| [Session Information - 59th SPSJ Symposium on Macromolecules] | ||||||
| Japanese | ||||||
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I. General Topics
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| A. POLYMER CHEMISTRY: SYNTHESIS AND REACTIONS | You can choose "Oral Presentation" or "Poster Presentation" | ||
| 1) | Radical Polymerization (including Ring-Opening Radical Polymerization) | |
| 2) | Ionic Polymerization (Anionic Polymerization, Cationic Polymerization, Photo- and Radiation-Induced Ionic Polymerizations, Ring-Opening Ionic Polymerization, etc. ) | |
| 3) | Metal-Catalyzed Polymerization (Ziegler-Natta Polymerization, Metallocene-Catalyzed Polymerization, Cordination Polymerization, Metal-Catalyzed Ring-Opening Polymerization, Other Metal-Catalyzed Polymerization, etc. ) | |
| 4) | Polycondensation | |
| 5) | Polyaddition, Addition Condensation | |
| 6) | New Polymerizations and New Monomers (Polymerizations via Mechanisms not Included in the Preceding Classifications 1-5, New Catalysts, Novel Monomers, etc. ) | |
| 7) | Polymers of Designed Architectures (Block Polymers, Graft Polymers, Star Polymers, Hyperbranched Polymers, Dendrimers, Conjugated Polymers, etc. ) | |
| 8) | Noncovalent Polymers (Polymers and Supramolecular Architectures via Hydorogen-, Cordination, Î-Electron-, and Related Bondings and Intermolecular Interactions, etc. ) | |
| 9) | Polymer Reactions (Reactions between Polymers and Small Molecules, Reactions between Polymers, Intramolecular Polymer Reactions, Polymer Modification, Crosslinking and Curing, Polymer Degradation, Polymer Stabilization, etc. ) | |
| 10) | New Polymerization Processes (including New Industrial Polymerization Processes, Reaction Engineering, Plant Design, Polymer Processing, etc. ) | |
| 11) | Others | |
| B. POLYMER PHYSICS: STRUCTURE AND PROPERTIES | "Poster Presentation" Only | ||
| 1) | Analysis of Molecular Properties (Configuration; Conformation; Electronic Structure; Molecular Weight; Molecular Weight Distribution; Copolymer Composition, etc. ) | |
| 2a) | Polymer Solids (Structure and Properties of Crystalline and Amorphous Phases and Higher Order System; Phase Transition; Morphology; Crystallization; Molecular Motion, etc. ) | |
| 2b) | Polymer Solids (Mechanical Properties; Thermal Properties; Electric Properties; Optical Properties, etc. ) | |
| 2c) | Polymer Solids (Alloy; Blend; Composites, etc. ) | |
| 3a) | Polymer Solutions and Polymer Melts (Structure, Properties, and Molecular Motions; Polyelectrolytes, etc. ) | |
| 3b) | Rheology and Dynamics (Rheology; Molecular Dynamics; Multi Phases; Suspension; Emulsion; Fluid Mechanics; Processing, etc. ) | |
| 4) | Liquid Crystals (Liquid Crystalline Polymers; Thermotropic Liquid Crystals; Lyotropic Liquid Crystals, etc. ) | |
| 5) | Gel and Network Polymers | |
| 6) | Polymer Surface, Interface, and Thin Film (Structure and Properties of Surface, Interface, and Thin Film of Polymers; Nanorheology; Tribology; Fine Particles; Colloids, etc. ) | |
| 7) | Polymer Analysis | |
| 8) | Others | |
| C. FUNCTIONAL POLYMERS AND POLYMER FUNCTIONS | You can choose "Oral Presentation" or "Poster Presentation" | ||
| 1) | Photofunction (Photonics, Optical disk, Photoresist and Patterning, PHB, Nonlinear@Optics, etc. ) | |
| 2) | Electricity, Electronics, Magnetism (Electronics, Magnetic Material, Ionic Conductor, Ferroelectric, Dielectric, Metallic Conductor, Semiconductor, Insulator, Wiring, Electronic Switch, Battery , etc. ) | |
| 3) | Separation, Recognition, Catalyst (Enantio-Seperation, Gas Separation, Moleculer Recognition, Macromolecular Complexes, etc. ) | |
