SCEJ

SCEJ 81st Annual Meeting (2016)

Session programs

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Poster session 3PM -Fundamental properties, Fluid and particle processing, Energy engineering-

ZAP301-ZAP361, ZBP301-ZBP320, ZCP301-ZCP319

Most recent update: 2016-02-26 18:17:04
Abstract is now open! Click Paper ID.
TimePaper
ID		Title / AuthorsKeywordsTopic codeAck.
number
Hall ZA, Day 3
13:20– 15:20ZAP301Density, Viscosity and Electrical Conductivity of Protonic Amidium Ionic Liquids
(Nihon U.) *Watanabe M., Kodama D., (AIST) Makino T., Kanakubo M.
ionic liquid
density
transport property
1-a125
13:20– 15:20ZAP302Prediction of surface tension of heavy oil on the basis of the principle of corresponding states
(Tohoku U.) *Mukawa Yuichi, Tsujimura Sho, Yamagiwa Koshiro, Kubo Masaki, Tsukada Takao, (JPEC) Teratani Shogo
surface tension
heavy oil
principle of corresponding states
1-a263
13:20– 15:20ZAP303LLE of heptafluorocyclopentane + n-alkane + alcohol system.
(TDU) *Nagata Shinpei, Kimura Fumio, Ogawa Hideo
Liquid Liquid Equilibrium
Ternary mixture
Fluorinated alkane
1-a208
13:20– 15:20ZAP304Solubility and diffusion coefficient of supercritical-CO2 and N2 in poly(methyl methacrylate)
(Hiroshima U.) *Hayashi Souta, Haruki Masashi, Kihara Shin-ichi, Takishima Shigeki
Poly(methyl methacrylate)
Solubility
diffusion
1-a824
13:20– 15:20ZAP305Stability of chitosan hydrogel beads impregnated with magnetic Fe nanoparticles
(Tokyo Tech) *Le Q. H., Shimoyama Y.
chitosan hydrogel
stability of hydrogel bead
magnetic nanoparticle
1-d643
13:20– 15:20ZAP306The correlation of the critical micellar concentration with Hansen solubility parameter in some organic solvents
(Kansai U.) *Nisimura H., Yamamoto H.
Hansen solubility parameter
non-ionic surfactant
critical micellar concentration
1-e194
13:20– 15:20ZAP307Effects of channel geometries on flow characteristics of hyaluronate solutions through micro abrupt contraction-expansion channels
(Kobe U.) *Oka Taiki, Hidema Ruri, Suzuki Hiroshi, Komoda Yoshiyuki
Micro channel
Hyaluronate solution
Elastic instability
2-a399
13:20– 15:20ZAP308Elucidation of unsteady flows in a mixing and reaction process between an aqueous polymer solution and a metal ion
(TUAT) *Tagawa Satoshi, (Nihon U.) Iijima Jun, (TUAT) Nagatsu Yuichiro
reacting flow
polymer solution
Weissenberg effect
2-a932
13:20– 15:20ZAP309Influence of back pressure on particle circulation by a loop seal
(Gunma U.) *Uehara T., Noda R.
back pressure
loop seal
fluidized bed
2-c294
13:20– 15:20ZAP310Effect of fraction characterization on phase equilibrium calculation for heavy oil systems
(Tohoku U.) *Iwasaki Ryosuke, Abe Kohei, Ota Masaki, Sato Yoshiyuki, Inomata Hiroshi
phase equilibrium
heavy oil
characterization
1-a789
13:20– 15:20ZAP311Decreasing nano surface roughness of double layer porous Si for monocrystalline thin film Si solar cell by lift-off
(Tokyo Tech) *Takazawa C., (JST) Lukianov A., (Tokyo Tech) Murakami K., Ihara M.
solar cell
porous Si
zone-melting method
9-e775
13:20– 15:20ZAP312Numerical analysis of resistant force for the planar elongation flow between pushing bullet bob and cup
(NITech) *Kubota Wataru, Iwata Shuichi, Mori Hideki, Nagumo Ryo, (Nagaoka U. Tech.) Takahashi Tsutomu
rheology
planar elongation flow
viscoelastic fluid
2-a246
13:20– 15:20ZAP313Shape Changes in Water of Flowing-down Highly Viscous Fluid
(Fukuoka U.) *Awakihara Hideyuki, Uchiyama Hiroki, Matsukuma Yosuke
IGCC
Slag
Highly viscous fluid
2-a343
13:20– 15:20ZAP314Calculation of Na parameters in organic salts by the Hansen solubility sphere method
(Kansai U.) *Agata Y., Yamamoto H.
