Solid electrolyte interphase tih hi eng nge ni?

Solid electrolyte interphase (SEI) hi charging cycle hmasa berah electrolyte decomposition hmanga lithium battery anode surface-a lo awm thin, protective layer te tak te a ni. He nanoscale film hian selective barrier-lithium-ion transport a permit laiin electron flow a block laiin electrolyte breakdown dang a awm loh nan a thawk a ni.

SEI hi anode potential chu electrolyte reduction potential hnuai lama a tlak chuan spontaneous electrochemical process hmangin a lo thang lian a ni. Charging hmasa berah chuan electrolyte molecule te chu electrode surface-a electron leh lithium ion te nen an inrem a, chu chuan organic leh inorganic decomposition products complex mixture a siam a ni.

He formation hi a bul berah chuan charge hmasa ber atanga lo awm a ni-discharge cycle, lithium ion awmsa atanga a then a ei thin. He reaction hian ethylene carbonate (EC) a huam a, hei hi electrolyte solvent a ni a, chu chu lithium ethylene dicarbonate (LEDC) leh ethylene gas-ah a inthlak a ni. Chumi hnuah LEDC instability chuan secondary reaction a tichhuak a, SEI heterogeneous structure siamtu compound dang a siam belh leh a ni.

A kalphung chu voltage-a innghat a ni. Anode potential chu electrolyte thermodynamic stability window pawnah a tlak chuan electrode/electrolyte interface-ah reduction reaction a intan a. Heng reaction te hi SEI layer lo thang lian chu electron tunneling venna atana a thick tawk thlengin a kal zel a, electrode surface chu effective takin a passivate a ni.

Temperature hian SEI formation kinetics nasa takin a nghawng a ni. Temperature sang zawk chuan reduction reaction a ti chak zawk a, mahse layer stability a tichhe thei thung. Formation laiin charging current hian hmun pawimawh tak a chang bawk-High currents hian inorganic component siam hmasak a duh hmasa a, chu chu lithium intercalation leh organic compound generation a ni.

SEI hian architecture complex tak, multilayered a lantir a, chemical zone hrang hrang a nei bawk. x-Ray photoelectron spectroscopy leh cryogenic electron microscopy hmanga analysis chuan dual-layer structure: electrode bula dense inner layer leh electrolyte lam hawi porous outer layer a tarlang a.

Inner layer hi inorganic compound atanga siam a ni ber. Lithium carbonate (LI2CO3), lithium fluoride (LIF), lithium oxide (LI2O), leh lithium hydroxide (LIOH) te hian he bial hi an thunun a ni. Heng thilte hian mechanical rigidity leh electronic insulation a pe a ni. LI2CO3 hian primary component a siam a, chutih laiin Lif- chu present-chuan exceptional stability leh ionic conductivity a thawk thung.

Outer layer ah hian organic species a awm ber a. Lithium alkyl carbonates (roco2li), lithium ethylene dicarbonate (LEDC), leh polyethylene oxide (PEO)-Type oligomers te hian structure awlsam zawk, dense lo zawk an siam a. He composition hian electrolyte nena inzawmna nei reng chungin cycling laiin outer layer chu cycling laiin a awm theihna tur a siamsak a ni.

Tun hnaia nuclear magnetic resonance spectroscopy advanced hmanga zirchianna chuan SEI composition-a a hmaa hriat loh complexity hriat lohte chu a hmuchhuak a. SEI-ah hian LIF chu Lif LIF-lih solid solutions angin a awm a, hydrogen{{2}rich (lih1{4}}yfy) leh fluorine-rich (LIF1-XHX) phase pahnih a siam a ni. Hetiang heterogeneous nature hi LIF distribution hian lithium-ion transport pathways a nghawng nasa hle.

SEI thickness zawng zawng hi 10-50 nanometers inkar a ni a, chu chu conventional lithium-ion battery a ni a, mahse hei hi electrode material leh electrolyte composition a zirin a danglam thei a ni. Silicon anodes, volume expansion nasa tak nei te hian SEI layer thick zawk an nei a-a chang chuan extended cycling hnuah micron scale an thleng thin.

solid electrolyte interphase

SEI hian battery dam rei zawng leh efficiency a tichiang a ni. Well-formed SEI hian lithium-ion transport awlsam taka siam laiin electrolyte decomposition kal zel tur venna hmangin long-term cyclability a ti thei a ni. He dual functionality hian 1999-a component pawimawh ber, mahse hriatthiam tlem ber component a siam a ni mai thei.Lithium battery a ni a.system hrang hrang a awm.