| 4) | Heat-Resistant Polymers, Flame-Resistant Polymers | |
| 5) | High Strength Polymers, High Modulus Polymers | |
| 6) | Ultra-Environmental Properties (Ultralow Temperature, Ultrahigh Temperature, High-Pressure, High-Vacuum, etc. ) | |
| 7) | Liquid Crystal (Functionalization of Liquid Crystal) | |
| 8) | Gel (Functionalization of Gel) | |
| 9) | Polymer Surface and Thin Film (Functionalization of Surface and Thin Film of Polymers) | |
| 10) | Others | |
| D. BIOPOLYMERS AND BIORELATED POLYMERS | "Poster Presentation" Only | ||
| 1) | Polypeptides, Proteins, Enzymes | |
| 2) | Nucleic Acids and Related Compounds | |
| 3) | Polysaccharides and Glycopolymers | |
| 4) | Biomembrane and Artificial Membrane | |
| 5) | Biomimetics (Bioinspired Polymers, Molecular Recognition, Sensing System, etc. ) | |
| 6) | Bioengineering (Gene, Cell, Germ, etc.) | |
| 7) | Life Sciences (Artificial Blood, Antithrombogenicity, Drug Delivery System, Dental Material, Gene, etc. ) | |
| 8) | Others | |
| E. POLYMERS AND ENVIRONMENT | "Poster Presentation" Only | ||
| 1) | Environment-Conscious Polymer Materials (Biodegradability, Resources Saving Materials, Energy Saving Materials, Atoxic and Innocent Matetials, etc. ) | |
| 2) | Environment-Conscious Polymer Process (Resource Saving Syntheses, Energy Saving Syntheses, Saftey Waste Treatments and Incineration, etc. ) | |
| 3) | Recycling (Polymer Recycling Process, Chemical Recycling, Material Recycling, etc. ) | |
| 4) | Others | |
| F. POLYMER INDUSTRY AND TECHNOLOGY: PROCESSES AND PRODUCTS | "Poster Presentation" Only | ||
| 1) | Structural Materials (Polymer Materials for Automotive Vehicles, Aircrafts, Vessels, Office Automation Appliances, Electric Appliances, Electric Machinery, Civil Engineering and Building, etc. ) | |
| 2) | Daily Life Products (Foods, Cosmetics, Film Products, Sheet Products, Coatings, Adhesives, Fiber Materials, Papers, Printing, Sanitary Materials, Lapping Materials, etc. ) | |
| 3) | Reforming (Reinforcing Agent, Stabilizer, Flame Retardants, Surface Modification, Foaming, etc. ) | |
| 4) | Mold Processing | |
| 5) | Multimedia (Polymer Materials for Display, Battery, Recording Device, Communication Device, LSI, etc. ) | |
| 6) | Others | |
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II. Selected Topics m"Oral Presentation" onlyn
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| S1. Chirality of Macromolecules and Supramolecules | ||
| Kiyotaka Onitsuka |
| 1) | Synthesis and Structure of Chiral Macromolecules | |
| 2) | Function of Chiral Macromolecules | |
| 3) | Design and Synthesis of Chiral Supramolecules | |
| 4) | Application of Chiral Supramolecules | |
| S2. Development of Structurally Unique Polymer | ||
| Seigou Kawaguchi |
| 1) | Synthesis and Function of Novel Polymer Based on Unique Monomer Structure | |
| 2) | Polymer with Unique Structure in Polymeric Main or Side Chain | |
| 3) | Polymer with Unique Properties in Polymeric Terminal End | |
| 4) | Synthesis and Characterization of Brush, Branched and Ring Polymer | |
| S3. Polymers beyond Linear Topologies | ||
| Hideaki Oike, Junji Sakamoto |
| 1) | Polymers with Controlled Branches | |
| 2) | Macrocycles, Polyrotaxane, Polycatenanes | |
| 3) | Spiro Polymers, Ladder Polymers, Multistranded Polymers | |
| 4) | Graphene and Synthetic 2D Polymers | |
| S4. Role of Fundamental Researches for Developing New Polymeric Materials | ||
| Tadashi Inoue, Takeharu hsaki |
| 1) | Polymer Synthesis and Properties for Highly Structure-Controlled Materials | |
| 2) | Polymer Assemblies and Organization by Various Interactions | |
