*: corresponding author<\/strong><\/p>\n Original Paper *: corresponding author Kaho Takada, Shohei Ishikawa, Rikima Kuwada, Lester Geonzon, Koichi Mayumi, Takamasa Sakai “Deep hydroxyapatite deposition in porous poly(ethylene glycol) sponge hydrogel via optimized and simplified approach” SCIENCE AND TECHNOLOGY OF ADVANCED MATERIALS\u00a027(1) (2026). Izumi Sone, Kaede Takatsuno, Lester C. Geonzon, Hazuku Takagi, Chuhuan Hu, Catherine Taylor Nordgard, Koichi Mayumi, Shingo […]<\/p>\n","protected":false},"author":1,"featured_media":0,"parent":0,"menu_order":3,"comment_status":"closed","ping_status":"closed","template":"","meta":{"veu_display_promotion_alert":"","_exclude_from_list_pages":"","footnotes":""},"class_list":["post-10","page","type-page","status-publish","hentry"],"aioseo_notices":[],"aioseo_head":"\n\t\t\n\t\n\t\n\t\n\t\n\t\t\n\t\t\n\t\t\n\t\t\n\t\t\n\t\t\n\t\t\n\t\t\n\t\t\n\t\t\n\t\t\n\t\t\n\t\t\n\t\t\n\t\t\n\t\t\n\t\t\n
\n“Deep hydroxyapatite deposition in porous poly(ethylene glycol) sponge hydrogel via optimized and simplified approach”
\nSCIENCE AND TECHNOLOGY OF ADVANCED MATERIALS\u00a027(1) (2026).<\/a><\/li>\n
\n“Multiscale structural and mechanical characterization of acid milk gels with low-concentration fish gelatin during gelation and cold storage”
\nFOOD HYDROCOLLOIDS 172 (2026).<\/a><\/li>\n
\n“Nucleation and Growth of Two-Dimensional Inclusion Complex Crystals of \u03b2-Cyclodextrin and a Triblock Copolymer: Implications for Nanocarriers”
\nACS APPLIED NANO MATERIALS 8(51) 24466-24472 (2025).<\/a><\/li>\n
\n“Gelation mechanism and network structure of mixed cold-water fish gelatin and pork skin gelatin elaborated at the molecular level”
\nFOOD HYDROCOLLOIDS 168 (2025).<\/a><\/li>\n
\n“Tough and Stiff Biobased Hydrogels Reinforced by Strain-Induced Ordering of Hierarchical Structure”
\nCHEMISTRY OF MATERIALS 37(18) 6991-7001 (2025).<\/a><\/li>\n
\n“Effects of mesoporous silica particle loading on the properties of PDMS-based mixed matrix membrane”
\nCHEMICAL ENGINEERING JOURNAL ADVANCES 23 (2025).<\/a><\/li>\n
\n“Fluoroalkyl Chain End Groups Regulating Crystal\/Amorphous Interfaces of Semicrystalline Polyethylene Films”
\nMACROMOLECULES\u00a058(14) 7367-7378 (2025).<\/a><\/li>\n
\n“Why Is the Trommsdorff Effect Weak for Styrene? An Investigation Using Small-Angle Neutron and Wide-Angle X-ray Scattering”
\nMACROMOLECULES 58(13) 6624-6633 (2025).<\/a><\/li>\n
\n“Enhanced estimation method for partial scattering functions in contrast variation small-angle neutron scattering via Gaussian process regression with prior knowledge of smoothness”
\nJournal of applied crystallography 58(Pt 3) 976-991 (2025).<\/a><\/li>\n
\n“Size-exclusion chromatography-small-angle neutron scattering system optimized for an instrument with medium neutron flux”
\nJournal of applied crystallography 58(Pt 2) 595-602 (2025).<\/a><\/li>\n
\n“Coarse-grained molecular dynamics simulations of slide-ring gels under finite deformation: influence of sliding ring rearrangement on softness and extensibility”
\nSoft matter (2025).<\/a><\/li>\n
\n“Nanoscale C-H\/C-D mapping of organic materials using electron spectroscopy”
\nNature nanotechnology (2025).<\/a><\/li>\n
