SCEJ

28th SCEJ Students Meeting (online, 2026)

Hall program

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Most recent update: 2026-03-06 17:03:49

TimePaper
ID
Title / AuthorsKeywordsTopic codeAck.
number
Fluid & particle processing
(9:30–10:42) (Chair: Murakami Yuya, Fujii T.)
9:309:42C01Numerical analyses of binary collision using a phase-field lattice Boltzmann method
(TMU) *Kobayashi Minoru, Tagawa Toshio
PF-LBM
binary collision
high-viscous drop
2-e257
9:429:54C02Control of water droplet dripping behavior in oil by microwave irradiation
(Kansai Uni) *Sawada Hayato, Asakuma Yusuke
microwave
interface
dripping
3-a10
9:5410:06C03Investigation of mechanism for mechanochemical production of slaked lime from calcium carbonate under water existence
(NIT Ichinoseki) *Fujisawa Moe, Nikaido Mitsuru, Fukumura Takuya
Mechanochemistry
Calcium hydroxide
2-f270
10:0610:18C04Development of a Method for Detecting Foreign Particles in Nanoparticle Slurries via Osmotic Pressure Measurements
(U.Hosei) *Imai S., Kitamura K., Mori T.
Osmotic pressure
Nanoparticle slurry
Detection of foreign particles
12-d66
10:1810:30C05Packing and Flow Properties of Alumina Slurries Flocculated by Polyelectrolytes
(U. Hosei) *Kimura N., Kitamura K., Mori T.
wastewater treatment
polyelectrolyte
sediment
2-f87
10:3010:42C06Transformation of convection based on the Rayleigh Number
(Hyogo H.S) *Obata Sayako, *Koizumi Teruma, *Seriguchi Atsuki, *Tanno Natsuki, *Funai Takuto, Shiga Toshiki
Convection
Rayleigh Number
Tempurature
2-a18
10:4210:50Break
Fluid & particle processing
(10:50–12:02) (Chair: Tagawa Toshio, Ohsaki Shuji)
10:5011:02C08Analysis of Pressure Drop in Laminar Flow Through Channels with Arbitrary Cross-Sectional Geometry
(U. Hosei) *Arai N., Yamashita A.
Pressure Drop
Laminar Flow
Artificial Kidney
2-a177
11:0211:14C09Evaluation of a mixing assessment method in a custom microchannel using the Villermaux-Dushman method
(Shizuoka U.) *Fujii Kano, Murakami Yuya
microchannel
Villermaux-Dushman protocol
micromixing
2-b212
11:1411:26C10Controlling the bubbles in soda
(Senri H.S.) *Manabe Futo, *Kataoka Keito, *Yoden Ryota, *Tsukuda Reijiro, Fukuno Katsuhisa
テコサタ
ネッヒ「
アユツホ、ホヌエナル
7-h38
11:2611:38C11Direct measurement of interaction forces acting on microbubble surfaces
(Osaka Metro. U.) *Kazuta M, Nomura T
Cleaning technology
Interaction forces
Microbubbles
2-d44
11:3811:50C12Evaporation behavior of surfactant water during microwave irradiation
(Kansai Uni) *Toba Juon, Asakuma Yusuke
microwave
evaporation
surfactant
2-a11
11:5012:02C13Glass fusing &12316;the reaction between seraform, frits and silver wire&12316;
(Ikuno H.S) *Ishikawa S., *Tsuchiya R., *Matsuoka R., *Kawabuchi H., Onishi A.
glass fusing
silver wire
2-g171
12:0213:14Lunch break
Fluid & particle processing
(13:14–14:26) (Chair: Mori T., Yamashita A.)
13:1413:26C20Dimensionless Correlation Modeling for Evaluation of the Dissolution Rate Solubility of Skim Milk Powder
(Osaka Metro. U.) *Taniguchi Yohei, (Meiji) Ikeda Riku, Hanyu Keigo, (Osaka Metro. U.) Ohsaki Shuji, Nakamura Hideya, Watano Satoru
