$B$BHV9f(B | $B9V1iBjL\!?H/I=$B%-!<%o!<%I(B | $BH/I=7A<0(B | |
30 | $B?75,%;%k%G%6%$%s$K4p$E$/8GBN;@2=J*7AG3NAEECS$N5;=Q5Z$S7P:Q@-I>2A(B ($BElBg1!?7NN0h(B) ($B3X(B)$B!{M-2l(B $BMT2p(B$B!&(B ($B@5(B)$BBg@P(B $B=_Lp(B$B!&(B ($B@5(B)$BBgM'(B $B=g0lO:(B$B!&(B (JST$BDcC:AG%;(B) $B@>@n(B $B9@(B$B!&(B $B$B!&(B $BJF_7(B $BH~HA;R(B$B!&(B ($B@5(B)$B;3ED(B $B6=0l(B | solid oxide fuel cell metal-supported cell cost engineering
| P |
49 | $B8GBN;@2=J*7AG3NAEECS$N6bB0(B-$B%W%m%H%sEAF3BN3&LL$K$*$1$k?eAG3H;65!9=$N8!F$(B ($BElBg1!?7NN0h(B) ($B3X(B)$B!{ED=j(B $B^+(B$B!&(B ($B@5(B)$B>>Hx(B $BBs5*(B$B!&(B ($B@5(B)$BBgM'(B $B=g0lO:(B | SOFC proton conductor Hydrogen-permeable metal membrane
| P |
122 | $B9bJ,;REE2ro05$X$NF)2aB,Dj(B ($B%Q%J%=%K%C%/(B) ($B@5(B)$B!{OFED(B $B1Q1d(B$B!&(B $B@nH*(B $BFAI'(B$B!&(B $B2D;y(B $B9,=!(B | Polymer Electrolyte Membrane Water Permeation Hydraulic Pressure
| P |
128 | Effect of Co and Fe proportions on the performance of material Pr0.4Sr0.6Co0.9-xFexNb0.1O3-d as cathode for SOFCs ($B90A0Bg(B) ($B3X(B)$B!{(BXiaokaiti Pairuzha$B!&(B Yu Tao$B!&(B ($B@5(B)$B5HED(B $BZ|90(B$B!&(B ($B@5(B)$B0$I[(B $BN$Ds(B$B!&(B ($B@5(B)$B41(B $B9q@6(B$B!&(B ($B@D?98)9)Am8&(B) $B3k@>(B $BM5(B | SOFC perovskite oxide Performance
| P |
171 | $BCf29:nF07?G3NAEECSG3NA6K?(G^$N3+H/(B ($BElBg1!9)(B) ($B3X(B)$B!{EDEg(B $B@1Li(B$B!&(B ($B@5(B)$B>.NS(B $BLwOB(B$B!&(B ($B@5(B)$BB?ED(B $B>;J?(B$B!&(B ($B@5(B)$B5FCO(B $BN4;J(B$B!&(B $BBg;3(B $BLP@8(B | intermediate-temperature fuel cell phosphide electrode cesium dihydrogen phosphate
| P |
181 | Electrochemical Reaction of Ammonia Formation using Tungsten-Iron Catalyst with Proton-Conducting Solid Oxide Fuel Cell (U. Tokyo) ($B3$(B)$B!{M{(B $B7z5#(B$B!&(B ($B@5(B)$B>>Hx(B $BBs5*(B$B!&(B ($B@5(B)$BBgM'(B $B=g0lO:(B | Ammonia Electrosynthesis Iron Based Catalyst Electrochemical Promotion
| P |
189 | $B%"%k%+%jCf$G9b$$?eAGH/@8H?1~3h@-$r<($9%k%F%K%&%`7O%Z%m%V%9%+%$%H7??(G^(B ($BEl9)Bg2=@88&(B) ($B@5(B)$B!{?{86(B $BM&5.(B$B!&(B ($BEl9)Bg%U%m%s%F%#%"8&(B) $B3yED(B $B7D8c(B$B!&(B ($BEl9)Bg2=@88&(B) ($B@5(B)$B;38}(B $BLT1{(B | hydrogen evolution reaction perovskite electrocatalysis