\n“Adsorption suppression and viscosity transition in semidilute PEO\/silica nanoparticle mixtures under the protein limit”
\nJournal of Colloid and Interface Science 137377-137377 (2025).<\/a><\/li>\n
\n“Error evaluation of partial scattering functions obtained from contrast-variation small-angle neutron scattering”
\n\u00a0Journal of Applied Crystallography<\/i>,\u00a058<\/i> (2025).<\/a><\/li>\n
\nSize-exclusion chromatography\u2013small-angle neutron scattering system optimized for an instrument with medium neutron flux
\nJournal of Applied Crystallography<\/i>,\u00a058<\/i> (2025).<\/a><\/li>\n
\n“Composites with aligned and plasma-surface-modified graphene nanoplatelets and high dielectric constants”
\nMaterials Letters: X<\/i>,\u00a022<\/i>, 100233 (2024).<\/a><\/li>\n
\n“Mechanical properties of polymer networks with polyrotaxane crosslinkers with different molecular structures based on polyethylene glycol and \u03b1-cyclodextrin”
\nGiant<\/i>,\u00a017<\/i>, 100224 (2024).<\/a><\/li>\n
\n“Mechanical properties of composite materials with low-covered polyrotaxane and plasma-surface-modified hexagonal boron nitride”
\nChemical Physics<\/i>,\u00a0586<\/i>, 112377 (2024).<\/a><\/li>\n
\n“Tough and Durable Slide-Ring Ion Gels for Stretchable Electronics Leveraging Strain-Induced Crystallization of Poly (ethylene glycol)”
\nMacromolecules<\/i>,\u00a057<\/i>, 11498-11506 (2024).<\/a><\/li>\n
\nEffects of Heterogeneous Mixing of Imidazolium-Based Ionic Liquids with Alcohols on Complex Formation of Ni (II) Ion
\nThe Journal of Physical Chemistry B, 128(35), 8567-8577 (2024).<\/a><\/li>\n
\n“Bridge-rich and loop-less hydrogel networks through suppressed micellization of multiblock polyelectrolytes”
\n\u00a0Nature Communications<\/i>,\u00a015<\/i>, 6553 (2024).<\/a><\/li>\n
\n“Understanding the rheological properties from linear to nonlinear regimes and spatiotemporal structure of mixed kappa and reduced molecular weight lambda carrageenan gels”
\nFood Hydrocolloids<\/i>,\u00a0150<\/i>, 109752 (2024).<\/a><\/li>\n
\n“Strain-induced crystallization in tetra-branched poly (ethylene glycol) hydrogels with a common network structure”
\nMacromolecules, 57, 1461-1468 (2024).<\/a><\/li>\n
\n“Ionic Conductive Organogels Based on Cellulose and Lignin-Derived Metabolic Intermediates”
\nACS Sustainable Chemistry & Engineering<\/i>,\u00a012<\/i>, 501-511 (2023).<\/a><\/li>\n
\n“Strain-induced crystallization and phase separation used for fabricating a tough and stiff slide-ring solid polymer electrolyte”
\nScience Advances, 9, eadi8505 (2023). <\/a><\/li>\n
\n“Elaborating Spatiotemporal Hierarchical Structure of Carrageenan Gels and Their Mixtures during Sol\u2013Gel Transition”
\nMacromolecules, 56, 8676-8687 (2023): Supplementary Cover.<\/a><\/li>\n
\n“Mechanochromic luminescence of phase-separated hydrogels that contain cyclophane mechanophores”
\nMaterials Chemistry Frontiers, 7, 4073-4079 (2023).<\/a><\/li>\n
\n“Fabrication of Polyelectrolyte Sheets of Unimolecular Thickness via MOF-Templated Polymerization”
\nMacromolecules, 56, 3141-3148 (2023).<\/a><\/li>\n
\n“Heterogeneities at the Onset of Reaction Acceleration during Bulk Polymerization of Methyl Methacrylate Investigated by Small-Angle Neutron Scattering”
