ライフサイエンスコーパス: electrolyte

1 capture) to renew and sustain the carbonate electrolyte.

2 interphase between the lithium metal and the electrolyte.

3 ing, the microbattery is infilled with a gel electrolyte.

4 ies between catalyst, conductive support and electrolyte.

5 gel between the active layer and the aqueous electrolyte.

6 ro-reduction of carbon dioxide in an organic electrolyte.

7 scible with aqueous Zn(TFSI)(2) -H(2) O bulk electrolyte.

8 ectron CO(2) reduction in a molten carbonate electrolyte.

9 lified by the absence of a different counter-electrolyte.

10 turing using the Li(7)La(3)Zr(2)O(12) (LLZO) electrolyte.

11 nano-ESI where A represents the anion of the electrolyte.

12 tions on the Au surface in 0.1 M bicarbonate electrolyte.

13 ting the lithium anode with a tin-containing electrolyte.

14 ena flos-aquae) contained within an EGOFET's electrolyte.

15 internal reaction mechanism in the carbonate electrolyte.

16 acial issues between the electrode and solid electrolyte.

17 utylammonium tetrafluoroborate as supporting electrolyte.

18 tween the location of the probe and the bulk electrolyte.

19 tivity, and physically separates Li from the electrolyte.

20 in rate capability of LFP in the respective electrolytes.

21 e fertile ground in the search for new solid electrolytes.

22 ining high concentrations of sugars and some electrolytes.

23 ate or in solution for aqueous or nonaqueous electrolytes.

24 aper also enabled measurements without added electrolytes.

25 studies of ion distributions within polymer electrolytes.

26 sts with experiments, at least for DME-based electrolytes.

27 environments on ionic flows in solid polymer electrolytes.

28 cal stability are typically observed in most electrolytes.

29 es which are of course lacking in supporting electrolytes.

30 more mobile A2 environment in the composite electrolytes.

31 mic electrolytes and the softness of polymer electrolytes.

32 ectrochemical stability in different organic electrolytes.

33 catalysts and photoelectrodes with different electrolytes.

34 widen the electrochemical window of aqueous electrolytes.

35 hydrogen evolution reaction (HER) in aqueous electrolytes.

36 ty by preventing anion cross-over in aqueous electrolytes.

37 (EQCM) in sulfuric acid and phosphate buffer electrolytes.

38 ing materials such as metal oxides and solid electrolytes.

39 n be used either with aqueous or non-aqueous electrolytes.

40 ples for the development of air-stable solid electrolytes.

41 her fracture strain (1.1%) than pure ceramic electrolytes (0.13%) and a much larger ultimate flexural

42 tched with a graphite anode and an ultralean electrolyte (2 g Ah(-1) ).

43 eries, which are applied to two redox-active electrolytes: 2,6-dihydroxyanthraquinone (DHAQ) and 4,4'

44 flexural modulus (7.8 GPa) than pure polymer electrolytes (20 MPa).

45 has been the use of mechanically stiff solid electrolytes(8,9).

46 to RTECs can cause systemic fluid imbalance, electrolyte abnormalities and metabolic waste accumulati

47 The experimental parameters (pH, supporting electrolyte, accumulation step, pulse technique) were op

48 efractory AKI and CRS and may restore normal electrolyte, acid-base, and fluid balance before renal r

49 le protective layer of polysulfides using an electrolyte additive.

50 In bulk electrolyte, alkalinity and CO(2) concentration are inve

51 ic influence of sample flow rate and various electrolytes (ammonium acetate, ammonium bicarbonate, am

52 dispersibility of protein in the ether-based electrolyte and achieve a remarkably enhanced cycling pe

53 electrolyte interphases, protecting both the electrolyte and aluminum current collector from degradat

54 ence in concentration between the background electrolyte and an injected solute can limit or enhance

55 aneously redistribute the Li-ion flux in the electrolyte and in the solid-electrolyte interphase, whi

56 iented research overview of garnet-type LLZO electrolyte and its application in various types of soli

57 n the development of garnet-type solid-state electrolytes and all solid-state batteries.

58 th an open configuration using water-in-salt electrolytes and aluminum oxide coated anodes.

59 y the use of thin sulfur electrodes, flooded electrolytes and Li metal degradation.