| O |
930 | $BEE2r ($BElBg1!?7NN0h(B) ($B3X(B)$B!{>.>k(B $B85(B$B!&(B ($B@5(B)$B>>Hx(B $BBs5*(B$B!&(B ($BEl5~%,%9(B) ($B@5(B)$B>>:j(B $BNIM:(B$B!&(B ($BElBg1!?7NN0h(B) ($B@5(B)$BBgM'(B $B=g0lO:(B | proton conductor SOFC multilayered electrolyte
| P |
967 | $BHs?e7OMO1U$rMQ$$$?G;EY:9H/EE$N4pAC;n83(B ($BBg9)Bg9)(B) ($B3X(B)$B!{1sF#(B $BBgLo(B$B!&(B ($B3X(B)$B9bED(B $B>-@8(B$B!&(B ($B3X(B)$BCf3@(B $BM'M$(B$B!&(B ($B@5(B)$B5\K\(B $B6Q(B | Reverse Electrodialysis Nernst Potential Ion exchange membrane
| P |
971 | $BA48GBN(BLi$BEECSEE2r2S$B!&(B25P2S5$B%,%i%9%;%i%_%C%/%9$N9=B$@)8f$HJ#9g2=$N%$%*%sEAF3N($KBP$9$k1F6A(B ($BElBg1!?7NN0h(B) ($B3X(B)$B!{N&(B $BAB6M(B$B!&(B ($B;:Am8&(B) ($B@5(B)$B9b:d(B $BJ8I'(B$B!&(B ($BElBg1!?7NN0h(B) ($B@5(B)$BBgM'(B $B=g0lO:(B | composite solid electrolyte lithium ion battery glass-ceramics
| P |
988 | $B;0Ec<0%1%_%+%k%k!<%WG3>F%7%9%F%`$K$*$1$k(BCa$B2~2A5Z$S%7%9%F%`@_7W(B ($BElBg1!?7NN0h(B) ($B3X(B)$B!{>>86(B $B0l5/(B$B!&(B ($B3$(B)$B%1%i!<(B $B%^!<%A%s(B$B!&(B ($B@5(B)$BBgM'(B $B=g0lO:(B | Chemical-looping combustion Hydrogen production CO2 capture
| P |
998 | $B8GBN;@2=J*7AEE2r%;%k$G$N%a%?%sD>@\9g@.$rMxMQ$7$?(BPower to Gas$B%7%9%F%`$N8!F$(B ($BElBg1!9)(B) ($B3X(B)$B!{F#86(B $BD>Li(B$B!&(B ($B@5(B)$BB?ED(B $B>;J?(B$B!&(B ($B@5(B)$B>.NS(B $BLwOB(B$B!&(B ($B6eBg1!9)(B) ($B@5(B)$B9b3@(B $BFX(B$B!&(B ($BElBg1!9)(B) ($B@5(B)$B5FCO(B $BN4;J(B$B!&(B $BBg;3(B $BLP@8(B | SOEC methane power-to-gas
| P |
1000 | $B9bIi2YDI=>@-$H9bMxMQN($NN>N)$rL\;X$7$?1UBND>J.8GBN;@2=J*G3NAEECS$NH/EEFC@-(B ($BEl9)Bg1~2=(B) ($B3X(B)$B!{HSED(B $BM:B@(B$B!&(B ($B3X(B)$B55ED(B $B7CM$(B$B!&(B ($B@5(B)$BD9C+@n(B $B3>(B$B!&(B ($B@5(B)$B0K86(B $B3X(B | SOFC hydrocarbon fuel fuel cell
| O |
1007 | $B%+!<%\%s6u5$Fs ($BEl9)Bg1~2=(B) ($B3X(B)$B!{55ED(B $B7CM$(B$B!&(B ($B3X(B)$BHSED(B $BM:B@(B$B!&(B ($B3X(B)$B:YED(B $BK|5H(B$B!&(B ($B3X(B)$B>>J?(B $BC#:H(B$B!&(B ($B@5(B)$BD9C+@n(B $B3>(B$B!&(B ($B@5(B)$B0K86(B $B3X(B | Solid oxide fuel cell Secondary battery CO2 electrolysis