\nMacromolecules, 56, 3731-3738 (2023).<\/a><\/li>\n
\n“Phantom Chain Simulations for the Fracture of Energy-Minimized Tetra-and Tri-Branched Networks”
\nMacromolecules, 56, 2217-2223 (2023).<\/a><\/li>\n
\n“Epoxy resins containing epoxy-modified polyrotaxanes”
\nPolymer, 278, 126007 (2023).<\/a><\/li>\n
\n“Quasi-elastic neutron scattering study on dynamics of polymer gels with controlled inhomogeneity under uniaxial deformation”
\nSoft Matter, 19, 147-152 (2023).<\/a><\/span><\/li>\n
\n“Fracture Behavior of Polyrotaxane-Toughened Poly (Methyl Methacrylate)”
\nLangumir, 38, 2335-2345 (2022).<\/a><\/li>\n
\n“Tri-branched gels: Rubbery materials with the lowest branching factor approach the ideal elastic limit”
\nScience Advances, 8, eabk0010 (2022).<\/a><\/li>\n
\n“A neuromechanical model for Drosophila larval crawling based on physical measurements”
\nBMC biology, 20, 1-25 (2022).<\/a><\/li>\n
\n\u201cHigh-yield one-pot synthesis of polyrotaxanes with tunable well-defined threading ratios over a wide range\u201d
\nRSC Advances, 12, 3796-3800 (2022)<\/a>.<\/li>\n
\n\u201cTough Hydrogels with Rapid Self-reinforcement\u201d
\nScience, 372, 1078-1081 (2021)<\/a>.<\/li>\n
\n\u201cEffect of movable crosslinking points on mechanical properties in composite materials of large amount of plasma-surface-modified boron nitride and slide-ring elastomer\u201d
\nComposites Science and Technology, 216, 109036 (2021)<\/a>.<\/li>\n
\n\u201cFabrication of flexible porous slide-ring polymer\/carbon nanofiber composite elastomer by simultaneous freeze-casting and cross-linking reaction with dimethyl sulfoxide\u201d
\nComposites Science and Technology, 215, 109028 (2021)<\/a>.<\/li>\n
\n\u201cFabrication of polyrotaxane and graphene nanoplate composites with high thermal conductivities\u201d
\nPolymer Composites, 42, 5556-5563 (2021)<\/a>.<\/li>\n
\n\u201cMechanical and scratch behaviors of polyrotaxane\u2010modified poly (methyl methacrylate)\u201d
\nJournal of Applied Polymer Science, 51237 (2021)<\/a>.<\/li>\n
\n\u201cCrack velocity dependent toughness of polyrotaxane networks: The sliding dynamics of rings on polymer under stretching\u201d
\nMechanics of Materials, 156, 103784 (2021)<\/a>.<\/li>\n
\n\u201cSlide-ring material\/highly dispersed graphene oxide composite with mechanical strength and tunable electrical conduction as a stretchable-base substrate\u201d
\nACS Applied Materials & Interfaces, 12, 47911\u201347920 (2020)<\/a>.<\/li>\n
\n\u201cVisualization and Quantitative Evaluation of Toughening Polymer Networks by a Sacrificial Dynamic Cross-Linker with Mechanochromic Properties\u201d
\nACS Macro Letters, 9, 1108-1113 (2020)<\/a>.<\/li>\n
\n\u201cMolecular Dynamics Simulation and Theoretical Model of Elasticity in Slide-Ring Gels\u201d.
\n ACS Macro Letters, 9, 1280-1285 (2020) : supplementary journal cover<\/a>.<\/li>\n
\n\u201cViscoelastic relaxation attributed to the molecular dynamics of polyrotaxane confined in an epoxy resin network\u201d
\nPolymer Journal, 52, 1211-1221 (2020)<\/a>.<\/li>\n
\n\u201cHighly Transparent and Tough Filler Composite Elastomer Inspired by the Cornea\u201d.
