Poster No. |
Title |
First Author |
Affiliation |
(1)分子認識と分子計算 (Molecular recognition and molecular modeling) |
*P1-01
|
Development status of ABINIT-MP program in 2018 |
Yuji Mochizuki |
Rikkyo University & IIS, The University of Tokyo |
P1-02
|
Ab Initio Molecular Simulations on Specific Interactions Between Amyloid-beta Peptide and Its Ligand |
Tomoki Shinzato |
Toyohashi University of Technology |
P1-03 |
Efficient Implementation of FMO-RI-MP3 method in PAICS |
Takeshi Ishikawa |
Nagasaki University |
P1-04 |
Ligand chirality can affect histidine protonation of vitamin-D receptor: ab initio molecular orbital calculations in water |
Yuta Terauchi |
Toyohashi University of Technology |
P1-05 |
Specific interactions between mycobacterial FtsZ and inhibitors derivatives: molecular docking and ab initio molecular simulations |
Haruki Sogawa |
Toyohashi University of Technology |
P1-06 |
Free energy analysis of β-sheet aggregation by molecular dynamics simulation |
Keiichi Masutani |
Osaka University |
*P1-07 |
Effect of Zn on Aβ Nonamer Aggregates: Molecular Dynamics and Ab Initio Molecular Orbital Calculation |
Shogo Tomioka |
Toyohashi University of Technology |
P1-08 |
Molecular Dynamics Simulations of HIV TAT Protein and Amyloid-β Peptides |
Kazumi Omata |
National Center for Global Health and Medicine |
P1-09 |
Ab initio Molecular Dynamics Simulation of Continuous Production of Organic Molecules in Alkaline Hydrothermal Vents |
Yukimasa Muraki |
Kobe University |
P1-10 |
Is hydrophobic group in osmolyte hydrophilic? : A study by fragment based molecular theory |
Yukina Uchino |
Ochanomizu University |
P1-11 |
Study of regulation mechanism of agonistic / antagonistic activities of vitamin D receptor Ligand-Binding Domain |
Takafumi Kudo |
Yokohama City University |
P1-12 |
In silico protein-protein interaction analysis of axon guidance molecule semaphorin and receptor plexin |
Erena Shimoji |
Yokohama City University |
*P1-13 |
Protein-ligand binding process studied by Markov state model |
Toru Ekimoto |
Yokohama City University |
P1-14 |
Microsecond Molecular Dynamics Simulations of Medium Molecule Drugs and the docking with a target protein |
Lisa Matsukura |
BOST, KINDAI |
P1-15 |
Geometry Optimization Effect of Ligand on Protein-Ligand Binding Energy Calculation Using Fragment Molecular Orbital Method |
Takao Otsuka |
RIKEN Center for Biosystems Dynamics Research |
*P1-16 |
Development of the CHARMM force field for Cyclosporine A |
Tsutomu Yamane |
Yokohama City Univ. |
P1-17 |
Free energy based structural refinement |
Yoshiaki Tanida |
Fujitsu Laboratories Ltd. |
P1-18 |
In silico binding affinity analysis for phosphodiesterase-10A inhibitors |
Chisa Yuasa |
Yokohama city university |
*P1-19 |
Structural basis for pH-dependent ferric ion coordination modes of TtFbpA, the periplasmic subunit of an ABC-type iron transporter from Thermus thermophilus HB8 |
Peng Lu |
Department of Applied Biological Chemistry, UTokyo |
*P1-20 |
How proteins recognize a phosphorylated amino acid: Comparative studies of an antibody and the other protein families |
Raiji Kawade |
Dep. of Bioeng. Sch. of Eng. Univ. of Tokyo |
*P1-21 |
Non-empirical Coarse-grained Simulations for Lipid Bilayers and Proteins |
Koji Okuwaki |
Rikkyo University |
P1-22 |
Energy analysis of mixtures of associated liquids and non-associated liquids using microcalorimetry and molecular dynamics simulation |
Masao Fujisawa |
Dept. of Biotech. Sci., Kindai University |
P1-23 |
In silico modeling of PAX8-PPARγ fusion protein with unknown three-dimensional structure in follicular thyroid neoplasm |
Kaori Sakaguchi |
Kobe University |
*P1-24 |
FMO Study on the Effects of Phosphorylation in Janus Kinase (JAK) on Ligand Binding |
Takahiro Hirata |
Kobe University |
(2)インシリコ創薬 (In silico drug discovery) |
*P2-01 |
Design of Anti-Cancer Peptides with Counterpropagation Artificial Neural Networks |
Miyabi Hishinuma |
Tokyo Institute of Technology |
P2-02 |