| 3) | Dynamic of Polymer Assemblies | |
| 4) | Physical Properties of Polymers and Processing | |
| S5. Variety and Universality in Soft Matter | ||
| Koji Nishida, Shinichi Sakurai |
| 1) | Dynamics and Function of Soft Matter | |
| 2) | Structures and Functional Developments in Soft Matter | |
| 3) | Theories and Experiments for Stochastic and Deterministic Processes in Soft Matter | |
| 4) | Applications of Soft Matter Science to Develop New Materials | |
| S6. Viewing Polymers by Simulation | ||
| Junichi Takimoto |
| 1) | Viewing Electronic Structure and Reaction of Polymer by Simulation | |
| 2) | Viewing Polymer Structure by Simulation | |
| 3) | Viewing Polymer Dynamics by Simulation | |
| 4) | Using Simulation for Developing Polymeric Materials | |
| S7. A Revisit to Definition of a Gel and Universality of Volume Phase Transition | ||
| Atsushi Suzuki |
| 1) | Network Formation of a Gel and Determination of Gel Point | |
| 2) | Relation Between Microstructure of Polymer Network and Swelling Behavior | |
| 3) | Swelling Properties of Chemical Gels in Response to External Conditions | |
| 4) | Swelling Properties of Physical Gels in Response to External Conditions | |
| 5) | Elution of Polymers From a Gel into Outer Solvent and Erosion of the Gel | |
| S8. Physical Chemistry of Optoelectronic Polymer Materials | ||
| Shu Seki |
| 1) | Design and Synthesis of Novel Optoelectronic Polymer Materials | |
| 2) | Optoelectronic Properties of Functional Polymers with a Variety of Backbone Structures | |
| 3) | Optoelectronic Properties of Polymer and Supramolecular Systems | |
| 4) | Nanostructure and Device Fabrication Based on Optoelectronic Polymer Materials | |
| S9. Microfabrication and Polymers for Nano-Fabrication | ||
| Masayuki Endo |
| 1) | Microfabrication Processes (Lithography, Nanoimprint, Self-Assembly etc.) | |
| 2) | Resists, Packaging Materials | |
| 3) | High Thermo-Durable Functional Materials | |
| 4) | Nano-Structures and those Fabrication Technologies | |
| S10. Panoscopic Materials Based on Polymer Nanoscience and Nanotechnology | ||
| Shusaku Nagano |
| 1) | Panoscopic Materials Based on Polymer Synthesis | |
| 2) | Panoscopic Materials Based on Polymer Assemblies | |
| 3) | Structures and Functions for Panoscopic Materials | |
| S11. Element-Based Hybrid Polymers | ||
| Tetsu Yonezawa |
| 1) | Preparation of Polymer Hybrid Materials for New Age | |
| 2) | Preparation of Hybrid Polymer Using the Properties of Inorganic Elements | |
| 3) | Preparation of Element-Based Hybrid Polymer by Structure Control | |
| 4) | Investigation of Functions of Element-Based Hybrid Polymer | |
| S12.Functional and Biological Gels and Networks - Experiment and Theory - | ||
| Jian Ping Gong |
| 1) | Physical and Biological Gels | |
| 2) | Synthesis-Structure-Properties of Networks | |
| 3) | Nanostructure and Dynamics of Gels and Networks | |
| 4) | Statistical Studies on Networks | |
| S13. Soft Nanointerface Sciecne | ||
| Akihiko Kikuchi |
| 1) | Preparation of Soft Nanointerfaces | |
| 2) | Characterization of Soft Nanointerfaces | |
| 3) | Application of Soft Nanointerfaces | |
| S14. Soft Materials and Processes for Neo-Biomimetic | ||
| Atsushi Hozumi, Takuya Ohzono |
| 1) | Principles of Biomimetic (Self-Assembly/-Organization Systems, Bottom-Up and Molecular Recognition) | |
| 2) | Biomimetic Soft Materials (Organic/Inorganic Hybrid Materials, Gel and Biopolymer) | |
| 3) | Bio-Inspired Surfaces (Tribology, Fluidics, Anti-Corrosion, Adhesion, Superhydrophobic/Superhydrophilic Surfaces, Wettability and Liquid/Cell Manipulation) | |
