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| $B@>B |
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| $B$3$NJ,N`$G$h$/;H$o$l(B $B$F$$$k%-!<%o!<%I(B | $B%-!<%o!<%I(B | $B | |
|---|---|---|---|
| Polymer Electrolyte Fuel Cell | 10$B7o(B | | |
| Fuel cell vehicle | 4$B7o(B | | |
| solid oxide fuel cell | 4$B7o(B | | |
| Electrolysis | 3$B7o(B | | |
| Gas Diffusion Layer | 2$B7o(B | | |
| Polymer Electrolyte Fuel Cells | 2$B7o(B | | |
| hydrogen | 2$B7o(B | | |
| Photovoltaic | 1$B7o(B | | |
| $B | $B9V1iBjL\!?H/I=| $B%-!<%o!<%I(B | $BH/I=7A<0(B | |
|---|---|---|---|
| 33 | $B8GBN9bJ,;R7AG3NAEECS$NB?9& | Polymer Electrolyte Fuel Cells Gas Diffusion Layer Compression | O |
| 60 | Ni/GDC$B$*$h$S(BNi/YSZ$BG3NA6K$r;HMQ$7$?%+!<%\%s6u5$Fs | Solid oxide fuel cell Secondary battery Electrolysis | O |
| 65 | $B8GBN9bJ,;R7AG3NAEECS$NB?9& | Polymer Electrolyte Fuel Cells Gas Diffusion Layer Microporous layer | O |
| 68 | $B%^%$%/%mGH2CG.$K$h$k%j%A%&%`%$%*%sEECSMQ(BNMC811$B@56K3hJ* | Microwave cathode material Lithium-ion battery | O |
| 70 | $B | Home Energy Simulation Energy Conservation | O |
| 103 | $B8GBN;@2=J*G3NAEECS(B/$BEE2r%;%k$NJq3gE*G3NA6KH?1~%b%G%k$NDs0F$HB?JQ?t%U%#%C%F%#%s%0 | Solid Oxide Fuel Cell Kinetics modeling Langmuir-Hinshelwood | O |
| 114 | [$B>7BT9V1i(B] $B=;BpMQB@M[8wH/EE$HC_EECS$NMx3hMQ$K$D$$$F(B | Residential photovoltaic After FIT Battery for VPP | O |
| 115 | [$B>7BT9V1i(B] $B9bJ,;R7??eEE2rAuCV$N3+H/(B | Water Electrolysis Hydrogen Renewable Energy | O |
| 118 | $B6Q0l$JO"DL%^%/%m9&9=B$$rM-$9$k%+!<%\%sEE6K$rMQ$$$k%l%I%C%/%9%U%m! | Redox flow battery Carbon porous electrode Macropore | O |
| 188 | $B0[$J$k;@AGG;EY2<$K$*$1$k%j%A%&%`%$%*%sEECSMQ(BNi-Mn-Co$B7O@56K3hJ* | Formation Behavior NMC Cathode Material Oxygen Concentrations | O |
| 192 | $B:F%(%MM3Mh?eAG%5%W%i%$%A%'!<%s$N%(%M%k%.!2A(B | FIT Graduation Photovoltaic Water Electrolysis Hydrogen | O |
| 203 | $B%"%k%+%j?eEE2rMQE47O;@AGH/@8?(G^$N3+H/(B | oxygen evolution reaction density functional theory alkaline water splitting | O |
| 286 | $B3$?eEE2r$K$h$k?eAG@=B$$K$*$1$kBP6KH?1~$N@)8f(B | Seawater electrolysis Hydorogen generation Chlorine | O |
| 383 | $BC1DLH?1~N($H%,%9N.$lJ}8~$,=[4DN.$l$rH<$&8GBN9bJ,;R7AG3NAEECS%7%9%F%`$K5Z$\$91F6A(B | polymer electrolyte fuel cell flow pattern one-pass conversion | O |
| 387 | PEFC$BJ,6K6J@~$N?(G^AX8|$50MB8@-$+$i$N%+%=!<%I;YG[0x;R7hDjK!(B | polymer electrolyte fuel cell analysis method dimensionless moduli | O |
| 396 | [$B>7BT9V1i(B] 2030$BG/0J9_$K8~$1$?(BFCV$B4XO"8&5f3+H/$K$*$1$k%A%c%l%s%8(B | Polymer electrolyte fuel cell Fuel cell vehicle | O |
| 398 | $B8GBN9bJ,;R7A?eEE2rMQ(BIr-Ru$B%J%NN3;RO"7k?(G^$N9=B$@)8f(B | Polymer electrolyte water electrolysis Connected nanoparticle catalysts Carbon free catalysts | O |