Hansen solubility parameter
van Kreveren & Hoftyzer method
Na
1-e196
13:20– 15:20ZAP315Extensional viscosity of polyethyleneoxide solutions affected by capillary breakup behaviors
(Kobe U.) *Mitani Shohei, Hidema Ruri, Suzuki Hiroshi, Komoda Yoshiyuki
PEO solution
Extensional viscosity
CaBER
2-a415
13:20– 15:20ZAP316Comminution and Dispersion Behavior of the Micro Particles in Stirred Tank
(Tokyo U. Sci) *Inoue Daisuke, Naya Masakazu, Shimada Yuichiro, Otake Katsuto, Shono Atsushi
dispersion
mixing
comminution
2-b570
13:20– 15:20ZAP317In situ fabrication of multi-layered hydrogels using a spray atomizer
(U. Tokyo) Zheng Y. G., Ohta S., *Ito T.
spray coating
hydrogel
multilayer
2-b509
13:20– 15:20ZAP318Development of CNTs-coated fluidized particle for fluidized catalytic NH3 decomposition
(Gunma U.) *Wanibuchi K., Noda R.
NH3 decomposition
CNTs
fluidized-bed CVD
2-c539
13:20– 15:20ZAP319Consideration of thinning each layer of the top cell for high efficiency perovskite/Si tandem solar cell
(Tokyo Tech) *Suzuki K., Zhang X., Murakami K., Ihara M.
Solar cell
Perovskite
Tandem
9-e782
13:20– 15:20ZAP320Visualization analysis of the flow around a single bubble rising in a 2D bubble column
(Doshisha U.) *Umemura N., Mori Yasushige, Tsuchiya Katsumi
2D confinement
Shear stress
Aero-scrubbing
2-d911
13:20– 15:20ZAP321Solubility evaluation of the copper complex the organic solvents by Hansen solubility parameter.
(Kansai U.) *Takemoto S., Yamamoto H.
Hansen solubility parameter
Copper complex
Solubility evaluatoin
1-e198
13:20– 15:20ZAP322Relationship between interference patterns of polymer-added two-dimensional turbulence and turbulent statistics of the flow
(Kobe U.) *Murao Ikumi, Hidema Ruri, Suzuki Hiroshi, Komoda Yoshiyuki
Two-dimensional turbulence
Interference pattern
Turbulent statistics
2-a429
13:20– 15:20ZAP323Droplet permeation into porous medium with a geometric shape
(Fukuoka U.) *Tsuchida Masato, Uchiyama Hiroki, Matsukuma Yosuke
Lattice Boltzmann Method
Porous Medium
Highly viscous fluid
2-a344
13:20– 15:20ZAP324Temperature homogeneity and heat transfer characteristics in a heating and mixing simultaneous operation of starch syrup heated by blade with induction heating.
(Fukui U. Tech.) *Shimada Y., Takehara H., (Kansai Electric Power Co., Inc.) Nakao N., (Fukui U. Tech.) Nakao K.
Induction Heating
Mixing Blade
Fluid Heating
2-b447
13:20– 15:20ZAP325Effect of Liquid Height on Power Consumption of Two-Blade Wide Paddle Impeller
(NITech) *Yasui Nobuhiro, Kato Yoshihito, Furukawa Haruki, Tada Yutaka
Mixing
Power Consumption
Wide Paddle Impeller
2-b9
13:20– 15:20ZAP326CeO2 embedded carbon nanofiber support used for methanol oxidation electrode
(Gunma U.) *Kunitomo Hikari, Ishitobi Hirokazu, Nakagawa Nobuyoshi
Direct methanol fuel cell
CeO2
Catalst support
9-e274
13:20– 15:20ZAP327Influences of surfactant on bubble-induced surrounding liquid motions and instantaneous mass transfer
(Shizuoka U.) *Iburi Y., Saito T.