Capacity retention hi SEI stability nen direct-in a inzawm a ni. Cycle tin hian SEI a crack leh reforms te hian lithium ion leh electrolyte dang a ei belh a, chu chuan battery capacity a ti tlem thei lo. Sumdawnna cell-a capacity fade tracking zirchiannate chuan 60-70% chu SEI-related phenomena-ah an attribute a. A tir lama SEI siam chhuah lai khan lithium ei hian first-cycle capacity hloh 10-20% vel a huam tlangpui.

Rate capability hi SEI resistance ah a innghat nasa hle. Lithium ion te hian charge an neih apiangin SEI layer an paltlang tur a ni-discharge cycle. SEI thick zawk emaw conductive tlem zawk emaw chuan impedance a tipung a, hei hian battery charge emaw discharge emaw a rang thei ang bera a tih theih dan a tikhawtlai a ni. Electrochemical impedance spectroscopy measurement-ah chuan SEI resistance hi cycle hmasa 100 chhungin a let 3-5 in a pung thei a, hei hian power performance a nghawng nghal vek a ni.

Safety considerations chu SEI integrity nen a inzawm tlat a ni. Unstable SEI hian lithium dendrite formation-Needle-a separator pierce thei leh internal short circuit siamtu ang chi structure ang chi a pui a ni. Thermal runaway mechanism chungchanga zirchianna chuan SEI decomposition hian self-heating 80-120℃vel a intan tih a tarlang. Outer layer-a organic components te chu a chhe hmasa ber a, gas leh heat chu a chhuah tir a, chu chuan thermal events a ti chak zawk a ni.

Tun hnaia kum 2025-a fast-charging leh low-temperature battery chungchanga zirchiannate chuan SEI microstructure pawimawhna a ngaih pawimawh ber a ni. Fluorine-Rich SEI with excessive, densely packed Lif hian lithium-ion transport a tikhawlo a, dispersed Lif aggregates chuan performance a tichak thung. He thil hmuhchhuah hian Lif-rich interfaces universally improve battery characteristics tih ngaihdan hlui chu a dodal a ni.

Silicon anodes hian SEI lama harsatna danglam tak tak an siam a, hei hi volume inthlak danglam nasa lutuk vang a ni. Lithiation lai hian silicon chu 300% thlengin a zau thei a, delithiation chuan a inmil tur contraction a thlen thei thung. He dramatic cycling strain hian SEI chu a tikehsawm nawn leh a, silicon surface thar chu electrolyte-ah a pholang leh thin.

Advanced electron microscopy study-ah chuan silicon electrode-a SEI a lo inthlak danglam dan an hmuchhuak a. Particle surface-a awm reng ai chuan, SEI chu delithiation laiin vacancy injection leh condensation hmanga siam percolation channel hmangin a chhung lam hawiin a lo thang chho zel a ni. He process hian silicon-electrolyte composite structure a siam a, chu chuan active material a ei a, capacity a ti tlem bawk.

Silicon anode-a SEI thickness hi nanometer sawm atanga cycle za tam tak hnuah micron engemaw zatah a pung a ni. Cryo-scanning transmission electron microscopy images ah hian heterogeneous SEI distributions a awm a, particle thenkhat chuan layer thick, porous tak tak an nei a, thenkhat chuan coatings dense deuh an nei thung. He non-Uniformity hi particle- atanga lo chhuak a ni a, chu chu surface chemistry leh mechanical stress distribution-a particle danglamna a ni.

Electrolyte additives fluoroethylene carbonate (FEC) ang chi hian silicon SEIs stabilize-naah hian elastic zawk, fluorine-containing components siam a tichak a ni. Mahse, optimized SEI layers te pawhin silicon volume swings te chu cracking engemaw chen awm lovin accommodate turin an bei nasa hle. Tuna zirchianna hian artificial SEI coatings leh structural modifications te chu silicon particle te chu a ngaih pawimawh ber a, chu chuan stress a sem darh zawk a ni.