| P |
1030 | KOH$BIj3h=hM}EE6K$rMQ$$$?%l%I%C%/%9%U%m!2A(B ($B72Bg1!M}9)(B) ($B3X(B)$B!{Bg>l(B $B982p(B$B!&(B ($B@5(B)$B@PHt(B $B9(OB(B$B!&(B ($BNL8&9b:j(B) $B;3K\(B $B=ULi(B$B!&(B ($B72Bg1!M}9)(B) ($B@5(B)$BCf@n(B $B?B9%(B | redox flow battery KOH activation treatment active sites
| P |
1031 | $B4T85;@2=%0%i%U%'%s(B-TiO2$BJ#9gC4BN$rMQ$$$?%a%?%N!<%k;@2=?(G^$N3+H/(B ($B72Bg1!M}9)(B) ($B3X(B)$B!{@DLZ(B $BBsLi(B$B!&(B ($B@5(B)$B@PHt(B $B9(OB(B$B!&(B ($B@5(B)$BCf@n(B $B?B9%(B | graphene oxide fuel cell electrocatalyst
| P |
1041 | $BD>@\%a%?%N!<%kG3NAEECSMQ;@2=%0%i%U%'%sEE2r ($B72Bg1!M}9)(B) ($B3X(B)$B!{L\9u(B $BNCB@(B$B!&(B ($B@5(B)$B@PHt(B $B9(OB(B$B!&(B ($B@5(B)$BCf@n(B $B?B9%(B | graphene oxide fuel cell electrolyte membrane
| P |
1044 | Electrochemical Passivation of Nano-Porous Silicon Solar Cell (Tokyo Tech) ($B3X(B)$B!{(BSundarapura Panus$B!&(B ($B@5(B)Zhang Xiaomei$B!&(B ($B@5(B)Hasegawa Kei$B!&(B ($B@5(B)Ihara Manabu | Porous Silicon Electrochemical Passivation Solar Cell
| P |
1045 | $BB@M[EECS$r4^$`J,;6%0%j%C%I$K$*$1$k7OE}D4@0NO$H$7$F$N?eAG%(%M%k%.!<5;=Q!&7P:QI>2A(B ($BEl9)Bg9)(B) ($B3X(B)$B!{J?86(B $B;K?r(B$B!&(B ($BEl9)Bg1~2=(B) ($B3X(B)$BBg5WJ](B $BC$:H(B$B!&(B ($B@5(B)$BD9C+@n(B $B3>(B$B!&(B ($B@5(B)$B0K86(B $B3X(B | energy strage distributed energy system solar cell
| P |
1083 | Investigation of Si/TiO2/Perovskite interfaces for tandem solar cells (Tokyo Tech) ($B3X(B)$B!{(BBudiutama Gekko Patria$B!&(B ($B3X(B)Suzuki Kazuma$B!&(B ($B3X(B)Nukunudompanich Methawee$B!&(B ($B@5(B)Hasegawa Kei$B!&(B ($B@5(B)Zhang Xiaomei$B!&(B ($B@5(B)Ihara Manabu | tandem solar cell perovskite silicon
| P |
1085 | $B@V30J,8wK!$rMQ$$$?%"%s%b%K%"EE2r9g@.$K$*$1$kI>2A ($BElBg1!?7NN0h(B) ($B3X(B)$B!{D9C+@n(B $BBnMx(B$B!&(B ($B3X(B)$BM{(B $B7z5#(B$B!&(B ($B@5(B)$B>>Hx(B $BBs5*(B$B!&(B ($B@5(B)$BBgM'(B $B=g0lO:(B | ammonia electrochemical synthesis infrared spectroscopy proton conducting solid electrolyte fuel cells