Multiphase flow
Bubble
Mass transfer
2-e182
13:20– 15:20ZAP328Evaluation of Conductivity and Application to SOFC of K2NiF4 type SrPrAlO4
(Tokyo Tech) *Kurahashi Y., Li X., Ihara M.
SOFC
proton conductor
Ruddelesden-Popper structure
9-e856
13:20– 15:20ZAP329Development of new latent heat transport materials with hydrophobic gel
(Kobe U.) *Inoue K., Suzuki H., Hidema R., Komoda Y.
latent heat
hydrophobic gel
dispersion
2-a449
13:20– 15:20ZAP330Estimation of power number of combined fractal shaped impeller using modified drag coefficient
(Fukuoka U.) *Tomoda K., Kanai Y., Suzukawa K.
Fractal shaped impeller
Power number
Modified drag coefficient
2-b646
13:20– 15:20ZAP331Streak Line of Non-Newtonian Fluid with Large Paddle Impeller
(NITech) *Nakamaru Shingo, Kato Yoshihito, Furukawa Haruki, Tada Yutaka
Mixing
Large Paddle Impeller
Non-Newtonian Fluid
2-b7
13:20– 15:20ZAP332Large Eddy Simulation of Breakup and Evaporation Characteristics in High-Pressure Pulse Spray
(Tohoku U.) *Sugawara Shota, Yokoi Satoki, Saito Yasuhiro, Matsushita Yohsuke, Aoki Hideyuki
spray combustion
evaporation
breakup
2-e302
13:20– 15:20ZAP333Dispersed phase modeling for the numerical prediction of spilled oil and gas behavior from deep water
(Osaka U.) *Ochi Tatsuya, Takagi Youhei, Okano Yasunori, Kato Naomi
oil and gas spill
deep water
numerical simulation
2-e394
13:20– 15:20ZAP334Molecular dynamics simulation for a fine-bubble in liquid Argon
(U. Hyogo) *Kisa Yuto, Itoh Kazuhiro, Yamamoto Takuji, Maeda Kouji
Fine-bubble
Molecular dynamics
Young-Laplace equation
2-e397
13:20– 15:20ZAP335The dynamics of falling drop impact on an immiscible fluid layer
(Tokushima U.) *Morishita T., Ohta M., (Florida State U.) Sussman M.
Drop impact
Three-fluid flow
CFD
2-e567
13:20– 15:20ZAP336Hydrogenation liquid fuel conversion process from biomass tar
(Gunma U.) *Kobayashi H., Noda R., (KINSEI SANGYO) Hoshino T., Kaneko K.
Hydrogenated gasification
Biomass tar
Liquid fuel
9-c301
13:20– 15:20ZAP337The relatives between physical properties of proton conductor oxide and electrode performances by adding materials to anode on solid oxide fuel cells
(Tokyo Tech) *Shimamura R., Li X., Izumi T., Ihara M.
solid oxide fuel cell
proton conductor
power generation
9-e969
13:20– 15:20ZAP338Effect of shear-rate distribution on shear-induced aggregation of particles in a stirred tank
(Kobe U.) *Tsuda Kazuto, Matsui Keisuke, Masuda Hayato, Komoda Yoshiyuki, Ohmura Naoto
shear
aggregation
2-b857
13:20– 15:20ZAP339Power Consumption and Mass Transfer of High Viscosity Liquid in Gas-Liquid Mixing Vessel with Large Paddle Impeller
(NITech) *Kamiya Masataka, (Daicel) Haitsuka Masahiro, Kamei Noboru, (NITech) Kato Yoshihito, Furukawa Haruki, Tada Yutaka
Mixing
Gas-Liquid Mixing
Large Paddle Impeller
2-b13
13:20– 15:20ZAP340Motion of a single bubble rising in a highly viscous fluid
(Saitama U.) *Yoshikawa Tamaki, Homma Shunji, Koga Jiro
bubble
Front-Tracking
Numerical Simulation
2-e475
13:20– 15:20ZAP341(withdrawn)

100967
13:20– 15:20ZAP342Novel giant vesicle manufacturing and release control of encapsulated liquid
(Keio U.) *Nagasuna Y., Terasaka K., Fujioka S.