Solid-State battery lithium metal anode nei te hian SEI dynamics hrang hrang an hmachhawn a. Solid electrolytes leh lithium metal inkara interface hian decomposition reaction inang chiah hmangin interphase layer a siam a, mahse mechanical property te chu a paramount ta a ni. Liquid electrolytes atana siam traditional SEI materials te hian solid-state system te tan chuan a brittle lutuk tih a chiang fo thin.

A 2025 breakthrough reported in Nature demonstrated a ductile SEI for solid-state batteries. By incorporating Ag2S and AgF components through substitution reactions with Li2S/LiF, researchers created an SEI that maintains structural integrity under high current densities (>1 mA/cm²) and areal capacities (>1 mAh/cm2 a ni). He ductility hian interphase chu solid-state battery commercialization atana thil tul pawimawh tak cracking-lithium deposition awm theihna a siamsak a ni.

Lithium metal anodes nei lo, protective coatings nei lo chuan reactive sang tak, non-uniform SEI layers an siam a, chu chuan dendrite thanna a veng thei lo. Lithium metal-a native SEI hi a tlangpuiin a fragile a, electrochemically unstable a ni a, electrolyte reaction laka invenna tling lo a pe a ni. Hei hian dynamic lithium plating leh stripping process te tuar thei tur artificial SEI strategy te zirchianna a tichak a ni.

Anode-free battery atana interface engineering hian ramri lo piang chhuak tur a entir a ni. Tun hnaia kum 2025-a MOS2 sacrificial thin film-a hnathawh chuan controlled conversion reaction-in Mo metal leh Li2S interlayer-te a siam theih danin lithium nucleation overpotential a tihtlem theih dan a tarlang a ni. Chutiang approach chuan LI-free battery architectures te chu energy density 500 wh/kg vel a hnaih thei ang.

solid electrolyte interphase

Electrolyte modification hian SEI optimization-a hmantlak ber a entir a ni. Solvent composition, lithium salt thlan dan, leh additive incorporation te siamremna hmangin zirchiangtute chuan SEI chemistry chu electrode structure siam thar lovin an siam danglam thei a ni.

Fluorinated compound te chu additives tha tak tak a ni tih an lo lang chhuak ta a ni. Fluoroethylene carbonate (FEC) hian ethylene carbonate hmaah a ti tlem duh zawk a, LIF-rich SEI a siam a, mechanical property leh ionic conductivity a ti tha zawk. Standard carbonate electrolyte-a 2{{4}10% FEC thlenga hniam concentration-te chuan cycling stability nasa takin a tichak a, a bik takin high-capacity anode-te tan chuan a tichak hle.

High-Concentration electrolytes (HCE) leh localized high-Concentration electrolytes (LHCE) te hian lithium-ion solvation structure thlak danglamin SEI composition chu a bulpui berah an thlak danglam thin. Concentrated system-ah chuan anions te hian solvation shell-ah direct zawkin an tel a, contact ion pair leh aggregate an siam a ni. Chuta chhuak SEI chuan anion decomposition atanga lo chhuak inorganic component tam zawk a keng tel a, chu chuan layer thinner mahse stable zawk a siam a ni.

Kum 2025-a chemical science-a zirchianna pakhat chuan nitrile-fluorine hmanga carbonate electrolytes-te chu a containing salt-te’n SEIs an siam chhuah dan chu SEIs sang zawk, sulfur-h tam chhunga solvent decomposition tihtawp dan a ni tih a tarlang a ni. Heng engineered electrolytes te hian pouch cells te chu extreme charge/discharge rates (3C charge, 5c discharge) 55℃ah cycle 200 an neih hnuah 66.88% capacity an vawng thei ta a ni.

Weakly solvating electrolytes hian kawng beisei awm tak dang a entir bawk. Lithium-ion coordination strength tihtlem hmanga solvent hman hian heng formulations te hian anion-derived SEI components a tichak a, chu chuan lithium-ion transport chak zawk a ti awlsam a, low-temperature operation a ti thei bawk. Hetiang approach hian graphite anode charging chu -20℃-lithium-ion battery atan hman theih loh anga ngaih a ni.

Native SEI formation a tling tawk lo tih a hriat chuan artificial SEI layers hian alternative a pe a ni. Heng pre-applied protective coatings hian lithium deposition control a tum a, dendrite thanna tur ven a tum a, electrode-electrolyte interface chu cycle hmasa ber atanga stabilize a tum a ni.