60 lombic efficiency of Li anode require excess electrolytes and Li metal, which significantly reduce th

61 the dissolution of high-order polysulfide in electrolytes and low Coulombic efficiency of Li anode re

62 Herein, the emerging sulfide electrolytes and preparation methods are reviewed.

63 on the stabilization of LMA with nonaqueous electrolytes and reveals the fundamental mechanisms behi

64 es as guides for future development of solid electrolytes and solid-state batteries.

65 ch as the electrochemical stabilities of the electrolytes and the compatible electrode/electrolyte in

66 ical load, due to the brittleness of ceramic electrolytes and the softness of polymer electrolytes.

67 ion mechanisms for different Zn-salt aqueous electrolytes and their implications to the cycle stabili

68 el on a microdisk electrode, immobilizes the electrolyte, and constitutes a two-electrode system upon

69 rcial carbon fibers and a structural battery electrolyte, and uses lithium-ion insertion to produce s

70 respiratory, 3) cardiovascular, 4) renal and electrolytes, and 5) supplemental ICU topics.

71 d electrolytes, localized high-concentration electrolytes, and highly fluorinated electrolytes, surfa

72 cially preformed or derived from fluorinated electrolytes, and thus, the effect of the LiF source on

73 to minimize the interaction between LMA and electrolyte, approaches to enable operation of LMA in pr

74 e to the non-flammable nature of water-based electrolytes, aqueous lithium-ion batteries are resistan

75 es formed on both electrodes in the novel IL electrolyte are the key to highly reversible lithium met

76 Here, ether-based electrolytes are in situ polymerized by a ring-opening r

77 lid-state lithium-metal batteries with solid electrolytes are promising for next-generation energy-st

78 Sulfide solid electrolytes are promising inorganic solid electrolytes

79 esistance, fast lithium ion conducting solid electrolytes are required.

80 interactions between reactive electrodes and electrolytes are still not well understood.

81 ial charge transport in conventional polymer electrolytes are well known, but difficult challenges mu

82 anode and the LCO cathode, with an advanced electrolyte, are reported.

83 changes in the (1)H NMR shift of the liquid electrolyte as it flows out of the electrochemical cell.

84 ng this approach, (7)Li NMR signals from the electrolyte, as well as from intercalated and plated met

85 -of-charge, indicating that reactions of the electrolyte at the positive electrode are intrinsically

86 rtant roles in blood pressure regulation and electrolyte balance.

87 Solid-electrolyte-based molten-metal batteries have attracted

88 The background electrolyte (BGE) was prepared and employed by each part

89 We measured electrolytes, blood gases, and plasma-free hemoglobin in

90 ion and Zn dendrite growth in dilute aqueous electrolyte by adding dimethyl sulfoxide (DMSO) into ZnC

91 vate the electrochemical window of carbonate electrolytes by 0.45 V and enable the operation of Zn/gr

92 ibility of Li metal electrodes in liquid DOL electrolytes by a physical mechanism provides a possible

93 nally, we demonstrate that this new class of electrolytes can be used with a Ni-rich layered cathode

94 electrode materials and conventional liquid electrolytes can pose significant safety concerns.

95 es in a novel nonflammable ionic-liquid (IL) electrolyte composed of 1-ethyl-3-methylimidazolium (EMI

96 ental parameters, such as polymer structure, electrolyte composition, and environmental polarity.

97 Our modeling showed that dialysate electrolyte composition, plasma albumin, and plasma tota

98 hrough modification of the sensitizer or the electrolyte composition.

99 he system, exacerbated by the diverse set of electrolyte compositions, electrode materials, and opera

100 What are the impacts of reaction conditions (electrolyte concentration, pH, operating potential) and

101 and Pseudomonas fluorescens LP6a at varying electrolyte concentrations and weak electric field stren

102 tion configurations at the filter, voltages, electrolyte concentrations, and force-field parameters.

103 nt reference potentials over a wide range of electrolyte concentrations.

104 ectrolyte interphase, can operate under lean electrolyte conditions, but a low sulfur loading in carb

105 he CdMnTe thin films were electroplated from electrolyte containing CdSO(4), TeO(2) and MnSO(4) in an

106 h of carbon nanotubes (CNTs) is inhibited in electrolytes containing over 50 wt% of sodium or 30 wt%

107 ss of the inert-cation-assisted WiS (IC-WiS) electrolytes containing the tetraethylammonium (TEA(+) )

108 mong the current SSEs, composite solid-state electrolytes (CSSEs) with multiple phases have greater f

109 These NMR techniques enable electrolyte decomposition and battery self-discharge to

110 The insights on electrolyte decomposition through reactions with reactiv

111 cent study and that suffer capacity fade and electrolyte degradation issues, the materials presented

112 id-state Li-metal cells with these composite electrolytes demonstrate a small interfacial resistance

113 d by current-controlled, self-heating at the electrolyte/dendrite interface, which causes migration o

114 ully consider the combined role of ionic and electrolyte-derived layers in future design strategies.