| 406 | [$B>7BT9V1i(B] $B>-Mh$NG3NAEECS3+H/$K8~$1$F!=(B2030$BG/$K8~$1$?2]Bj$H%A%c%l%s%8!=(B (Fuel Cell Commercialization Conference of Japan) $B!{|bLn(B $B=c!&(B | Polymer electrolyte fuel cell Fuel cell vehicle | O |
| 407 | Electrochemical performance of sulfur-based lithium batteries with free-standing SiO2/C composite nanofiber mat as interlayer | Multi-functional interlayer Sulfur-based cathode lithium batteries | O |
| 408 | [$B>7BT9V1i(B] $BG3NAEECS$N(B2030$BG/L\I8C#@.$X8~$1$F$N%"%W%m!<%A(B | Polymer electrolyte fuel cell Fuel cell vehicle | O |
| 410 | [$B>7BT9V1i(B] $B | Polymer electrolyte fuel cell Fuel cell vehicle | O |
| 411 | $B%"%$%*%N%^!<%U%j! | polymer electrolyte fuel cell oxygen reduction reaction platinum-sputtered electrode | O |
| 423 | Synthesis of C/Fe3O4 composite microspheres prepared by spray pyrolysis and their application to energy storage devices | C/Fe3O4 composite microspheres Spray pyrolysis Energy storage devices | O |
| 450 | BaZr0.8Y0.2O3-$B&D(B$B$*$h$S(BBaZr0.1Ce0.7Y0.1Yb0.1O3-$B&D(B$BEE2r | Solid oxide fuel cell Bilayer electrolyte Proton conduction | O |
| 536 | $B4D6-@-!&5;=Q7P:Q@-$K4p$E$/:F%(%MMxMQ5;=Q$NI>2A(B:$BC_EECS1gMQ?eAG@=B$$NNc(B | Electrolysis System design LCA(Life cycle assessment) | O |
| 573 | $B8GBN;@2=J*G3NAEECS$X$N%+!<%\%s%J%N%A%e!<%VD>@\@.D9$KBP$9$k%$%*%sEAF3@-;@2=J*$N1F6A(B | Solid oxide fuel cell Carbon nanotube oxide ion conductor | O |
| 622 | $BC_G.$K$h$kJQF0@-:F%(%M$N=PNOD4@0(B:$BIwNOG.H/EE$rF3F~$7$?A49q$N@=;f9)>l$N%i%$%U%5%$%/%kI>2A(B | Greenhouse gas emission Dispatchable power source Paper production | O |
| 683 | $BD>@\%.;@7AG3NAEECS$N3H;6AXJ*@-$,H/EEFC@-$K5Z$\$91F6A(B | DFAFC Mass transport Porous Electrode | O |
| 756 | Direct carbon dioxide methanation in a calcium looping process using Ni-CaO-Y doped BaZrO3 | CCU Ca looping Methanation | O |
| 757 | $B1UBNG3NAD>J.8GBN;@2=J*G3NAEECS$NG3NAD>J.8e$NEE0L5sF0$H%b%G%k$K$h$kEE6K3h@-$NI>2A(B | SOFC solid oxide fuel cell | O |
| 766 | $B4D6-29EY$KE,$7$?J];}29EY$r;}$D%P%$%*%^%9M3Mh@xG.C_G.:`$N9g@.(B | fatty acid ester latent heat storage bio-based | O |
| 794 | $B%9%1!<%i%V%k40A48IN)7OG3NAEECS$N8&5f3+H/(B | polymer electrolyte fuel cell Electrolysis | O |
| 818 | $BG3NAEECSGSG.MxMQ$r9MN8$7$?B@M[EECS$r4^$`J,;67??eAGC_%(%M%k%.!<%7%9%F%`$N@_7W(B | energy system fuel cell hydrogen | O |
| 840 | Effects of temperature and pressure on relative humidity distribution in PEFC | polymer electrolyte fuel cell high temperature and pressure water permeation | O |
| 872 | PEFC$BMQ9bBQ5W;@AG4T85?(G^$N$?$a$ND63J;R(BPt-Fe$B%J%NN3;RO"7k?(G^$N3+H/(B | Polymer Electrolyte Fuel Cell Chemically Ordered Structure Load Cycle Durability | O |
| 890 | $BEE6KAXFb$NN3;RJ,;6>uBV$,A48GBNEECSFC@-$K5Z$\$91F6A(B | All-solid state battery Numerical simulation particle dispersion | O |
(C) 2021 $B8x1W
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