vesicle
encapsulated
control
2-e265
13:20– 15:20ZAP343Deformation of self-organized structure by turbulent vortices in functional material production process using phase separation
(Osaka U.) *Okamoto Sachiya, Takagi Youhei, Okano Yasunori
Turbulence
Spinodal Decomposition
Numerical Analysis
2-e537
13:20– 15:20ZAP344Analysis of fuel cell catalysts by a chemisorption/desorption method
(Gunma U.) *Yamaguchi Ryo, Yamamori Shota, Takeuchi Taizo, Ishitobi Hirokazu, Nakagawa Nobuyoshi
fuel cell catalyst
chemisorption
methanol oxidation
9-e339
13:20– 15:20ZAP345Interaction among bubbles, particles and liquid motion during transit period of the amplitude modulation in 20-kHz-order ultrasound particle separation technique
(Shizuoka U.) *Muramatsu Hiroya, Nomata Koji, Yanai Sayuri, (Shizuoka U. RIGST) Saito Takayuki
Acoustic Cavitation-Oriented Bubbles
Visualization
Particle separation
2-e355
13:20– 15:20ZAP346Change of Power Consumption by Impeller Position in Laminar Region
(NITech) *Otani Shota, Kato Yoshihito, Furukawa Haruki, Tada Yutaka
Mixing
Power consumption
Impeller position
2-b14
13:20– 15:20ZAP347Application on a Rotationally Reciprocating Impeller on Reactive crystallization process
(Kobe U.) *Date Tomoya, Komoda Yoshiyuki, Suzuki Hiroshi, Hidema Ruri
Aspect ratio
Rotationally Reciprocating Impeller
Particle siza
2-b462
13:20– 15:20ZAP348Determination method of friction coefficient of particles at DEM simulation
(Tohoku U.) *Soekawa Souhei, Ishihara Shingo, Kano Junya
DEM
simulation
friction coefficient
2-f437
13:20– 15:20ZAP349Preparation of spherical porous particle/silica nanoparticle composites and their drying properties
(Yokohama Nat. U.) *Hayakawa Masahiro, Iijima Motoyuki, Tatami Junichi, (Lion) Sato Masayuki, Kakizawa Yasushi, Hiroshima Shunsuke, Koide Misao
Composite particle
Porous particle
Drying
2-f757
13:20– 15:20ZAP350Effect of Adsorbed Amount of Ionomer on the Microstructure of PEFC Electrode
(Hosei U.) *Moriyama Shohei, Mori Takamasa
fuel cell
slurry
adsorption
2-f245
13:20– 15:20ZAP351Optimum Design and Computer Simulation of Dry Impact Ultra High-Speed Pulverizer for Prevention of Temperature Elevation
(Osaka Pref. U.) *Matsuda Yu, Nakamura Hideya, Watano Satoru
Numerical simulation
CFD
Pulverizer
2-f660
13:20– 15:20ZAP352Behavior of the silica particles in the vicinity of the solid substrate in the liquid phase
(Yamagata U.) *Suzuki Kazuho, Noji Daisuke, Shishido Masahiro
colloid
solid-liquid interface
particle-substrate interaction
2-g830
13:20– 15:20ZAP353Power generation characteristics of a direct methanol fuel cell using novel nanofiber catalyst
(Gunma U.) *Tsukagoshi Yosuke, Ishitobi Hirokazu, Nakagawa Nobuyoshi
Direct methanol fuel cell
TiO2 embedded carbon nanofiber support
Catalyst layer
9-e290
13:20– 15:20ZAP354Metzner-Otto Constant of Paddle Impeller with Two Large Blades in Shear Thinning Fluid
(NITech) Furukawa H., *Nakamura N., Kato Y., Tada Y.
