Time | Paper ID | Title / Authors | Keywords | Topic code | Ack. number |
---|---|---|---|---|---|
Biochemical engineering | |||||
(9:32–10:44) (Chair: Yoshimoto Makoto, Onodera Masayuki) | |||||
I02 | Quercus glauca forest in Atagoyama, Kofu. (Yamanashi Eiwa H.S., Faculty of Natural Sciences.) Inoue Sakura | Global warming Laurel forest The index of warmth | 7-g | 130 | |
I03 | mold-resistant food | antifungal mold optimum environment for bacteria antifungal food | 7-h | 232 | |
I04 | Study of photoblastic seeds | Photoblastic seeds | 7-b | 369 | |
I05 | Examination of measures to prevent the occurrence of blue-green algae due to eurtrophication of reservoirs | blue-green algae water quality improvement eutrophication | 7-g | 109 | |
I06 | Measurement of Escherichia coli K-12 concentration under shaking cultivation by image analysis | image analysis Escherichia coli | 7-i | 83 | |
I07 | Effects of environmental changes on the behavior of Tetramorium tsushimae | Behaviour Environmental factor Ants | 7-b | 354 | |
Break | |||||
Biochemical engineering | |||||
(10:50–11:38) (Chair: Yoshimoto Makoto, Onodera Masayuki) | |||||
I09 | Exploration of coexistence parameters using dry simulation to elucidate the mechanism of microbial coexistence | microbial coexistence dry simulation prediction | 6-g | 334 | |
I10 | Correlation between distribution of terrestrial isopods and surrounding environment | Edge effect Invertebrate Terrestrial isopods | 7-f | 368 | |
I11 | Use of Jellyfish as Fertilizer | Jellyfish Fertilizer Environment | 7-g | 189 | |
I12 | Making of the search chart of Water mites in Yamanashi | Water mites Index animals Water environment | 7-g | 215 | |
Lunch break | |||||
Supercritical fluid | |||||
(13:00–14:12) (Chair: Matsuyama Kiyoshi, Uchida Hirohisa) | |||||
I20 | microencapsulation of lutein using PGSS Process | supercritical carbon dioxide lutein microcapsule | 8-e | 100 | |
I21 | Microencapsulation of rice bran extraction using supercritical carbon dioxide | supercritical carbon dioxide ferulic acid microencapsulation | 8-e | 102 | |
I22 | Hydrothermal extraction of antioxidants from spent coffee grounds | Hydrothermal extraction Spent coffee grounds Antioxidant | 8-c | 40 | |
I23 | Reaction characterization of CeO2 oxygen carrier for chemical loop waste plastic gasification process design | Chemical looping Gasfication Plastic recycling | 8-f | 87 | |
I24 | Highly Efficient Extraction of Berberine from Coptis japonica Using Liquid Carbon Dioxide | supercritical carbon dioxide extraction berberine | 8-c | 99 | |
I25 | Elucidation of formation process of Al-doped iron oxide by supercritical hydrothermal synthesis | supercritical water oxygen storage material structural stability | 8-e | 193 | |
Break | |||||
Supercritical fluid | |||||
(14:20–15:44) (Chair: Seong Gimyeong, Sato Takafumi) | |||||
I27 | Liposome Preparation for Drug Delivery System by Ultrasound irradiation | Liposome | 8-e | 288 | |
I28 | Microencapsulation of natural plant leaf extracts | Supercritical carbon dioxide Polyphenols Microencapsulation | 8-e | 383 | |
I29 | Extraction of p-coumaric acid from natural plant leaves using liquid carbon dioxide | Liquid carbon dioxide Bioactive compound Extraction | 8-c | 186 | |
I30 | Characteristics changes of pharmaceutical crystals in high-temperature supercritical carbon dioxide | Supercritical carbon dioxide Organic compounds Thermal characteristics | 8-e | 183 | |
I31 | Production of capsules coated with S-CNF using supercritical carbon dioxide | supercritical carbon dioxide CNF coating | 8-f | 103 | |
I32 | (withdrawn) | 100 | 131 | ||
I33 | Preparation of microcapsules with bone-derived proteins | supercritical carbon dioxide microcapsules proteins | 8-e | 101 |