115 trolytes (LHCEs) are emerging as a promising electrolyte design strategy for LMBs.

116 xamine the effects of multiple acid-base and electrolyte disturbances on expression of NBCn1, NBCn2 a

117 storage technology to replace organic liquid electrolyte-dominated Li-ion batteries.

118 the possibility of excluding the supporting electrolyte due to a very short interelectrode distance.

119 ) are intriguing host materials in composite electrolytes due to their ability for tailoring host-gue

120 With severe ion depletion gradients in the electrolyte during charging, they rapidly develop porosi

121 distribution of sodium in the electrode and electrolyte during sodiation and desodiation of hard car

122 In this work, an artificial electrode/electrolyte (E/E) interface, made by coating the electro

123 thylene oxide) (PEO)-based polymer composite electrolytes, each with a Li(+) conductivity above 10(-4

124 e ensuing in situ repair of the interface by electrolyte, either regenerating LiF or forming an extra

125 artificial receptor with a simple electrode-electrolyte-electrode structure simultaneously detects t

126 and modifications, stability of garnet solid electrolytes/electrodes, emerging nanostructure designs,

127 The hybridized electrolytes elevate the electrochemical window of carbo

128 n (such as surface protection, materials and electrolyte engineering, etc.).

129 dissolution (corrosion) was observed in all electrolytes, even during the periods when the battery i

130 The strained DOL electrolytes exhibit physical properties analogous to am

131 The electrolyte exhibits unique vibrational signatures from

132 This self-recoverability of the electrolyte extended the operational life of the protein

133 es to track the stability of carbonate-based electrolytes, F K-edge to study the electrolyte salt and

134 The heart of the SICM is a nanometer-scale electrolyte filled glass pipette that serves as a scanni

135 lliamperes per square centimetre in a liquid-electrolyte flow cell in a neutral medium.

136 Providing acoustic streaming electrolyte flow during charging, the device enables den

137 desorbed and transported within a 2% HNO(3) electrolyte flow to the ionization source.

138 activity in epithelial cells contributes to electrolyte/fluid-homeostasis and blood pressure regulat

139 d electrolytes are promising inorganic solid electrolytes for all-solid-state batteries.

140 the most promising and important solid-state electrolytes for batteries with potential benefits in en

141 the lithium-ion transport mechanism in solid electrolytes for batteries, not only the periodic lattic

142 ali (Li/Na/K) and multivalent (Mg, Zn)-based electrolytes for conventional "sealed" batteries and red

143 so highlight the recent progress in advanced electrolytes for EDLCs.

144 trochemical degradation of two solvent-based electrolytes for Mg-metal batteries is investigated thro

145 nal guidelines for the development of viable electrolytes for multivalent batteries and, more general

146 ) garnets are among the most promising solid electrolytes for next-generation all-solid-state Li-ion

147 amount of hydrodynamically coupled solvent (electrolyte) for the absolute particle coverage range up

148 approach of the tip to the electrode that is electrolyte-free and consequently also mediator-free.

149 .44]; P>0.99), and a significant increase in electrolyte-free water clearance at week 6 (mean differe

150 Here, we separate aqueous electrolyte from Zn anode by coating a thin MOF layer on

151 this work, we investigate solution processed Electrolyte Gated Organic Field Effect Transistors (EGOF

152 lab-on-a-chip device integrating a multigate electrolyte gated organic field-effect transistor (EGOFE

153 facing circuit to operate an ultra-sensitive electrolyte-gated field-effect transistor (EGOFET) as a

154 , we present a label-free sensor based on an Electrolyte-Gated Organic Field-Effect Transistor (EGOFE

155 rganic transistor is changed from that of an electrolyte-gated organic field-effect transistor (EGOFE

156 n extensively used for cell monitoring while Electrolyte-Gated Organic Field-Effect Transistors (EGOF

157 transport (i.e., nitrogen magneto-ionics) by electrolyte-gating of a CoN film.