| P |
1174 | CO2 activation via rWGS redox cycling - exploiting phase changes or oxygen nonstoichiometry? (U. Tokyo) ($B3$(B)$B!{(BKeller Martin$B!&(B ($B@5(B)Otomo Junichiro | CO2 activation Reverse water gas shift Fluidized bed
| O |
1182 | $BM-5!J*$rMQ$$$?%l%I%C%/%9%U%m! ($B@.l~BgM}9)(B) ($B3X(B)$B!{9a$B!&(B ($B@5(B)$BNkLZ(B $B@?0l(B$B!&(B $B?{86(B $B0l51(B$B!&(B $B2CF#(B $BLP(B | organic redox battery
| P |
1194 | Pt-Fe$B%J%NN3;RO"7k?(G^$rMQ$$$?(BPEFC$B%+%=!<%IFb$N?e0\F0FC@-8~>e$X8~$1$?EE6K9=B$@)8f(B ($BEl9)Bg2=@88&(B) ($B3X(B)$B!{@P@n(B $Bf{2p(B$B!&(B (KISTEC/$BEl9)Bg2=@88&(B) ($B@5(B)$B9uLZ(B $B=(5-(B$B!&(B ($BEl9)Bg2=@88&(B/KISTEC) ($B@5(B)$BED4,(B $B9'7I(B$B!&(B ($B@5(B)$B;38}(B $BLT1{(B | Carbon free Polymer electrolyte fuel cell Membrane electrode assembly
| P |
1220 | $B%J%N%l%Y%k$G9S$5@)8f$7$?2xCe$G:n@=$7$?%&%'%O!<5i$NB@M[EECSMQGvAX(BSi ($BEl9)Bg1~2=(B) ($B@5(B)$B!{D9C+@n(B $B3>(B$B!&(B ($B3X(B)$B$B!&(B $B>>1:(B $BL@(B$B!&(B ($BEl9)Bg2=3X(B) $B9b_7(B $B@iL@(B$B!&(B (INSA de Lyon) Fave Alain$B!&(B Fourmond Erwann$B!&(B ($BAaBg@h?JM}9)(B) ($B@5(B)$BLnED(B $BM%(B$B!&(B ($BEl9)Bg1~2=(B) ($B@5(B)$B0K86(B $B3X(B | solar cell epitaxial growth monocrystallyne silicon
| O |
1228 | PEFC$BMQ9b%9%k%[%s;@4pL)EY%"%$%*%N%^!<=2A(B ($BEl9)Bg2=@88&(B) ($B3X(B)$B!{>.:d(B $B7CL4(B$B!&(B ($B@5(B)$BBg$B!&(B ($B@5(B)$B;38}(B $BLT1{(B | Polymer electrolyte fuel cell Pore-filling membrane Low EW perfluorosulfonic acid polymer
| P |
1245 | PEFC$B;@AG4T85H?1~B.EY$N;@AGJ,050MB8@-%G!<%?$rMQ$$$?%;%k@-G=$NM=B,(B ($B5~Bg9)(B) ($B@5(B)$B!{1F;3(B $BH~HA(B$B!&(B ($B@5(B)$B;38}(B $BOB9((B$B!&(B ($B@5(B)$B2O@%(B $B85L@(B | polymer electrolyte fuel cell oxygen partial pressure cell performance
| O |
1246 | 2$BAXB?9&2A(B ($BEl9)Bg1~2=(B) ($B3X(B)$B!{$B!&(B ($B@5(B)$BD9C+@n(B $B3>(B$B!&(B (INSA Lyon) Alain Fave$B!&(B Erwann Fourmond$B!&(B ($BAaBg@h?JM}9)(B) ($B@5(B)$BLnED(B $BM%(B$B!&(B ($BEl9)Bg1~2=(B) ($B@5(B)$B0K86(B $B3X(B | solar cell Si film Electric characterization