Solubility
Skim milk powder
Dimensionless numbers
2-g153
13:2613:38C21Analysis of Vortex Flow in the Transition Flow Regime in an Oscillatory Baffled Reactor
(Osaka Pref. U.) *Wada Takenori, (Keio U.) Fujioka Satoko, (Osaka Metro. U.) Yasuda Masahiro, Horie Takafumi
mixing
transition regime
POD
2-a185
13:3813:50C22Numerical analyses for liquid-gas two-phase flows using a revised lattice kinetic scheme
(TMU) *Wada Akinori, Tagawa Toshio
two-phase flow
LKS
numerical simulation
2-e147
13:5014:02C23Effect of temperature difference on natural convection in a double cylindrical enclosure using a Cartesian grid system
(TMU) *Yamazaki Takuma, Tagawa Toshio
double cylinder
fully-explicit method
natural convection
2-a251
14:0214:14C24Development of a simple measuring method for microbubble generation quantity
(Fukushima H.S) *Makuta Y., Sato Y.
Micro bubble
harmful substance
2-e229
14:1414:26C25Measurement of dissolved hydrogen concentration in a hydrogen bath prepared using the reductive fine bubble chemistry method
(NIT. Kure) *Fujiwara Reika, *Teraoka Anju, Takiguchi Yuto, Hori Yugo, Yamane Aoi, Oikawa Eisaku
hydrogen water bath
dissolved hydrogen
reductive fine bubble chemistry
9-a173
14:2614:34Break
Separation processes
(14:34–15:58) (Chair: Oikawa Eisaku, Maruyama Hideo)
14:3414:46C27On the Absorption Capacity of Oya stone
(Tochigi H.S) *Harada T., Shinozaki N., Sotome S., *Arakawa E., Shinoyama H.
Copper(ュカ)ion
adsorption
zeolite
4-e155
14:4614:58C28Plants can create clean air!
(Shimonosekinishi) *Okazaki Rin, *Yamamoto Arisa, *Yodogawa Utaha, Okada Shougo
Deodorize
Plant
Porous material
13-i146
14:5815:10C29Fabrication of high CO2 permeable ion-gel thin-film-composite membranes by surface modification of loosely-crosslinked PDMS gutter layer
(Kobe U.) *Demizu R., (Kobe U./MaF Tech C.) Kamio E., Matsuoka A., Nakagawa K., Yoshioka T., Matsuyama H.
Thin-film-composite membrane
PDMS
Surface hydrophilization
4-a115
15:1015:22C30Evaluation of the absorption kinetics of various organic solvents into the polyamide active layer using QCM
(Kobe U.) *Kurokawa Y., (Kobe U./MaF Tech C.) Matsuoka A., (Kobe U.) Akiyama T., (Kobe U./MaF Tech C.) Kamio E., Yoshioka T., Nakagawa K., Matsuyama H.
polyamide membrane
organic solvent reverse osmosis
quartz crystal microbalance
4-a116
15:2215:34C31Changes in the dehydration performance of FAU-type zeolite membranes by glucose addition
(U. Yamaguchi) *Uno Daisuke, (U.Yamaguchi) Kimura Yuto, Kumakiri Izumi
membrane separation
zeolite membrane
dehydration
4-a240
15:3415:46C32Development of inorganic ion exchanger for recovery of platinum group elements
(NITTC) *Nawa Fumio, Ito Shinko, Abe Tatsuo
Ion exchange
Inorganic
Platinum group elements
4-e163
15:4615:58C33Production of olefins through CHA zeolite membranes
(Shibaura Inst. Tech.) *Matsuo Roi, Nomura Mikihiro
MTO reaction
CHA membrane
Zeolite
5-a58

Technical program
28th SCEJ Students Meeting (online, 2026)

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Most recent update: 2026-03-06 17:03:49
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