A newly developed method based on AI-oriented amino acid interaction mapping (AI-AAM) for efficient virtual scaffold hopping |
Kyosuke Tsumura |
Fujifilm Corporation |
*P2-03 |
Structure Information Management System in Asahi Kasei Pharma |
Kazufumi Ohkawa |
Asahi Kasei Pharma Corporation |
*P2-04 |
Implementation of protein-ligand docking engine sievgene_M for many- and multi-core processors |
Takanori Sugihara |
Japan Biological Informatics Consortium |
*P2-05 |
Bandit Ensemble FMO for Protein-Ligand Binding Affinity Predictions |
Kenichiro Takaba |
Asahi Kasei Pharma Corporation |
P2-06 |
Rapid and Accessible In-silico Macrocycle Design |
Giovanna Tedesco |
Cresset |
P2-07 |
A web-based application for the visualization and exploration of the SAR matrix |
Atsushi Yoshimori |
Institute for Theoretical Medicine, Inc. |
P2-08 |
Peptide Docking Method using a Coarse-grained Potential |
Sho Matsumoto |
Toyohashi University of Technology |
P2-09 |
Current status of myPresto computer-aided drug development suite |
Tadaaki Mashimo |
N2PC |
P2-10 |
Molecular Block Inserting: A Simple and Fast Algorithm for Efficient Generation of Ring Conformations |
Hajime Sugiyama |
FUJITSU LIMITED |
P2-11 |
Comprehensive Protein-Ligand Interaction Analysis: FMO Calculation on the complexes of a Human Protease Renin and its Inhibitors |
Yoichiro Yagi |
Okayama University of Science |
P2-12 |
Use of the multilayer fragment molecular orbital method to predict the rank order of protein-ligand binding affinities: A case study using tankyrase2 inhibitors |
Noriaki Okimoto |
RIKEN, Center for Biosystems Dynamics Research |
P2-13 |
Prediction of the synthetic accessibility of organic compounds using computational technology |
Kentaro Takai |
Fujitsu Limited |
*P2-14 |
A Concept of Automated Lead Optimization Method by Compound Property Enhancement and Learning to Rank |
Nobuaki Yasuo |
Tokyo Institute of Technology |
P2-15 |
Establishment of a Method for Analyzing Transcriptional Regulatory Mechanisms of Genes Grouped by Orthogonal Linear Separation Analysis (OLSA) |
Shotaro Maedera |
The University of Tokyo |
*P2-16 |
Statistical analysis of inter- and intramolecular interactions for drug design based on FMO database |
Chiduru Watanabe |
RIKEN Center for Biosystems Dynamics Research |
P2-17 |
Development of FMO database and its recent updates |
Daisuke Takaya |
RIKEN Center for Biosystems Dynamics Research |
*P2-18 |
Subtype specificity analysis of estrogen receptor using fragment molecular orbital method |
Yuya Seki |
Hoshi University |
P2-19 |
Application of molecular dynamics simulation in drug design: case study of tankyrase2 |
Yoshinori Hirano |
RIKEN BDR |
P2-20 |
Bioisosteric conversion based on electrostatic potential |
Shunpei Nagase |
RIKEN Center for Biosystems Dynamics Research |
P2-21 |
Toward Rational State-Selective Stabilization of GPCR using Computational Protein Design Strategy |
Masaya Mitsumoto |
ExCELLs, NINS, SOKENDAI |
P2-22 |
Development of new ranking method based on MMGBSA for Virtual Screening |
Naoya Asada |
SHIONOGI & CO., LTD. |
*P2-23 |
Data Analysis Toolkits of Fragment Molecular Orbital Calculations to Visualize Interaction Energies Using the GUI Plugin for PyMOL |
Takaki Tokiwa |
Tohoku University |
P2-24 |
Theoretical Interaction Analysis between Muscarinic acetylcholine receptors and Nobiletin by using fragment molecular orbital calculations |
Kanade Shimizu |
Dept. of Chem., Rikkyo Univ. |
P2-25 |
Interaction analysis of selective JAK inhibitors by the FMO method |
Yuma Handa |
Hoshi University |
P2-26 |
Computational Analysis of Potential Compounds bound to GPR35 by using Fragment Molecular Orbital Calculations |
Yuta Yamamoto |
Dept. of Chem., Rikkyo Univ. |
P2-27 |
Site Identification by Ligand Competitive Saturation (SILCS) reproduces experimental binding trends for 31 TrmD ligands |
Clinton Threlfall |
SilcsBio, LLC. |
(3)バイオインフォマティクスとその医学応用 (Bioinformatics and its applications in medicine) |
*P3-01 |