\n ACS Materials Letters, 2, 325-330 (2020)<\/a>.<\/li>\n
\n\u201cDynamic Light Scattering Study on Particle Diffusion in Slide-Ring Gels: Enhanced Fluctuation of Sliding Networks\u201d
\nNihon Reoroji Gakkaishi, 48, 161 (2020)<\/a>.<\/li>\n
\n\u201cMovable cross-linked elastomer with aligned carbon nanotube\/nanofiber as high thermally conductive tough flexible composite\u201d
\nComposites Science and Technology, 190, 108009 (2020)<\/a>.<\/li>\n
\n\u201cCrack propagation resistance of slide-ring gels\u201d
\nPolymer, 181, 121782 (2019)<\/a>.<\/li>\n
\n\u201cSlide-Ring Cross-Links Mediated Tough Metallosupramolecular Hydrogels with Superior Self-Recoverability\u201d
\nMacromolecules, 52, 6748-6755 (2019)<\/a>.<\/li>\n
\n\u201cIonic transport and mechanical properties of slide-ring gel swollen with Mg-ion electrolytes\u201d
\nIonics, 1, 255-261 (2019)<\/a>.<\/li>\n
\n\u201cMolecular Dynamics of Polyrotaxane in Solution Investigated by Quasi-Elastic Neutron Scattering and Molecular Dynamics Simulation: Sliding Motion of Rings on Polymer\u201d
\nJournal of the American Chemical Society, 141, 9655-9663 (2019): supplementary journal cover<\/a>.<\/li>\n
\n\u201cDirect Observation of Large Deformation and Fracture Behavior at the Crack Tip of Slide-Ring Gel\u201d
\nJounal of the Electrochemical Society, 166, B3143\u3000(2019)<\/a>.<\/li>\n
\n“Sliding Dynamics of Ring on Polymer in Rotaxane: a Coarse-Grained Molecular Dynamics Simulation Study”
\nMacromolecules, 52, 3787-3793 (2019)<\/a>.<\/li>\n
\n\u201cDrastic Change of Mechanical Properties of Polyrotaxane Bulk: ABA\u2013BAB Sequence Change Depending on Ring Position\u201d
\nACS Macro Letters, 8, 140-144 (2019)<\/a>.<\/li>\n
\n\u201cEfficient mechanical toughening of polylactic acid without substantial decreases in stiffness and transparency by the reactive grafting of polyrotaxanes\u201d
\nJournal of Inclusion Phenomena and Macrocyclic Chemistry, 93, 107-116 (2019)<\/a>.<\/li>\n
\n\u201cOptically transparent, high-toughness elastomer using a polyrotaxane cross-linker as a molecular pulley\u201d
\nScience Advances, 4, eaat7629 (2018)<\/a>.<\/li>\n
\n\u201cHighly Stretchable and Instantly Recoverable Slide-Ring Gels Consisting of Enzymatically Synthesized Polyrotaxane with Low Host Coverage\u201d
\nChemistry of Materials, 30, 5013-5019 (2018)<\/a>.<\/li>\n
\n\u201cThermally conductive tough flexible elastomers as composite of slide-ring materials and surface modified boron nitride particles via plasma in solution\u201d
\nApplied Physics Letters, 112, 101901 (2018)<\/a>.<\/li>\n
\n\u201cUnusual fracture behavior of slide-ring gels with movable cross-links\u201d
\nACS Macro Letters, 6, 1409-1413 (2017)<\/a>.<\/li>\n
\n\u201cRheological properties of tough hydrogels based on an associating polymer with permanent and transient crosslinks: Effects of crosslinking density\u201d
\nJournal of Rheology, 61, 1371 (2017)<\/a>.<\/li>\n
\n\u201cDuctile Glass of Polyrotaxane Toughened by Stretch-Induced Intramolecular Phase Separation\u201d
\nACS Applied Materials & Interfaces, 9, 32436\u201332440 (2017)<\/a>.<\/li>\n
\n\u201cMechanical properties of supramolecular elastomers prepared from polymer-grafted polyrotaxane\u201d
\nPolymer, 128, 386-391 (2017)<\/a>.<\/li>\n
\n\u201cOne-Pot Synthesis and Characterization of Polyrotaxane\u2013Silica Hybrid Aerogel\u201d
\nACS Macro Letters, 6, 281-286 (2017)<\/a>.<\/li>\n
\n\u201cIon-Conductive and Elastic Slide-Ring Gel Li Electrolytes Swollen with Ionic Liquid\u201d
\nElectrochimica Acta, 229, 166-172 (2017)<\/a>.<\/li>\n
\n\u201cMolecular weight dependency of polyrotaxane-cross-linked polymer gel extensibility\u201d
\nChemical Communications, 52, 13757-13759 (2016)<\/a>.<\/li>\n
\n\u201cMechanics of a Dual Cross-Link Gel with Dynamic Bonds: Steady State Kinetics and Large Deformation Effects\u201d
\nMacromolecules, 49, 3497-3507 (2016)<\/a>.<\/li>\n
