Rotbaum et al., 2017 - Google Patents
Static and dynamic large strain properties of methyl cellulose hydrogelsRotbaum et al., 2017
- Document ID
- 18331137315074151807
- Author
- Rotbaum Y
- Parvari G
- Eichen Y
- Rittel D
- Publication year
- Publication venue
- Macromolecules
External Links
Snippet
Methyl cellulose (MC) hydrogels display thermoreversible gelation upon heating. These hydrogels are abundantly employed in a variety of applications, rendering study of their mechanical properties relevant and important. Here we report on their basic elastic …
- 229920000609 methyl cellulose 0 title abstract description 261
Similar Documents
Publication | Publication Date | Title |
---|---|---|
Huang et al. | Modification of hydrophobic hydrogels into a strongly adhesive and tough hydrogel by electrostatic interaction | |
Huang et al. | High performances of dual network PVA hydrogel modified by PVP using borax as the structure-forming accelerator | |
Gasik et al. | Viscoelastic behaviour of hydrogel-based composites for tissue engineering under mechanical load | |
Naficy et al. | Progress toward robust polymer hydrogels | |
Mihajlovic et al. | Tough supramolecular hydrogel based on strong hydrophobic interactions in a multiblock segmented copolymer | |
Rotbaum et al. | Static and dynamic large strain properties of methyl cellulose hydrogels | |
Ren et al. | Characteristic swelling–deswelling of polymer/clay nanocomposite gels | |
Bu et al. | Rheological and structural properties of aqueous alginate during gelation via the Ugi multicomponent condensation reaction | |
Porcel et al. | Compact polyelectrolyte complexes:“saloplastic” candidates for biomaterials | |
Sun et al. | The dynamical response of a hydrogel fiber to electrochemical stimulation | |
Lopez-Sanchez et al. | Micromechanics and poroelasticity of hydrated cellulose networks | |
Rose et al. | Dynamics of hybrid polyacrylamide hydrogels containing silica nanoparticles studied by dynamic light scattering | |
Romo-Uribe et al. | POSS-induced dynamic cross-links produced self-healing and shape memory physical hydrogels when copolymerized with N-isopropyl acrylamide | |
Zhou et al. | Dynamic rheology studies of in situ polymerization process of polyacrylamide–cellulose nanocrystal composite hydrogels | |
Islam et al. | Evaluation of selected properties of biocompatible chitosan/poly (vinyl alcohol) blends | |
Ghorbani et al. | Construction of collagen/nanocrystalline cellulose based-hydrogel scaffolds: synthesis, characterization, and mechanical properties evaluation | |
Guo et al. | Thermoresponsive toughening in LCST-type hydrogels: Comparison between semi-interpenetrated and grafted networks | |
Karpushkin et al. | Rheological properties of homogeneous and heterogeneous poly (2‐hydroxyethyl methacrylate) hydrogels | |
Dixit et al. | Highly stretchable and tough thermo-responsive double network (DN) hydrogels: Composed of PVA-borax and poly (AM-co-NIPAM) polymer networks | |
Morozova et al. | Properties of chemically cross-linked methylcellulose gels | |
Yu et al. | Highly strong and transparent ionic conductive hydrogel as multifunctional sensors | |
Ebrahimi | The study of factors affecting the swelling of ultrasound-prepared hydrogel | |
Majstorovic et al. | Strong, Stretchable, Dual-Responsive PNIPAM Nanogel Cross-Linked UCST-Type Macrogels for Biomedical Applications | |
Friedrich et al. | Copolymer hydrogels of acrylic acid and a nonionic surfmer: pH-induced switching of transparency and volume and improved mechanical stability | |
Zhang et al. | Strengthening poly (2-hydroxyethyl methacrylate) hydrogels using biochars and hydrophobic aggregations |