Artificial SEI design tha tak neih a ngai a, key property pathum balance a ngai. Pakhatnaah chuan, mechanical stability-chutiang bawkin high strength materials hmangin cracking emaw adaptive material emaw, volume inthlak danglamna awm thei tur dodâltu a ni. Pahnihnaah chuan, uniform lithium-ion transport chu conductivity hniam tak neiin, a tha ber chu single-ion conduction a hnaih a ni. Pathumnaah chuan lithium leh electrolyte inkara parasitic reaction awm thei tur tih tlem nan chemical passivation.

Polymer- siam a ni a, artificial SEIS leverage material flexibility a ni. Kum 2024-a zirchianna pakhatah chuan polyurethane elastomer (TPU) coatings hmangin soft polyethylene oxide segments te chu ionic conduction atan leh hard isophorone diisocyanate segments te chu mechanical strength atan an hmang dun tih hmuhchhuah a ni. He dual-component design hian darkar 1300 chhung stable cycling chu 1 mA/cm2 ah a thleng thei a, 10 mA/cm2 ah pawh performance a nei reng bawk.

Inorganic artificial SEIs hian ionic conductivity sang zawk leh dendrite suppression a pe a ni. Lithium silicate coatings (LI2SI2O5 leh Li2Sio3) te chu dry coating hmanga hnawih hian ion transport kinetics ti tha thei tur venna kawnga harsatna a siam a, chutih rualin mechanical deformation a veng thei bawk. Mahse, heng rigid materials te hian volume expansion nasa tak an tawk a, an hman dan chu graphite anodes emaw thin lithium metal foils emaw ah an tikhawtlai a ni.

Composite approach hian organic leh inorganic components a hmang dun a. A 2024 jigsaw-structured SEI chu fluorine-silane leh polyether-silane awmna, darkar 500 chhunga reversible lithium plating leh stripping awm thei te inzawmkhawm. Fluorine group te hian parasitic reaction an veng a, dense structure an siam a, ethylene glycol backbone hian rap rapid Li+ transport a ti awlsam a, cross{8}}linked network hian mechanical robustness a pe bawk.

Tun hnaia thil thar siamte hian ion-conducting pathways lam an ngaihtuah ber a ni. Metal-Clo4⁻-functionalized channels nei, flexible lithiated nafion binders nena inzawm metal{/MOFs) te chuan highly efficient single-ion conducting pathways ionic conductivity sang zawk nei an siam a. Anchored CLO4⁻ group-te electronegativity chak tak hian SEI structure kaltlangin duh zawk lithium-ion transport route a siam a.

solid electrolyte interphase

SEI composition leh evolution hriatthiamna atan chuan analytical method thiam tak tak a ngai a ni. x-Ray photoelectron spectroscopy (XPS) chu chemical analysis, lithium salt, organic carbonates, leh inorganic compounds hriat theihna hmanraw pawimawh ber a la ni reng. Mahse, XPS result hi sample buatsaih dan nen a danglam hle a ni-Air leh moisture-a exposure hian minute tlemte chhungin surface chemistry a tidanglam a, characterization dik tak a ti buai hle.

Cryogenic electron microscopy hian SEI hmuh theihna a tidanglam nasa hle. Flash-liquid nitrogen-a battery components freezing leh imaging laiin sub-100K temperature enkawl a nih chuan zirchiangtute chuan SEI structure chu near-native state-ah an hmu thei ang. Cryo-TEM hian nanoscale heterogeneity a pholang a, phase hrang hrang inkara grain boundary a lantir a, interphase kaltlangin preferential lithium-ion transport pathways a hmuchhuak bawk.

Operando technique hmangin battery hman laiin real-time SEI monitoring a awm thei. Electrochemical quartz crystal microbalance (EQCM) chuan electrode surface-a mass inthlak danglamna chu nanogram sensitivity hmangin a quantified a. Electrochemical impedance spectroscopy nen a inzawm chuan heng methods te hian cycling chhung zawnga SEI formation kinetics leh growth mechanism te an track a ni.

Spectroscopy hman dan hmasawn tak takte chuan molecular-level insights a pe a. Surface-Enhanced Raman spectroscopy leh tip-Enhanced Raman spectroscopy (TERS) te chuan spatial resolution chu nanometer 10 hnuaiah an thleng thei a, chu chu LEDC leh PEO-type oligomers ang chi compound bik mapping distribution te chu electrode surface hrang hrangah a ni. Solid-State nuclear magnetic resonance 19f leh 6LI isotopes hmanga a hmaa hriat loh phase leh an local coordination environment te a hriat theih.