\n\u201cFracture of dual crosslink gels with permanent and transient crosslinks\u201d
\nExtreme Mechanics Letters, 6, 52-59 (2016)<\/a>.<\/li>\n
\n\u201cSynthesis, structure, and mechanical properties of silica nanocomposite polyrotaxane gels\u201d
\nBeilstein journal of organic chemistry, 11, 2194-2201 (2015)<\/a>.<\/li>\n
\n\u201cRheology of a dual crosslink self-healing gel: Theory and measurement using parallel-plate torsional rheometry\u201d
\nJournal of Rheology, 59, 643-665 (2015)<\/a>.<\/li>\n
\n\u201cTime Dependent Behavior of a Dual Cross-Link Self-Healing Gel: Theory and Experiments\u201d
\nMacromolecules, 47, 7243-7250 (2014)<\/a>.<\/li>\n
\n\u201cApplicability of a particularly simple model to nonlinear elasticity of slide-ring gels with movable cross-links as revealed by unequal biaxial deformation\u201d
\nJournal of Chemical Physics, 141, 134906-1-9 (2014)<\/a>.<\/li>\n
\n\u201cStress\u2013Strain Relationship of Highly Stretchable Dual Cross-Link Gels: Separability of Strain and Time Effect\u201d
\nACS Macro Letters, 2, 1065\u20131068 (2013) : journal front cover<\/a>.<\/li>\n
\n“Viscoelastic Properties of Poly (vinyl alcohol) Hydrogels Having Permanent and Transient Cross-Links Studied by Microrheology, Classical Rheometry, and Dynamic Light Scattering”
\nMacromolecules, 46, 4174\u20134183(2013)<\/a>.<\/li>\n
\n“Theory of Volume Phase Transition of Slide-Ring Gels”
\nReactive and Functional Polymers, 73, 904\u2013910 (2013)<\/a>.<\/li>\n
\n\u201cInfluence of Structural Characteristics on Stretching-Driven Swelling of Polyrotaxane Gels with Movable Cross Links\u201d
\nMacromolecules, 45, 6733\u20136740 (2012)<\/a>.<\/li>\n
\n“Mechanics of slide-ring gels: novel entropic elasticity of a topological network formed by ring and string”
\nSoft Matter, 8, 8179\u20138183 (2012)<\/a>.<\/li>\n
\n“The Static Structure of Polyrotaxane in Solution Investigated by Contrast Variation Small-Angle Neutron Scattering”
\nPolymer Journal, 43, 155\u2013163 (2011)<\/a>.<\/li>\n
\n\u201cBuffers to suppress sodium dodecyl sulfate adsorption to polyethylene oxide for protein separation on capillary polymer electrophoresis\u201d
\nElectrophoresis, 32, 448\u2013454 (2011)<\/a>.<\/li>\n
\n\u201cDynamic Light\u2013Scattering Measurement of Sieving Polymer Solutions for Protein Separation on SDS CE\u201d
\nElectrophoresis, 30, 3607\u20133612 (2009)<\/a>.<\/li>\n
\n“Static and Dynamic Light Scattering Studies on Dilute Polyrotaxane Solutions”
\nJournal of Physics: Conference Series, 184, 012018(2009)<\/a>.<\/li>\n
\n“Mechanically Interlocked Structure of Polyrotaxane Investigated by Contrast Variation Small-Angle Neutron Scattering”
\nMacromolecules, 42, 6327\u20136329 (2009)<\/a>.<\/li>\n
\n\u201cDynamics of polyrotaxane investigated by neutron spin echo\u201d
\nPhysica B, 404, 2600\u20132602 (2009)<\/a>.<\/li>\n
\n\u201cConcentration-induced conformational change in linear polymer threaded into cyclic molecules\u201d
\nMacromolecules, 41, 6480\u20136485 (2008)<\/a>.<\/li>\n<\/ul>\nReview<\/h2>\n
\n
\n“Tough polymer gels reinforced by strain-induced crystallization”
\nPolymer Journal<\/i>\u00a0 (2024)<\/a>.<\/li>\n
\n“Hierarchical structure of soft materials studied at small-angle neutron scattering instrument, SANS-U”
\nJournal of the Physical Society of Japan<\/i>,\u00a093<\/i>, 091007 (2024)<\/a>.<\/li>\n
\n\u201cSoftness, Elasticity, and Toughness of Polymer Networks with Slide-Ring Cross-Links\u201d
\nGels, 7, 91 (2021)<\/a>.<\/li>\n
\n\u201cMolecular dynamics and structure of polyrotaxane in solution\u201d
\nPolymer Journal, 53, 581-586 (2021)<\/a>.<\/li>\n
\n\u201cStructure and Dynamics of Polyrotaxane and Slide-Ring Materials\u201d
\nPolymer, 51, 959-967 (2010)<\/a>.<\/li>\n<\/ul>\nBook<\/h2>\n
\n
\n\u201cPolyrotaxane and Slide-Ring Materials\u201d
\nRoyal Society of Chemistry (2015).<\/li>\n<\/ul>","protected":false},"excerpt":{"rendered":"