Mixing
Metzner-Otto constant
Shear thinning fluid
2-b16
13:20– 15:20ZAP355Studies on reduction of membrane fouling using fine bubbles and clarification of the mechanisms
(Kobe U./MaF Tech Center) *Matsuyama Kazufumi, Takahashi Tomoki, Miyoshi Taro, Yasukawa Masahiro, Watabe Tomoichi, Matsuyama Hideto
fine bubble
microbubble
membrane fouling
2-d405
13:20– 15:20ZAP356Dispersion and aggregation state evaluation of nanoparticle slurry by osmotic pressure measurement
(Hosei U.) *Mori Tomoki, Muramatu Takuya, Mori Takamasa
nanoparticle
slurry
osmotic pressure
2-g372
13:20– 15:20ZAP357Improvement of Solid Oxide Fuel Cell (SOFC) with active layer of nano particles by pulsed laser deposition (PLD)
(Osaka Pref. U.) *Tajima Soichiro, Fujita Takahiro, Tsukui Shigeki, Adachi Motoaki, (TMCIT) Yoshida Kenichi, (NORITAKE CO., LIMITED) Mukai Takehito
Solid Oxide Fuel Cell
pulsed laser deposition
nano particles
9-a303
13:20– 15:20ZAP358The effect of surface condition of core material on the heat storage property of ceramic core-shell structure heat storage body
(Nagoya U.) *Nagaoka Sakiko, Kita Hideki, Yamashita Seiji
heat storage
ceramic core-shell structure
metal
9-b940
13:20– 15:20ZAP359Change in the hydration reactivity of calcium chloride by support composite
(Tokyo Tech) *Terauchi Takayuki, Iguchi Hiroshi, Kariya Jun, (Functional Fluids) Fujioka Keiko, (Tokyo Tech) Kato Yukitaka
Thermochemical energy storage
Calcium chloride
Expanded graphite
9-b680
13:20– 15:20ZAP360Numerical Analysis of Heat Recovery using the CaO/CaCO3 Chemical Heat Storage Device
(Yokohama Nat. U.) *Takeshima T., Kurihara S., Aihara M.
chemical heat storage
CaO/CaCO3 system
numerical analysis
9-b707
13:20– 15:20ZAP361Evaluation of clay catalysts for biomass fluid catalytic cracking gasification
(Gunma U.) *Sun Yan, Noda Reiji
biomass
clay catalysts
fluid catalytic cracking gasification
9-c373
Hall ZB, Day 3
13:20– 15:20ZBP301Visualization of Oxygen Absorption at Surrounding Area of Dispersed Bubbles and Free Surface in Aeration Tank.
(Sanki Eng.) *Shibata Kazue, (Keio U.) Terasaka Koichi, Fujioka Satoko
mass transfer
bubble
free surface
2-d119
13:20– 15:20ZBP302Bubble Breakup Model and Estimation Method for Bubble Size Distribution in Aerated Stirred Tank
(Keio U.) *Fujioka Satoko, Tsuji Taisuke, Terasaka Koichi, (Kaneka) Tanaka Kohsuke
stirred tank
bubble breakup
bubble diameter
2-e218
13:20– 15:20ZBP303Influences of water addition on low temperature oxidation of a brown coal
(Gunma U.) *Nagatomo K., Kannari N., Takarada T., (Kobe steel,Ltd) Hamaguti M., Furuya A., (KOBELCO Res. Inst., INC.) Inoue T.
low temperature oxdation
brown coal
Spontaneous combustion
9-c975
13:20– 15:20ZBP304Optimization of recovering condition for recycling carbon fiber from CFRP
(Gifu U.) *Shimizu M., Moritomi H., Kumabe K., (CFRI) Itazu H.