Computational modeling hian experimental characterization a tichak a ni. A hmasa berin-Principles Chhiar dan Density Functional Theory (DFT) hmanga chhut dan chuan electrolyte component hrang hrangte tana reduction potentials a hrilhfiah a, eng species nge a chhe hmasa ber tih hriat theihna a pui a ni. Molecular dynamics simulations chuan electric field-in electrode surface bula electrolyte structure a tihdanglam dan a tarlang a, chu chuan decomposition reaction lo awm tanna a nghawng a ni.

Kum 2024-2025-a SEI zirchiannaah hian extreme operating conditions a awm a. Fast-charging mamawhna chuan SEI a mamawh a, chu chuan impedance hniam tak a vawng reng a, chutih rualin lithium plating a veng thei bawk. Wide-Temperature operation hian -40 degree-a flexible taka awm reng mahse 60 degree-a stable reng thei thil a mamawh a ni. High-voltage cathode compatibility-ah chuan SEIs a ngai a, chu chuan oxidative condition 4.5V aia tam a tuar thei a, LI/LI+. a mamawh bawk.

Multivalent-ion battery te hian SEI challenges te chu chemistry thar ah a tizau a ni. Magnesium-ion battery te hian Mg2+ ion te divalent nature avang hian anode passivation na tak an tawk a, chu chuan li{+. calcium-ion battery te aiin resistive SEI layers a siam tam zawk a ni. Tun hnaia AB initio molecular dynamics hmanga computational study-te chuan salt leh solvent selection-in magnesium leh calcium anode-a SEI siam a nghawng dan an zirchiang a, reversible metal deposition theihna tur combination an zawng a ni.

Machine zir hian SEI optimization a ti chak hle. High-Throughput computational screening hian electrolyte additives awm thei sang tam tak a zirchiang a, reduction voltage tha zawk nei candidate te leh SEI-forming property te a hmuchhuak a ni. Kinetic Monte Carlo simulations informed by first-Principles chhut dan chuan microsecond aiin SEI growth dynamics chu second timescales ah a hrilhfiah a, quantum mechanics leh battery operation a bridging bawk.

Self-Healing SEI concepts hian biological system atanga infuih tharna a la thin. SEI-a crack emaw defect emaw-a migrate duh zawk reactive additive awmna electrolytes chuan autonomous repair a ti thei ang. Demonstration hmasa ber chuan thutiam a lantir a, mahse electrochemical stability vawng reng chungin self-healing dik tak neih chu thil harsa tak a la ni reng.

Sustainability ngaihtuah hian SEI zirchianna a siam nasa hle. Water-based artificial SEI siam dan process hian toxic solvents aiin environment advantage a pe a ni. Kum 2024-a breakthrough-ah chuan tuiah guar gum hman a ni a, electrospinning hmangin hollow nanofiber protective layer siam a ni a, lithium metal anode lifespan chu 750%-in a tizau a, thla khat chhungin biodegradation kimchang a awm thei bawk.

Laboratory research atanga commercial products lama inthlak danglamna hi SEI control-ah a innghat a ni. Automotive company te chuan battery dam chhung dam chhung chu 1000 charge-discharge cycle 20% aia tlem lo a fade tih an tarlang. Chutiang ti thei tur chuan lithium battery design hmasa lama a hmaa la awm ngai lo SEI stability a ngai a ni.

Manufacturing consistency hian harsatna lian tak a thlen a ni. SEI siam hi electrode surface faina, tui awm zat, formation protocol, leh cycling hmasa bera temperature control-ah a innghat a ni. Heng parameter hrang hranga danglamna hian cell- to-cell performance danglamna a thlen a, chu chuan battery pack lian tak takah a compound a ni. Industrial formation process te hian SEI quality chu production throughput-slower, controlled charging nen a balance a ngai a, SEI uniformity a ti tha a, mahse manufacturing time leh cost a tisang thung.

SEI atana quality control dan chu a famkim lo reng a ni. Electrode thickness emaw electrolyte fill level ang lo takin SEI characteristics hi awlsam takin non-destructive takin teh theih a ni lo. Thil siamtute chuan electrochemical fingerprinting techniques-Impedance, voltage curves, leh formation chhunga efficiency te tehna- quality infer SEI quality an ring a. Advanced facilities chuan-line x-Ray emaw optical measurement emaw hmangin an kalpui mek a, mahse production environment-a SEI direct chemical analysis chu hmantlak loh a la ni reng.

