verification by Differential Scanning Calorimetry with an All-Inclusive Microcell". ACS Applied Materials & Interfaces. 9 (2): 1507–1515. doi:10.1021/acsami.6b13224. PMID 28001045.
  115. Eisenstein, Paul A. (1 January 2018). "From cellphones to cars, these batteries could cut the cord forever". NBC News. Retrieved 7 January 2018.
  116. Limer, Eric (25 July 2017). "Toyota Working on Electric Cars That Charge in Minutes for 2022". Popular Mechanics. Retrieved 7 January 2018.
  117. Kanehori, K; Ito, Y; Kirino, F; Miyauchi, K; Kudo, T (January 1986). "Titanium disulfide films fabricated by plasma CVD". Solid State Ionics. 18–19: 818–822. doi:10.1016/0167-2738(86)90269-9.
  118. Garbayo, Iñigo; Struzik, Michal; Bowman, William J.; Pfenninger, Reto; Stilp, Evelyn; Rupp, Jennifer L. M. (April 2018). "Glass-Type Polyamorphism in Li-Garnet Thin Film Solid State Battery Conductors". Advanced Energy Materials. 8 (12): 1702265. doi:10.1002/aenm.201702265. hdl:1721.1/140483. S2CID 103286218.
  119. Balaish, Moran; Gonzalez-Rosillo, Juan Carlos; Kim, Kun Joong; Zhu, Yuntong; Hood, Zachary D.; Rupp, Jennifer L. M. (March 2021). "Processing thin but robust electrolytes for solid-state batteries". Nature Energy. 6 (3): 227–239. Bibcode:2021NatEn...6..227B. doi:10.1038/s41560-020-00759-5. S2CID 231886762.
  120. Kim, Joo Gon; Son, Byungrak; Mukherjee, Santanu; Schuppert, Nicholas; Bates, Alex; Kwon, Osung; Choi, Moon Jong; Chung, Hyun Yeol; Park, Sam (May 2015). "A review of lithium and non-lithium based solid state batteries". Journal of Power Sources. 282: 299–322. Bibcode:2015JPS...282..299K. doi:10.1016/j.jpowsour.2015.02.054.
  121. Mukanova, Aliya; Jetybayeva, Albina; Myung, Seung-Taek; Kim, Sung-Soo; Bakenov, Zhumabay (September 2018). "A mini-review on the development of Si-based thin-film anodes for Li-ion batteries". Materials Today Energy. 9: 49–66. doi:10.1016/j.mtener.2018.05.004. S2CID 103894996.
  122. Swann, S (March 1988). "Magnetron sputtering". Physics in Technology. 19 (2): 67–75. Bibcode:1988PhTec..19...67S. doi:10.1088/0305-4624/19/2/304.
  123. Ohara, Shigeki; Suzuki, Junji; Sekine, Kyoichi; Takamura, Tsutomu (1 June 2003). "Li insertion/extraction reaction at a Si film evaporated on a Ni foil". Journal of Power Sources. 119–121: 591–596. Bibcode:2003JPS...119..591O. doi:10.1016/S0378-7753(03)00301-X.
  124. Dogan, Fulya; Sanjeewa, Liurukara D.; Hwu, Shiou-Jyh; Vaughey, J.T. (May 2016). "Electrodeposited copper foams as substrates for thin film silicon electrodes". Solid State Ionics. 288: 204–206. doi:10.1016/j.ssi.2016.02.001.
  125. Mukanova, A.; Tussupbayev, R.; Sabitov, A.; Bondarenko, I.; Nemkaeva, R.; Aldamzharov, B.; Bakenov, Zh. (1 January 2017). "CVD graphene growth on a surface of liquid gallium". Materials Today: Proceedings. 4 (3, Part A): 4548–4554. doi:10.1016/j.matpr.2017.04.028.
  126. Kulova, T. L.; Pleskov, Yu. V.; Skundin, A. M.; Terukov, E. I.; Kon'kov, O. I. (1 July 2006). "Lithium intercalation into amorphous-silicon thin films: An electrochemical-impedance study". Russian Journal of Electrochemistry. 42 (7): 708–714. doi:10.1134/S1023193506070032. S2CID 93569567.
  127. Kozicki, M. N.; Mitkova, M.; Aberouette, J. P. (1 July 2003). "Nanostructure of solid electrolytes and surface electrodeposits". Physica E: Low-dimensional Systems and Nanostructures. 19 (1): 161–166. Bibcode:2003PhyE...19..161K. doi:10.1016/S1386-9477(03)00313-8.
  128. "RF sputtering deposition of BCZY proton conducting electrolytes" (PDF).
  129. Xia, H.; Meng, Y. S.; Lai, M. O.; Lu, L. (2010). "Structural and Electrochemical Properties of LiNi[sub 0.5]Mn[sub 0.5]O[sub 2] Thin-Film Electrodes Prepared by Pulsed Laser Deposition". Journal of the Electrochemical Society. 157 (3): A348. doi:10.1149/1.3294719.
  130. Mai, L. Q.; Hu, B.; Chen, W.; Qi, Y. Y.; Lao, C. S.; Yang, R. S.; Dai, Y.; Wang, Z. L. (2007). "Lithiated MoO3 Nanobelts with Greatly Improved Performance for Lithium Batteries". Advanced Materials. 19 (21): 3712–3716. Bibcode:2007AdM....19.3712M. doi:10.1002/adma.200700883. S2CID 33290912.
  131. Patil, Arun; Patil, Vaishali; Wook Shin, Dong; Choi, Ji-Won; Paik, Dong-Soo; Yoon, Seok-Jin (4 August 2008). "Issue and challenges facing rechargeable thin film lithium batteries". Materials Research Bulletin. 43 (8): 1913–1942. doi:10.1016/j.materresbull.2007.08.031.
This article is issued from Wikipedia. The text is licensed under Creative Commons - Attribution - Sharealike. Additional terms may apply for the media files.