158 s: thermally reversible porous electrode and electrolyte gels; conductive polymer and copper microwir

159 is reported that infusing garnet-type solid electrolytes (GSEs) with the air-stable electrolyte Li(3

160 Garnet-type electrolyte has been considered one of the most promisin

161 Highly alkaline electrolytes have been shown to improve the formation ra

162 For example, ether-based electrolytes have high ionic conductivity but are oxidat

163 whereby changes in bonding within the solid-electrolyte host framework modify the potential energy l

164 s as a high-performing single-ion conducting electrolyte in the presence of minimal plasticizer, with

165 ure, carbon host chemistry and porosity, and electrolytes in establishing the reversible potassium su

166 remendous attention for their roles as solid electrolytes in fuel cells.

167 Analyzing electrolytes in urine, such as sodium, potassium, calciu

168 Recently, the idea of a solid-electrolyte inductive effect has been proposed, whereby

169 Here, we consider the evidence for a solid-electrolyte inductive effect in the archetypal superioni

170 refore, a robust LiN(x) O(y) -LiF-rich solid electrolyte interface (SEI) is formed on the Li surface,

171 romising strategy to revolutionize the anode-electrolyte interface chemistry for SSLBs and provides a

172 electric double layer forms at the electrode/electrolyte interface due to the self-assembly of solven

173 t layer of water present at an aqueous metal-electrolyte interface has a dielectric constant less tha

174 d mechanical stability issues with the metal-electrolyte interface in solid-state lithium metal batte

175 n the formation of the microscopic electrode-electrolyte interface is used to determine the PZC.

176 the rate of charge transfer on the electrode/electrolyte interface.

177 version processes occurring at the electrode-electrolyte interface.

178 he electrolytes and the compatible electrode/electrolyte interfaces are highlighted.

179 in fuel cells and ion insertion at electrode/electrolyte interfaces in solid-state batteries.

180 ques have been designed to monitor electrode-electrolyte interfaces that mainly govern the lifetime a

181 sticity is overcome by incorporating a solid electrolyte interlayer, in this case, yttria-stabilized

182 ere, an ultraconformal and stretchable solid-electrolyte interphase (SEI) composed of parallelly stac

183 TFEP forms a ZnF(2) -Zn(3) (PO(4) )(2) solid electrolyte interphase (SEI) preventing Zn dendrite and

184 (15).5H(2)O, ZnSO(3), and ZnS enriched-solid electrolyte interphase (SEI) preventing Zn dendrite and

185 actions to form stable versus unstable solid electrolyte interphase (SEI), covering the current under

186 devoted to studying the nature of the solid-electrolyte interphase (SEI), little attention has been

187 able morphology and composition of the solid electrolyte interphase and extend the cycle life of the

188 ve but electron-insulating LPO-derived solid-electrolyte interphase between the Li metal and the GSE.

189 proach to create an artificial lithium metal/electrolyte interphase by treating the lithium anode wit

190 d, which uncovers the critical role of solid-electrolyte interphase in regulating the migration of Na

191 iation reaction after the formation of solid electrolyte interphase in the first deep lithiation, com

192 ights into this new type of liquid electrode/electrolyte interphase reveal its important role in regu

193 ytes, surface coatings that can form a solid electrolyte interphase with a high interfacial energy an

194 ropores of carbon matrix and sealed by solid electrolyte interphase, can operate under lean electroly

195 With such an artificial solid electrolyte interphase, lithium symmetrical cells show o

196 ion flux in the electrolyte and in the solid-electrolyte interphase, which allows uniform Li-ion dist

197 ich dictates the properties of the electrode/electrolyte interphases and thus the battery performance

198 e design of in situ formed, stable electrode/electrolyte interphases on both the Li anode and the LCO

199 and for the building of fluoridized cathode-electrolyte interphases, protecting both the electrolyte

200 better understand the carbon pore structure, electrolyte ion environment and ion fluxes in these conf

201 in polypeptides, and the extent to which the electrolyte ions are excluded from the bundle interior.

202 ng of transport and adsorption mechanisms of electrolyte ions in nanoporous electrodes under applied

203 >99.2% for Li plating/stripping in FEC-based electrolyte is achieved within 25 cycles.

204 A non-aqueous proton electrolyte is devised by dissolving H(3) PO(4) into ace

205 terphase between a liquid metal and a liquid electrolyte is directly visualized via advanced 3D chemi

206 on problem between the cathode and the solid electrolyte is overcome.