Consideration of excessive metabolites on dynamical analysis of bacterial secondary metabolic pathways |
Daisuke Tominaga |
AIST |
P3-02 |
Pathway prediction of natural products by reverse synthetic analysis |
Tsubasa Matsumoto |
Tokyo Institute of Technology |
P3-03 |
Prediction of biosynthetic building blocks in complicated natural products |
Kohei Amano |
Tokyo Institute of Technology |
P3-04 |
Morphology-based analysis of myoblasts for prediction of myotube formation |
Kei Yoshida |
Nagoya University |
*P3-05 |
Development of Image Cell Picker for Cancer Spheroid Analysis |
Hirohito Kato |
Nagoya University |
*P3-06 |
Adding trans-omics analysis features to TargetMine |
Tatsuya Kameyama |
NIBIOHN, Osaka university |
P3-07 |
A Study of Transcription Factor Network to Distinguish the Difference of Normal and Cancer Cells |
Bharata Kalbuaji |
Tokyo Institute of Technology |
P3-08 |
Modeling and simulations of the kinetics of antigens and antibodies towards personalized medicine for allergies |
Mizuka Komatsu |
Kobe University |
*P3-09 |
Three-dimensional Loop Fragment Analysis of Proteins Focused on Neighboring Ligands |
Hiroaki Kato |
National Institute of Technology, Hiroshima Col. |
P3-10 |
Literature-based functional network predictor for Down-Syndrome |
Kazunori Hamada |
National Institute of Technology, Kisarazu College |
P3-11 |
Orthogonal Linear Separation Analysis (OLSA): an Approach to Decompose the Complex Effects of a Drug to Understand Its Pharmacological Properties |
Tadahaya Mizuno |
the University of Tokyo |
P3-12 |
Investigation of the common sequence-structural patterns in different folds through cross-profile comparison and molecular dynamics simulation |
Yu Yamamori |
National Institute of Advanced Industrial Science |
*P3-14 |
Kampo drug repositioning: Analysis of the mode-of-action and prediction of new indications of Kampo medicines |
Ryusuke Sawada |
Kyushu University |
(4)医薬品研究とADMET (Information and computing approach for drug design and ADMET study) |
P4-01 |
Modelling Neonatal and MODY Diabetes in vitro Using iPS Cell-Derived Human Pancreatic Beta Cells |
Filipa Soares |
DefiniGEN Ltd. |
*P4-02 |
Development of an in vitro evaluation system for drug-induced hepatotoxicity using PXB-cells® |
Mutsumi Inamatsu |
PhoenixBio Co., LTD. |
P4-03 |
Implementation of PRED subroutine of NONMEM 7 for versatile pharmacokinetic analysis using fast inversion of Laplace transform (FILT) |
Ryota Jin |
Chiba University |
P4-04 |
Development of an informatics system for diversity of compound library |
Yugo Shimizu |
Keio University |
*P4-05 |
Development of a pharmacokinetics prediction system using multiscale integrated modeling: 8. Web application and database consisting of curated public data and newly acquired experimental data |
Hitoshi Kawashima |
NIBIOHN |
P4-06 |
Development of a pharmacokinetics prediction system using multiscale integrated modeling: 9. Development of Regression Model of Unbound Fraction to Brain Homogenate from Chemical Structure |
Tsuyoshi Esaki |
NIBIOHN |
P4-07 |
Development of a pharmacokinetics prediction system using multiscale integrated modeling:10. Prediction of renal clearance in humanutilizing structural information |
Reiko Watanabe |
NIBIOHN |
P4-08 |
Development of a pharmacokinetics prediction system using multiscale integrated modeling:11. Prediction of sites of drug metabolism by CYP3A4 by molecular simulation |
Hiroaki Saito |
RIKEN Center for Biosystems Dynamics Research |
P4-09 |
Development of a pharmacokinetics prediction system using multiscale integrated modeling: 12. Evaluation of the functionalities and the performance of the revised custom SoC LSI |
Gentaro Morimoto |
RIKEN |
P4-10 |
Development of an informatics system for predicting cardiotoxicity: 4. Update of integrated cardiotoxicity database |
Hitomi Yuki |
RIKEN Center for Biosystems Dynamics Research |
*P4-11 |
Development of an informatics system for predicting cardiotoxicity: 5. Quantitative model for hERG blocking small molecules based on the integrated database |