| P |
1256 | Numerical investigation of inter-particle resistance of solid state batteries and its design implications (NIMS) ($B@5(B)$B!{(BJaved Baber$B!&(B ($B@5(B)Koyama Michihisa | Solid state batteries surface coating interfacial resistance
| O |
1270 | $B (NIMS) ($B@5(B)$B!{0B5W(B $B3(N$;R(B$B!&(B ($B@5(B)$B8E;3(B $BDL5W(B | micro-grid cost minimization energy system
| O |
1316 | Fabrication and characterization of electrochemical capacitor electrodes using reduced graphene oxide composites ($B@EBg1!AOB$(B) ($B3X(B)$B!{(BMa Jiaojiao$B!&(B ($B@5(B)$B9&(B $B>;0l(B | reduced graphene oxide supercapacitor characterization
| P |
1328 | MgH2-$B%+!<%\%s%J%N%A%e!<%VJ#9gBN$N?eAGCyB"FC@-(B ($BAaBg@h?JM}9)(B) ($B3X(B)$B!{3a86(B $B9/Je(B$B!&(B ($BAaBg9bEy8&(B) ($B@5(B)$B?yL\(B $B91;V(B$B!&(B ($BAaBg@h?JM}9)(B) ($B@5(B)$BLnED(B $BM%(B$B!&(B ($B@5(B)$B2VED(B $B?.;R(B | hydrogen storage magesium hydride carbon nanotubes
| P |
1358 | $B%+!<%\%s%"%m%$?(G^$rMQ$$$?9bJ,;REE2r ($BEl9)Bg2=@88&(B) ($B3X(B)$B!{;3yu(B $B7r51(B$B!&(B ($BEl9)Bg2=@88&(B/JST-CREST) ($B@5(B)$BBg$B!&(B (KISTEC/$BEl9)Bg2=@88&(B) ($B@5(B)$B9uLZ(B $B=(5-(B$B!&(B ($BEl9)Bg2=@88&(B/JST-CREST) ($B@5(B)$B5\@>(B $B>-;K(B$B!&(B ($B@5(B)$B;38}(B $BLT1{(B | carbon alloy catalysts polymer electrolyte fuel cells hybrid fuel cells
| P |
1359 | $B1UBN%"%s%b%K%"$NEE5$J,2r$K$h$k?eAG@8@.$N$?$a$N%"%N!<%I?(G^$NC5:w(B ($BAaBg@h?JM}9)(B) ($B3X(B)$B!{@VLZ(B $B2FHA(B$B!&(B ($B3X(B)$BKY(B $B7=M$(B$B!&(B ($BAaBg9bEy8&(B) ($B@5(B)$B?yL\(B $B91;V(B$B!&(B ($BAaBg@h?JM}9)(B) ($B@5(B)$BLnED(B $BM%(B$B!&(B ($B@5(B)$B2VED(B $B?.;R(B | liquid ammonia electrolysis hydrogen production
| P |
1413 | $B?(G^AXCf$G%3%"%7%'%k2=H?1~$r9T$&(BPEFC$BMQEE6K?75,:n@=K!$K$*$1$kGr6b@O=P5sF0(B ($B?.=#BgA!(B) ($B@5(B)$B!{J!D9(B $BGn(B$B!&(B ($B?.=#Bg1!AmM}9)(B) ($B3X(B)$BDT(B $B2mJ](B$B!&(B ($B?.=#BgA!(B) $BBlK\(B $BBgM5(B$B!&(B $B?yK\(B $B>D(B | polymer electrolyte fuel cell underpotential deposition Core-shell catalyst
| O |