207 Functional electrolyte is the key to stabilize the highly reductive

208 We have known for decades that excretion of electrolytes is dependent on time of day, which could pl

209 ar, the kinetics of ion transport in organic electrolytes is slow, especially at low operating temper

210 owning, superoxide anion, hydrogen peroxide, electrolyte leakage and malondialdehyde content than con

211 he increased survival percentage and reduced electrolyte leakage exhibited by OsCAF1B overexpression

212 Here, measurement of electrolyte leakage to determine leaf freezing tolerance

213 Recently localized high-concentration electrolytes (LHCEs) are emerging as a promising electro

214 olid electrolytes (GSEs) with the air-stable electrolyte Li(3) PO(4) (LPO) dramatically reduces the i

215 rodes are coupled with a garnet-type ceramic electrolyte (Li(6.5) La(3) Zr(0.5) Ta(1.5) O(12) ) to fa

216 of approximately 10(10) MIEC cylinders/solid electrolyte/LiFePO(4)-shows a high capacity of about 164

217 interactions with the environment (support, electrolyte, ligands, adsorbates, reaction products, and

218 novel electrolytes such as superconcentrated electrolytes, localized high-concentration electrolytes,

219 lectrolyzer cells are limited by a dearth of electrolyte materials with low ohmic loss and an incompl

220 l cell microscopy (SECCM) in aprotic solvent electrolyte media to address contemporary structure-elec

221 bricated using H(3) PO(4) @COFs as the solid electrolyte membrane for proton exchange resulting in a

222 A nematic liquid crystalline electrolyte modifies the kinetics of electrodeposition b

223 Electrolyte modulation simultaneously suppresses polysul

224 tions, including advancements in solid-state electrolytes, multicomponent structures, and high-throug

225 The nacre-like ceramic/polymer electrolyte (NCPE) simultaneously possesses a much highe

226 The coated and infused LPO electrolytes not only improve the mechanical strength an

227 of different diameters and NaClO(4) support electrolyte of different concentrations were used to obt

228 The electrolyte of low viscosity allows practically useful c

229 Herein, a dual layer ceramic electrolyte of Ti-doped LLZTO(Ti-LLZTO)/LLZTO was develo

230 tammetry, amperometry, and FTIR with various electrolytes of varying concentrations, we were able to

231 cs, especially under high S loading and lean electrolyte operation, has been ignored, which dramatica

232 n these components provides a new example of electrolyte optimization for improved LMBs.

233 Without any material modifications or electrolyte optimizations, the gradient-tailored LLO wit

234 , and their attractive applications in solid electrolytes, opto-electronics, ferroeletrics, piezoelec

235 the requirement of toxic, flammable organic electrolytes or often costly ionic liquids.

236 ving Li(+) conductivity in composite polymer electrolytes owing to their ability to conduct Li(+) thr

237 ectrochemical methods were combined to study electrolyte oxidation and reduction at multiple cell vol

238 obalt centers, as this scenario would impair electrolyte permeation.

239 te within the stable potential window of the electrolyte, permitting a clearer understanding of the u

240 of a redox counter-reaction or conventional electrolyte, persistent faradaic current peaks dominate

241 Conversely, high-electrolyte pH (pH = 11) for flow-electrode led to ~74.8

242 s of phosphate ions are highly influenced by electrolyte pH, and it used experimental and modeling ap

243 0) and 1.25 V in ammonium hydrogen carbonate electrolyte (pH 8.0).

244 duction on copper in 7 M potassium hydroxide electrolyte (pH ~ 15) with an ethylene partial current d

245 The Zn(TFSI)(2) -TFEP@MOF electrolyte protected Zn anode enables a Zn||Ti cell to

246 When added into the electrolyte, protein molecules are automatically adsorbe

247 Water-in-salt (WiS) electrolytes provide a new pathway to widen the electroc

248 e and anode were separated by a porous solid electrolyte (PSE) layer, where electrochemically generat

249 es are then critically reviewed, emphasizing electrolyte reactions to form stable versus unstable sol

250 Super-concentrated "water-in-salt" electrolytes recently spurred resurgent interest for hig

251 te-based electrolytes, F K-edge to study the electrolyte salt and binder stability, and the transitio

252 any next-generation batteries are limited by electrolyte selection because high ionic conductivity an

253 A proton conducting solid electrolyte separates the channel and the reservoir.

254 cells based on pure ceramic and pure polymer electrolyte show poor cycle life.