| 4) | Biomimetic Engineering (Sensor, Mechanics, Electronics and Optics) | |
| S15. Organic Solar Cells -Present and Future- | ||
| Shuzi Hayase, Yishinori Nishikitani |
| 1) | Dye Sensitized Solar Cells -Materials, Processes and Devices- | |
| 2) | Organic Thin Film Solar Cells -Materials, Processes and Devices- | |
| 3) | Fundamental Researches on New Organic Solar Cells -Mechanisms, Materials, Processes and Devices- | |
| S16. Polymer Membranes for Environmental and Energy Applications | ||
| Kazukiyo Nagai |
| 1) | Fundamental Sciences of Water and Separation Materials | |
| 2) | Water Treatment Membranes | |
| 3) | Gas Separation and Liquid Separation Membranes | |
| 4) | Functional Membranes for Batteries | |
| S17. Future Development of Fluorinated Polymeric Materials | ||
| Hideo Sawada |
| 1) | Fluorinated Compounds and Environment | |
| 2) | Development of Novel Preparative Methods of Fluorinated Polymers | |
| 3) | Exploration of Novel Functionality Imparted by Fluorine | |
| S18. Folding Biopolymer | ||
| Hiroyuki Asanuma |
| 1) | Design of Biomaterials by Use of a Folding of Natural Macromolecules | |
| 2) | Ordered Assembly of Functional Molecules by Folding | |
| 3) | Programming a Folding Function to Polymers | |
| 4) | A Chaperon that can Regulate Folding of Macromolecules | |
| S19. Frontier of Biosupramoleclar Materials -Function Programming and Application- | ||
| Teruyuki Komatsu |
| 1) | Synthesis of Biosupramolecular Materials | |
| 2) | Structure Control and Function of Biosupramolecular Materials | |
| 3) | Synthesis of Functional Surface Based on Biosupramolecular Materials | |
| 4) | Application of Biosupramolecular Materials for Device | |
| S20. New Horizon of Glycoscience (Directed to Structure and Function) | ||
| Takahiko Matsushita |
| 1) | Synthesis, Preparation, and Modification | |
| 2) | Analysis | |
| 3) | Systematic Approach | |
| S21. Polymers for Medical Technology: to Prevent, to Diagnose and to Cure the Disease | ||
| Akio Kishida |
| 1) | Study of Polymers for Medical Treatment | |
| 2) | Study of Polymers for the Prevention and the Diagnosis of Diseases | |
| 3) | Study of Polymers for the Basic Medical Technology | |
| 4) | Study of Polymers for Understanding the Disease and/or the Living Body | |
| S22. Developments of Biobased Polymers Towards the Realization of "Green Innovations" | ||
| Hideki Abe |
| 1) | Syntheses and Molecular Design of Novel Biobased Polymers | |
| 2) | Material Design of Biobased Polymers with High Performance and Specific Function | |
| 3) | Estimation of Eco-Efficiency of Biobased Polymer Materials | |
| S23. Latest Science and Technology for Resources Recycling System | ||
| Takashi Sawaguchi |
| 1) | Technology for Conversion from Recovered Plastic Wastes to High-Performance and New Functionality Materials | |
| 2) | Precise Depolymerization and De-Bridge Formation | |
| 3) | Molecular Design of Chemically Recyclable Polymer | |
| 4) | Technology for Conversion from Renewable Resources to Raw Materials of Polymer | |
| 5) | High-Performance Bio-Based Plastic | |
| 6) | Technology for High-Speed and High-Precise Discrimination of Mixed Plastic Wastes | |
| 7) | Life Cycle Assessment of Recycling System | |
| S24. Innovation in Development of Network Polymers | ||
| Toshiyuki Oyama, Taro Fukui |
| 1) | Novel Synthesis for Network Polymers | |
| 2) | Novel Evaluation Methods for Functions and Properties of Network Polymers | |
| 3) | Development of Network Polymers with Novel Functions and Properties | |
| 4) | Development of Ultrahigh-Performance Network Polymers | |
| 59th SPSJ Symposium on Macromolecules |