CFRP
Carbon fiber
Recycling
9-c330
13:20– 15:20ZBP305In-situ catalytic upgrading of bio-oil using β-cyclodextrin-assisting prepared Cu/KIT-6 catalyst
(Hirosaki U.) *Surachai Karnjanakom, Asep Bayu, (Hirosaki U. NJRISE) Guoqing Guan, Abuliti Abudula
Catalytic upgrading
Cu/KIT-6-CD
Bio-oil
9-c231
13:20– 15:20ZBP306Investigation of reactivity of coal in a downer pyrolyzer with heat carrying particles and steam
(TUAT) *Kobayashi M., Tanimura H., Fukushima H., Fushimi C., (AIST) Matsuoka K.
pyrolysis
coal
downer
9-c474
13:20– 15:20ZBP307Suppression of residue production during direct liquefaction of woody biomass using a gas oil as a solvent.
(Nihon U.) *Takiguchi Kakeru, Kakuta Yusuke, (Seikei U.) Ito Takuya
Woody Biomass
Direct Liquefaction
gas oil
9-c525
13:20– 15:20ZBP308Application for IR sensor of thermoelectric material
(Osaka Pref. U.) *Inoue Riku, Wang Kaipeng, Morimoto Takayuki, Kawano Kouki, Tsukui Shigeki, Adachi Motoaki
IR sensor
Thermoelectric material
Seebeck coefficient
9-d279
13:20– 15:20ZBP309Methanol vapor adsorptoion on high-density activated carbon
(Kanazawa U.) *Yamawaki N., Shinohara K., Kumita M., Higashi H., Seto T., Otani Y.
High-density activated carbon
Methanol vapor
Adsorption kinetics
9-d726
13:20– 15:20ZBP310Structure Control of Catalyst Layers and Cell Performance Analysis for Enhanced Performance of Solid-state Alkaline Fuel Cells
(Tokyo Tech) *Suzuki Yuto, (Tokyo Tech/JST-CREST) Oshiba Yuhei, (KAST/Tokyo Tech) Kuroki Hidenori, (Tokyo Tech/JST-CREST) Yamaguchi Takeo
solid-state alkaline fuel cell
membrane electrode assembly
9-e493
13:20– 15:20ZBP311Carbon nanotube-silicon heterojunction solar cells by wet-coating
(Waseda U.) *Muramoto Eri, Yamasaki Yuhei, (Kyoto U.) Wang Feijiu, (Waseda U.) Hasegawa Kei, (Kyoto U.) Matsuda Kazunari, (Waseda U.) Noda Suguru
Carbon nanotubes
Silicon
Solar cells
9-e580
13:20– 15:20ZBP312Low Temperature Reforming of Biomass Tar Using Chicken Dropping Catalysts
(Gunma U.) *Oyama Yuya, Kannari Naokatsu, Takarada Takayuki
biomass
tar
chicken dropping
9-c641
13:20– 15:20ZBP313Carbon nanotube sponge-based sulfur cathode for lithium-sulfur batteries
(Waseda U.) *Hori Keisuke, Hasegawa Kei, (Okayama U.) Nishina Yuta, (Waseda U.) Momma Toshiyuki, Osaka Tetsuya, Noda Suguru
lithium-sulfur batteries
carbon nanotubes
sulfur cathodes
9-e805
13:20– 15:20ZBP314B-site Nb-doped Pr0.42Sr0.6 (Co0.3Fe0.6)1-x NbxO3-δ(x=0, 0.05, 0.1 and 0.2) perovskite as cathode material for IT-SOFC
(Hirosaki U. NJRISE) *Pairuzha Xiaoketi, (Hirosaki U.) Deni Khaerudini, (Hirosaki U. NJRISE) Guoqing Guan, Abuliti Abudula
IT-SOFC
Performance
cathode material
9-e255
13:20– 15:20ZBP315Characteristic evaluation of orientated recycling carbon fiber
(Gifu U.) *Yamada Kansei, Moritomi Hiroshi, Kumabe Kazuhiro, (kojima industries) Osakabe Tomotaka
recycling carbon fiber
CFRP
oriented fiber
9-c572
13:20– 15:20ZBP316Synthesis of lanthanum tungstate and application to proton conducting solid oxide fuel cells
(U. Tokyo) *Kojo Gen, Matsuoka Shuhei, Oshima Yoshito, Otomo Junichiro
proton conductor
SOFC
lanthanum tungstate
9-e452
13:20– 15:20ZBP317Effect of support materials on redox reaction kinetics of Mn oxide in chemical looping systems