Tomohiro Sato |
RIKEN Center for Biosystems Dynamics Research |
*P4-12 |
Use of Markov Chain Monte Carlo Method to Integrate In Vitro & In Vivo Data for Prediction of Drug Interactions Caused by Inhibition of Multiple CYP Species |
Shizuka Hozuki |
Chiba University |
*P4-13 |
Individual data analysis of patients participated in clinical studies: relationship between longitudinal changes in cardiac functions and mortality risk in CHF |
Sayuri Guro |
Chiba University |
P4-14 |
Model-based meta-analysis of the relationship between HbA1c change and urinary glucose excretion in subjects treated with six SGLT2 inhibitors aiming early prediction of efficacy in drug development |
Ayana Ishikawa |
Chiba University |
P4-15 |
Evaluation of correlation of newly developing noninvasive cell culture profiling system based on LC-MS/MS measurement of medium components to the functional changes during cell culture |
Ryuya Fuji |
National Institute of Health Sciences |
P4-16 |
Characterization of human hepatocytes isolated from chimeric mice with humanized liver (PXB-cells) by DNA microarray analysis for the evaluation of the applicability to cell-based drug safety tests |
Shinichiro Horiuchi |
National Institute of Health Sciences |
(5)創薬・医療AI (AI for drug discovery and medical treatment) |
P5-01 |
AI for Chemistry Optimisation: Combining Machine Learning and Domain Knowledge |
Matthew Segall |
Optibrium Ltd. |
*P5-02 |
Development of Computer Aided Retrosynthesis system |
Takayuki Serizawa |
Asahi KASEI Pharma corporation |
P5-03 |
In silico Prediction of Severe Cutaneous Adverse Drug Reactions Based on the Adverse Event Reporting Database |
Kazuyuki Ohya |
Nagoya City University |
P5-04 |
Analyzing Deep Neural Networks on Molecular Activity Prediction using Cross Validation Approach |
Yoshiki Kato |
Toyohashi University of Technology |
*P5-05 |
Deep-learning of cancer stem cell morphology for anti-cancer stem cell molecule screening |
Sakae Nishisako |
Tokyo University of Technology |
*P5-06 |
Simulation study comparing non-linear mixed-effect modeling and machine learning: efficient integration of individual patient-level data from multiple clinical trials |
Hideki Yoshioka |
Chiba University |
P5-07 |
Auto Cell Image Classification System for Micronucleus Assay by Deep Learning |
Hiroshi Ueda |
Toray Industries, Inc. |
P5-08 |
Toward AI-based Molecular Force Fields |
Koichiro Kato |
Mizuho Information & Research Institute, Inc. |
P5-09 |
Effects of single mutations on STING activation |
Yuko Tsuchiya |
AIRC, AIST |
P5-10 |
Deep Learning-aided Label-free, Non-invasive Method for Live/dead Cell Discrimination and Counting |
Yuta Kawamura |
Nagahama Institute of Bio-Science and Technology |
P5-11 |
Investigation of general physical observation method of monkeys using deep learning |
Yosuke Ochiai |
LSI Medience Corporation |
P5-12 |
Development of Template-Based Protein Structure Modeling Method Using Deep-Autoencoder with a Denoising Algorithm |
Masaya Furue |
BOST, KINDAI Univ. |
*P5-13 |
Three-dimensional Quantitative Structure-Activity Relationship Analysis using Convolutional Neural Network |
Hirotomo Moriwaki |
RIKEN Center for Biosystems Dynamics Research |
P5-14 |
Text mining for expand coverage/combination therapy/adverse effect about immune checkpoint blockade |
Kosuke Negishi |
Elsevier Japan K.K |
*P5-15 |
ChemAtlas: chemical space extractor |
Tetsuro KITAJIMA |
Research Institute of Systems Planning Inc. |
*P5-16 |
Using domain-specific vocabulary to detect multiple-word phrases to improve word2vec embedding performance in Medical literature |
Attayeb Mohsen |
NIBIOHN |
P5-17 |
Development of a novel linear notation of chemical compounds for deep learning |
JUANJUAN LU |
Tokyo Institute of Technology |
P5-18 |
Development of interatomic potential building package based on artificial neural network and an application for the alkaline deep sea hydrothermal vent environments |
Kota Endo |
Kobe University |