A man-performance tradeoff hian electrolyte thlan a nghawng a ni. FEC ang chi additives hian SEI quality a ti tha a, mahse electrolyte cost chu 15-30% in a tisang thung. High-concentration electrolytes hian lithium salt a let 3-5 in an mamawh a, hei hian material cost nasa takin a tisang a ni. Thil siamtute chuan heng sum hmannate hi performance gains leh warranty costs te nen an khaikhin a ngai a, chu chu a hun hmaa a hlawhchham vang a ni.

SEI hi a tlangpuiin standard lithium-ion battery graphite anode nei 10-50 nanometers a ni. He dimension hi electrolyte composition leh cycling condition a zirin 100-120 nanometers thlengin a pung thei a ni. Silicon anodes hian SEI layers thick zawk tak tak an nei a, volume expansion avanga cycling nasa tak hnuah cycling nasa tak hnuah SEI layers thick zawk a awm fo thin.

SEI hi electrode tichhe lovin awlsam takin a chhuak thei lo. Research thenkhat chuan solvent bik hmanga controlled SEI dissolution an zirchiang a, mahse hei hi a tlangpuiin maintenance aiin battery recycling laiin a thleng thin. A hmantlak ber chu battery operation dik tak hmanga SEI thanlenna enkawl dan-temperature nasa tak pumpelh te, discharge depth tihtlem te, leh charging protocol dik tak hman te a ni.

SEI formation bulpui ber chu initial cycle-ah a thleng a, battery life chhung zawngin slow growth a kal zel thung. Hei hi a chhan chu SEI hi a stable tha tawk lo-electrode volume inthlak danglamna atang hian minor cracks a lo awm a, chu chuan surface thar chu electrolyte ah a pholang a ni. Tin, electrolyte component thenkhat chu SEI awmsa kaltlangin zawi zawiin a rawn lut a, chu chuan decomposition reaction chhunzawm zel a thlen bawk. He parasitic growth hian lithium ion a ei zo a, impedance a tipung a, capacity fade-ah a pui bawk.

Temperature profoundly impacts SEI behavior. High temperatures (>45℃) te hian side reaction a ti chak a, SEI components, a bik takin organic species te a ti chhe thei a ni. Temperature a hniam (<0°C) reduce ionic conductivity through the SEI and can cause lithium plating rather than intercalation. The optimal temperature range for SEI stability is typically 15-35°C. Recent research on wide-temperature electrolytes aims to create SEI layers that remain functional from -40°C to 60°C.

Data atanga lak chhuah te: 1.1.

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Heiskanen, SK, Kim, J., & Lucht, BL (2019) te chuan an ziak a. Lithium-ion battery solid electrolyte interphase siam leh lo awm dan. Joule chuan 3(10), 2322-2333 a ni. [ScienceDirect.com] tih a ni.

He, Y., Jiang, L., Chen, T., leh a dangte chuan an ziak a ni. (2021) a ni. SI anode interior lam hawia solid–electrolyte interphase a lo thang chhoh zel chuan capacity fading a thlen thin. A rilru a hah lutuk chuan a rilru a buai em em a. 16, 1113-1120. [Nature.com] tih a ni.

Russell, A., leh a dangte chuan an ziak a. (2025) a ni. Stable, fast-charging, low-temperature li-ion battery design-naah solid–electrolyte interphase-in a chanvo a pholang. A rilru a hah lutuk chuan a rilru a buai em em a, a rilru a hah lutuk chuan a rilru a buai em em bawk a. 122(13), E2420398122. [pnas.org] tih a ni.

Thilsiam (2025) tih a ni. A ductile solid electrolyte interphase chu solid-State battery atan hman a ni. [Nature.com] tih a ni.

Ossila chuan a ti a. Solid electrolyte interphase (SEI) layer-a thuhmahruai. [ossila.com] a ni.

ScienceDirect thupui hrang hrang. Solid electrolyte interphase - an ti a. [ScienceDirect.com] tih a ni.

Grepow chuan a rawn ti a. SEI, leh battery chunga nghawng a neih dan te. [Grepow.com] a ni.