Time | Paper ID | Title / Authors | Keywords | Topic code | Ack. number |
---|---|---|---|---|---|
Biochemical engineering | |||||
(9:30–10:30) (Chair: Hiroyuki Imanaka, Mari Takahara) | |||||
L01 | Development of novel multivalent molecular recognition elements by modifying multimer formation of CutA1 | biomolecular scaffold interaction | 7-i | 156 | |
L02 | Detection of Amyloid beta aggregation on lipid membrane by using electrochemical quartz crystal microbalance | amyloid beta lipid membrane Electrochemical quartz crystal microbalance | 7-i | 56 | |
L03 | Bioassay sensor by using model cell membrane | model cell membrane bioassay sensor | 7-i | 57 | |
L04 | Evaluated the stress that fruit was subjected to with antioxidant activity | anti-oxidative activity | 7-h | 9 | |
L05 | Site-selective drug modification of a protein using drug-fused peptide and enzyme | Peptide Enzyme Protein-drug conjugate | 7-a | 6 | |
Biochemical engineering | |||||
(10:40–11:52) (Chair: Kamiya Noriho, Daisuke Hirabayashi) | |||||
L06 | pH dependence in post-modification of self-assembling peptides using enzymatic reactions | Post-modification Enzymatic reaction Self-assembly | 7-i | 21 | |
L07 | Characterization of Monolithic beads for protein chromatography. | Chromatography Monolithic beads Mass transfer | 7-c | 87 | |
L08 | Dynamic adsorption capacity analysis of proteins in multimodal chromatographic separation | multimodal chromatography dynamic binding capacity separation | 7-c | 102 | |
L09 | Cell adhesion to high molecular mass amphiphilic polymer particle | Polymer particle Amphiphilic function group Adhesive cell | 7-e | 136 | |
L10 | Development of high efficiency separation of Exosomal vesicles using single-chain Fv antibody immobilized beads | single-chain Fv antibody amine coupling dispersibility | 7-b | 47 | |
L11 | Screening of VHH antibodies using liposomes | Screening VHH Liposome | 7-b | 79 | |
Biochemical engineering | |||||
(13:00–14:24) (Chair: Eisaku Oikawa, Jun-ichi Horiuchi) | |||||
L12 | Conditions for hydrogen production by nitrogen-fixing bacteria | hydrogen nitrogen-fixing bacteria hydride ion | 7-g | 65 | |
L13 | Difference in hydrogen-producing ability and growth rate of various nitrogen-fixing bacteria (NIT or Nippon Inst. Tech. or NITech.,Kure Col.) *Koke Taishu, | hydrogen nitrogen-fixing microorganisms | 7-g | 63 | |
L14 | Ammonia-producing ability by heterotrophic microorganisms with varying nutrient content (NIT or Nippon Inst. Tech. or NITech.,Kure Col.) *Hshimoto Naoki, | Ammonia microorganisms nitrogen-fixing | 7-g | 62 | |
L15 | Germination Suppression by Cherry Leaves2 | cherry coumarin gibberellin | 7-i | 17 | |
L16 | Production of astaxanthin from corncobs by Xanthophyllomyces dendrorhous | astaxanthin #Xanthophyllomyces dendrorhous# corncob | 7-a | 51 | |
L17 | efficient production of single-chain fragment (scFv) antibody produced in recombinant Escherichia coli by DO-stat fed-batch culture | fed-batch culture E coli DO-stat | 7-a | 52 | |
L18 | Developing of xylitol production by co-culture with flocculating yeast | xylitol co-culture flocculating yeast | 7-a | 78 | |
Biochemical engineering | |||||
(14:35–15:35) (Chair: Tatsuo Maruyama, Kyuya Nakagawa) | |||||
L19 | The role of sodium glutamate solution in the elution effect of iron in cooking | MSG iron elution | 7-h | 116 | |
L20 | To use wooden biomass ash for food processing | woody biomass ash food processing Alkaline water | 13-e | 55 | |
L21 | Detoxification of melittin by indoles | melittin detoxification indoles | 7-b | 22 | |
L22 | A molecular dynamics study of hydration of agarooligosaccharides | molecular dynamics hydration agarooligosaccharide | 7-h | 68 | |
L23 | Development of microencapsulation technique for lactobacillus by egg protein aggregated upon freezing | egg protein microencapsulation freezing | 7-h | 135 | |
17, 18 | |||||
(16:15–17:00) (Chair: Yoshiei Kato) | |||||
L26 | Plenary lecture | Plenary | 17-a | 158 | |
Awards ceremony |