*P5-19 |
Prediction of toxicity through the chemical space generated by deep learning |
Yoshinori Wakabayashi |
BY-HEX LLP |
*P5-20 |
Performance Evaluation of Compound-Protein Interaction Prediction using Graph Convolutional Network |
Hiroaki Iwata |
Kyoto University |
(6)レギュラトリサイエンス (Regulatory Sciences) |
*P6-01 |
Universal Read-Across Approach To Predict Toxicities |
Hirohisa Nagahori |
Sumitomo Chemical |
P6-02 |
Application of association rule mining in adverse event reporting system |
Shiori Hasegawa |
Gifu Pharmaceutical University |
*P6-03 |
Quantitative Structure-Activity Relationship (QSAR) analysis using deep learning based on Deep Snap, a novel molecular image input technique |
Yasunari Matsuzaka |
Dep. of Med. Mol. Informatics, Meiji Pharm. Univ. |
P6-04 |
Co-Creation and Communication for Real-Time Technology Assessment (CoRTTA) on Molecular Robotics |
Ryuma Shineha |
Seijo University |
P6-05 |
Boundary Work of Risk: A Case Study on a Molecular Robotics Laboratory in Japan |
Ken Kawamura |
Seijo University |
P6-06 |
Overview of Molecular Robot Ethics |
Akihiko Konagaya |
Tokyo Institute of Technology |
P6-07 |
Comparison of health hazard reporting of conventional food poisoning and designated ingredient containing food by Food Sanitation Law of Japan |
Mitsuo Saito |
Institute for Health Vigilance |
P6-08 |
Formulating Ethical Principles of Molecular Robotics (ver. 1.1) |
Naoto Kawahara |
Kyushu University |
(7)上記に属さない先進的研究 (Emerging new technology) |
P7-01 |
Refined method for designing functional siRNAs specific for any genes in mammalian cells |
Yoshiaki Kobayashi |
Dept of Biol Sci, University of Tokyo |
P7-02 |
Analyzing Co-author Networks to Search for Young Promising Researchers in Biological Science Fields |
Hiroto Inoue |
Tokyo Denki University |
*P7-03 |
Profiling of FFPE Tumor Samples by ChIP-Seq |
Masato Yonezawa |
Active Motif, Inc. Carlsbad CA, USA |
P7-04 |
Novel mechanism of lung cancer stem cells growth by tobacco-specific nitrosamine NNK |
Naoya Hirata |
Div. Pharmacol. NIHS |
P7-05 |
Immune system simulation based on multi-agent model |
Hiromichi Tsurui |
Department of Pathology, Juntendo University |
*P7-06 |
Simulation study of 3D-reconstruction of large biomolecule from the diffraction images obtained by X-ray free electron laser experiment |
Miki Nakano |
RIKEN Center for Computational Science |
*P7-07 |
Image-based Morphological Analysis for Visualization and Optimization of Stem Cell Culture |
Masaya Fujitani |
Nagoya university |
P7-08 |
Development of Mixed Reality-based Protein and Ligand Tertiary Structure Visualization System |
Atsushi Koyama |
Tokyo Institute of Technology |
*P7-09 |
Interactive Molecular Scale Soft Matter Simulation in VR |
Gregory Gutmann |
Tokyo Institute of Technology |
*P7-10 |
All-atom molecular dynamics simulation approach to film supported DNA origami in water |
Ryuzo Azuma |
Tokyo Institute of Technology |
P7-11 |
Self-Assembly of a Flexible Multi-Joint Ring Motif |
Shiyun Liu |
Tohoku University |
P7-12 |
Integrated gene logic-chip functioning in an artificial cell |
Takeya Masubuchi |
GSFS, The Univ Tokyo |
P7-13 |
Design of a new reaction diffusion system for pattern formation in hydrogel medium |
Keita Abe |
Tohoku University |
P7-14 |
Chain aggregation of liposomes through DNA Hairpin assembly |
Yuto Otaki |
Tohoku University |
P7-15 |
Improved the conjugation yield between AuNP and thiol group in DNA origami by solution freezing |
Shumpei Ishikawa |
Dept. Chem. Mater. Eng., Kansai University |
P7-16 |
Toward automatic-control of motility-protein crowds by DNA circuit |
Shosei Ichiseki |
Graduate School of Engineering, Tohoku University |
P7-17 |
Single molecule real-time observation of dynamically functioning DNA origami molecular machines |
Yuta Yamasaki |
Dept. of Chem. and Mater. Eng, Kansai University |
*P7-18 |
Making pores on biomembrane using DNA origami:Design and evaluation of φ12 nm artificial channel |
Shoji Iwabuchi |
Tohoku University |