(Shinshu U.) *Xiong Xiangdong, Shimada Iori, Osada Mitsumasa, Takahashi Nobuhide, (U. Tokyo) Otomo Junichiro, (Shinshu U.) Fukunaga Hiroshi
chemical looping
hydrogen production
oxide ion conductor
9-e962
13:20– 15:20ZBP318Feasibility study of application of YBCO(CERAMIC) to the cathode of SOFC
(Osaka Pref. U.) *Yamanaka Toshiya, Fujita Takahiro, Tajima Soichiro, Tsukui Shigeki, Adachi Motoaki
SOFC
cathode
YBCO
9-e790
13:20– 15:20ZBP319Structural control of PtFe-alloy hollow capsule to elucidate the factors of its high oxygen reduction activity as cathode catalyst for polymer electrolyte fuel cells
(Tokyo Tech) *Nakanishi Shiho, (KAST/Tokyo Tech.) Kuroki Hidenori, (Tokyo Tech./KAST) Tamaki Takanori, Yamaguchi Takeo
Hollow capsule
Catalyst
Polymer electrolyte fuel cells
9-e500
13:20– 15:20ZBP320Relationship between the calcination behavior of the Pd stabilized by Hyper-branched polymer and the formic acid oxidation reaction activity
(Kanazawa U.) *Tsuchiya Y., Tsujiguchi T., (Nissan chemical) Kojima K., (Kanazawa U.) Kodama A., Osaka Y.
Direct formic acid fuel cell
hyper-branched polymer
Pd nanoparticle
9-e438
Hall ZC, Day 3
13:20– 15:20ZCP301Simulation study about theoretical design of Li-air battery
(Kogakuin U.) *Yamamoto Wataru, Takaba Hiromitsu
Li-air battery
Molecular Dynamics
Solvation energy
9-e310
13:20– 15:20ZCP302Influences of Residual Carbon Content in Coal Ash and Char on the Melting Behaviors
(Gunma U.) *Miura Hirotaka, Kannari Naokatsu, Takarada Takayuki, (Niigata U.) Li Liuyun, (J-POWER) Suzuki Nobuyuki
Coal Ash
Coal Char
Melting Behaviors
9-c703
13:20– 15:20ZCP303Co-Gasification Reaction kinetics of Baiomass and Coal
(Gifu U.) *Kimata Yuta, Kobayashi Nobusuke, Itaya Yoshinori
Co-gasification
Biomaass
TG Analysis
9-c822
13:20– 15:20ZCP304Theoretical Study of Conversion Efficiency of Plasmonic Porous Si Solar Cell Depending on Nanostructure
(Tokyo Tech) *Murakami K., Yamada K., Akita H., Ihara M.
Solar Cell
Metal Nanoparticle
Simulation
9-e620
13:20– 15:20ZCP305Creation of oxygen reduction reaction catalyst by supporting ZrO2 on carbon nanotube papers
(Waseda U.) *Kuzuhara Soki, Hasegawa Kei, Noda Suguru
oxygen reduction reaction
zirconium oxide
carbon nanotubes
9-e914
13:20– 15:20ZCP306Oxygen reduction reaction kinetics of cathode microelectrodes supported on oxide ion conductors by scanning probe microscopy
(U. Tokyo) *Hashikita Naoto, Otomo Junichiro
scanning probe microscopy
SOFC
oxygen reduction reaction
9-e55
13:20– 15:20ZCP307Fabrication of formic acid oxidation catalyst using SiO2 contained carbon nanofiber support
(Kanazawa U.) *Onishi Ryo, (Kanazawa U./JST-PRESTO) Tsujiguchi Takuya, (Kanazawa U.) Osaka Yugo, Kodama Akio
direct formic acid fuel cell
palladium catalyst
silicon dioxide
9-e380
13:20– 15:20ZCP308fabrication and evaluation of hydrogen storage material thin film
(Osaka Pref. U.) *Furukawa Masaaki, Tsukui Shigeki, Adachi Motoaki
Hydrogen Storage Material
Thin Film
Hysteresis
9-e798
13:20– 15:20ZCP309Ammonia absorption characteristics with metal chlorides for ammonia storage
(Nagoya U.) *Matsuo K., Kubota M., Matsuda H.
