Time | Paper ID | Title / Authors | Keywords | Topic code | Ack. number |
---|---|---|---|---|---|
Biochemical engineering | |||||
(9:32–10:44) (Chair: Fukuda Shigeharu, Nomura Toshiyuki) | |||||
G02 | Lactic acid production from different carbon sources in methylotrophic yeast | bioproduction biotechnology yeast | 7-a | 376 | |
G03 | Measuring speed ofproteolytic enzyme being activated and influence of activator | proteolytic enzyme lactate drhydrogenase Fructose 1,6-bisphosphate | 5-a | 140 | |
G04 | Let's go Activated Charcoal !¡ÁWhat are the effects of activated charcoal¡Á | activated charcoal amino acid | 7-b | 192 | |
G05 | Preparation of antigen-coupled multi-lamellar vesicles (MLVs) by use of glutaraldehyde for biopanning selection | Liposomes antigen coupling glutaraldehyde | 7-c | 261 | |
G06 | Design and characterization of fusion proteins for identification of nitorocelllose-binding peptide | nitorocellulose-binding peptide lactoferrin fusion protein | 7-a | 194 | |
G07 | Development of a method for the preparation of medical hydrogels using protein-porphyrin complexes | Hydrogel Protein Porphyrin | 7-e | 357 | |
Break | |||||
Biochemical engineering | |||||
(10:50–12:02) (Chair: Fukuda Shigeharu, Nomura Toshiyuki) | |||||
G09 | Preparation of virus-like particles for rapid screening of recombinant antibody fragments | Virus-like particles Baculovirus-Insect cell system Rapid preparation | 7-c | 267 | |
G10 | Controlling antigen-binding affinity of VHH antibody by point mutation of CDR4 | VHH CDR4 antigen-binding affinity | 7-a | 287 | |
G11 | Extraction and utilization of egg antibodies | Antibodies | 7-c | 355 | |
G12 | The action of ascorbic acid oxidase and conditions for its inactivation using food | ascorbic acid oxidase inactivation food | 7-h | 68 | |
G13 | Effect of Pleurotus ostreatus cultivation by coffee bean dreggs focused on additional fertilizer or caffeine | coffee bean dregg Pleurotus ostreatus | 7-h | 82 | |
G14 | Alpha of starch-containing foods | alpha starch rice | 7-h | 144 | |
Lunch break | |||||
Biochemical engineering | |||||
(13:00–14:12) (Chair: Takeda Kazuhiro, Yoshimoto Noriko) | |||||
G20 | Aerobic cultivation of lipid assimilating yeast on whey of lactate fermented milk. | whey lipid assimilating yeast aerobic cultivation | 7-a | 147 | |
G21 | Stretch-resistant rice flour noodles | rice noodles resistance to growth acid and base | 7-h | 188 | |
G22 | Why coffee beans turn black during the roasting process | coffee Maillard reaction caramelization | 7-h | 299 | |
G23 | Change of marshmallows due to atmospheric pressure II | multi-phase reaction beta-cyclodextrin 13C NMR | 7-h | 266 | |
G24 | Production of Cellurose Nanofibers from Food Waste | Cellulose nanofibers Food waste Defibration | 7-i | 223 | |
G25 | Secretory production of PETase by Streptomyces thermoviolaceus and its characterization | actinomycete PET mutation | 7-a | 222 | |
Break | |||||
Biochemical engineering | |||||
(14:20–15:44) (Chair: Takeda Kazuhiro, Yoshimoto Noriko) | |||||
G27 | Reduce milk allergy! | Antigen Protein SDS-PAGE | 7-c | 356 | |
G28 | Analysis of chemical content of green tea | green tea tannin amino acid | 7-h | 301 | |
G29 | Investigation of a substitute material for egg white meringue using chickpea meringue | meringue chickpea whipping | 7-h | 399 | |
G30 | Enhanced xylitol production based on co-cultivation of xylitol-producing yeast and flocculent yeast | xylitol-producing yeast flocculent yeast co-cultivation | 7-a | 381 | |
G31 | water purification by duckweed | bio ethanol duckweed water purification | 7-g | 243 | |
G32 | Factor analysis of edible oil oxidative degradation by multifactorial approach | multifactorial approach oxidative stability edible oil | 7-h | 325 | |
G33 | Developing of heat resistant enzyme for production of biodiesel | Biodiesel Lipase Thermal-resistant | 7-b | 254 |