255 ic polymer semiconductors interfaced with an electrolyte solution in a closed sandwich architecture i

256 dies at the interface between two immiscible electrolyte solutions (ITIES) are often performed to det

257 The interface between two immiscible electrolyte solutions (ITIES) is ideally suited to detec

258 electrodes in essentially any aprotic liquid electrolyte solvent.

259 ate batteries enabled by solid-state polymer electrolytes (SPEs) are under active consideration for t

260 Solid-state electrolytes (SSEs) as the most critical component in so

261 The discovery of new solid-state electrolytes (SSEs) can be guided by computation for nex

262 t discovery of highly conductive solid-state electrolytes (SSEs) has led to tremendous progress in th

263 As the key component in ASSLBs, solid-state electrolytes (SSEs) with non-flammability and good adapt

264 ion of high-rate (10 C, 16.7 mA cm(-2) ) and electrolyte-starved (4.7 muL mg(S) (-1) ) Li-S batteries

265 t can depend on molecular concentrations and electrolyte state of charge through, e.g., bimolecular d

266 Here we report a lithium-ion solid electrolyte substrate, demonstrating its application in

267 These strategies include the use of novel electrolytes such as superconcentrated electrolytes, loc

268 ell as their mixture with traditional liquid electrolytes, such as KHCO(3) solution.

269 ular, the required properties of the sulfide electrolytes, such as the electrochemical stabilities of

270 tration electrolytes, and highly fluorinated electrolytes, surface coatings that can form a solid ele

271 es an electrothermal fluid flow (ETF) in the electrolyte surrounding the electrode, thereby increasin

272 es and theoretical results in parallel, LLZO electrolyte synthesis strategies and modifications, stab

273 ergetic landscape of a heterogeneous polymer-electrolyte system and demonstrating how such coupling d

274 To formulate a functional electrolyte system that can stabilize the lithium-metal

275 rolytes, the current research realm of novel electrolyte systems has grown to unprecedented levels.

276 ,2,2-trifluoroethyl)phosphate (TFEP) organic electrolyte that is immiscible with aqueous Zn(TFSI)(2)

277 ver, it remains challenging to develop solid electrolytes that are both mechanically robust and stron

278 In an all-fluorinated organic lean electrolyte, the C/S cathode experiences a solid-state l

279 By adopting a Li anode and a Li-ion ceramic electrolyte, the corrosion problem between the cathode a

280 tween a typical solid electrode and a liquid electrolyte, the interphase between a liquid metal and a

281 ing to these unique advantages of the IC-WiS electrolyte, the NaTiOPO(4) anode and Prussian blue anal

282 solvent-in-salt electrolytes to solid-state electrolytes, the current research realm of novel electr

283 In a pure molten lithium carbonate electrolyte, thicker walled CNTs (100-160 nm diameter) a

284 r use of redox mediators dissolved in liquid electrolyte to conduct oxidation of the fuel or reductio

285 s at the interface between the electrode and electrolyte to facilitate charge transfer and mass trans

286 te a mechanism of using a liquid crystalline electrolyte to suppress dendrite growth with a lithium m

287 are bulky and difficult to miniaturize, leak electrolyte to the medium, lose the ability to define th

288 From superconcentrated solvent-in-salt electrolytes to solid-state electrolytes, the current re

289 e crystal of platinum in an aqueous alkaline electrolyte, to map out the detailed facet dependence of

290 ies to enhance ionic conductivities in solid electrolytes typically focus on the effects of modifying

291 In the nonbuffered electrolyte used (0.1 M Li(2)SO(4)), even at relatively

292 higher distribution of phosphate ions in the electrolyte versus on the flow-electrodes due to surface

293 activity at the electrode surface and in the electrolyte volume.

294 ough the nephron and into the renal medulla, electrolytes, water, and urea are reabsorbed through the

295 fundamental takeaway is that the incomplete electrolyte wetting of collectors results in early onset

296 e and combine the advantages of single-phase electrolytes, which have been widely investigated recent

297 standing oxygen-reduction activity in acidic electrolytes, which was further studied in proton-exchan

298 lity of the perovskite towards a solid-state electrolyte with electrochemical stability up to 5 V and

299 ed design of ceramic/polymer solid composite electrolytes with a "brick-and-mortar" microstructure is

300 urvey recent development of garnet-type LLZO electrolytes with discussions of experimental studies an

301 s using TiO(2-) (X) switching layers and YSZ electrolytes yield deterministic and linear analogue swi