Ammonia
Metal chloride
Storage
9-e807
13:20– 15:20ZCP310The relationship between oxide composing cermet anode and power generation characteristics on pulse jet-RDCFC
(Tokyo Tech) *Iida Y., Hattori S., Shimamura R., Ihara M.
SOFC
fuel cell
anode
9-e766
13:20– 15:20ZCP311Intermediate-temperature ammonia synthesis using a solid-state phosphate-based electrolyte
(U. Tokyo) *Kishira S., Qing G., Kikuchi R., Takagaki A., Sugawara T., Oyama S. T.
Ammonia
electrochemical synthesis
cesium hydrogen phosphate
9-e692
13:20– 15:20ZCP312Carbon nanotube papers capturing Si nanoparticles for binder-free anodes of Li secondary batteries
(Waseda U.) *Kowase Takayuki, Hasegawa Kei, Momma Toshiyuki, Osaka Tetsuya, Noda Suguru
Li secondary batteries
silicon anodes
carbon nanotubes
9-e622
13:20– 15:20ZCP313Catalyst support of silica embedded carbon nanofiber for direct ethanol fuel cell
(Gunma U.) *Ino Yurina, Ishitobi Hirokazu, Nakagawa Nobuyoshi
Direct ethanol fuel cell
silica embedded carbon nanofiber
anode product
9-e252
13:20– 15:20ZCP314Behavior of the formic acid production by the electrochemical reduction of CO2 using Sn series catalysts.
(Kanazawa U.) *Mukae Y., Tsujiguchi T., Osaka Y., Kodama A.
Electrochemical reduction of CO2
Faradaic efficiency
Energy career
9-e457
13:20– 15:20ZCP315Effects of an increase in volume of fluidizing gas on bubble behavior in a fluidized catalyst bed
(Kagoshima U.) *Miyata H., Kai T., Nakazato T.
fluidized bed
bubble
gas volume change
2-c611
13:20– 15:20ZCP316Numerical Simulations of Rayleigh-Taylor Instability with highly viscous fluids
(Saitama U.) *Nakajima Ryota, Homma Shunji, Koga Jiro
Front-Tracking Method
Rayleigh-Taylor Instability
Numerical simulation
2-e469
13:20– 15:20ZCP317Visualization of gas dispersion with fractal shaped impeller and its power consumption
(Fukuoka U.) *Sakamoto R., Kanai Y., Suzukawa K.
Fractal shaped impeller
Gas dispersion
Power consumption
2-b653
13:20– 15:20ZCP318Drug release control from hydrogel particles including microbubbles or micro beads
(Keio U.) *Miyata S., Terasaka K., Fujioka S.
Controlled release
Calcium alginate gel
Microbubble
2-e293
13:20– 15:20ZCP319In-situ crystal structure analysis for thermal energy storage materials
(TOYOTA CRDL) *Kishida Yoshihiro, Aoki Masakazu
Crystal structure
Thermal energy storage
Ammonia
9-b138
Technical program
SCEJ 81st Annual Meeting (2016)
© 2016 The Society of Chemical Engineers, Japan. All rights reserved.
Most recent update: 2016-02-26 18:17:04
For more information contact Organizing Committee, SCEJ 81st Annual Meeting (2016)
E-mail: inquiry-81awww3.scej.org
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