Large Strain Hysteresis and Mullins Effect of Tough Double-Network Hydrogels

By Rebecca E. Webber, C. Creton, H. Brown, J. Gong. 2007

633 citations recorded by the source corpus.

Subfields: Biomedical Engineering, Mechanical Engineering, Molecular Medicine

View Paper: https://www.semanticscholar.org/paper/258ffe0c2717fd42aae8a7dd05c50b945c71c657

How researchers see this paper

The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.

In Biomedical Engineering

1. Xuanhe Zhao
2. Zhigang Suo
3. Hyunwoo Yuk
4. Shaoting Lin
5. Tongqing Lu
6. J. Vlassak
7. Jingda Tang
8. Ruobing Bai

In Mechanical Engineering

1. Zhigang Suo
2. Xuanhe Zhao
3. Hyunwoo Yuk
4. Shaoting Lin
5. Charles W. Peak
6. Jonathan J. Wilker
7. J. Vlassak
8. Jingda Tang

In Molecular Medicine

1. Zhigang Suo
2. Jingda Tang
3. Xuanhe Zhao
4. J. Vlassak
5. Hyunwoo Yuk
6. Ruobing Bai
7. Shaoting Lin
8. Charles W. Peak

Citations in the corpus

• Tough Bonding of Hydrogels to Diverse Nonporous Surfaces (2015, positive): “Meanwhile, the tough hydrogel around the interface will be highly deformed and thus dissipate a significant amount of mechanical energy 20-22,28 , which further contributes to the interfacial toughness by Γ D ( Fig.”
• Some hydrogels having novel molecular structures (2010, background): “Mechanical property studies have included measurements of strengths and fracture energies in compression and elongation [56,57], hysteresis and the Mullins effect [28], strain hardening [58], and necking [59].”
• A review on tough and sticky hydrogels (2013, background): “This effect is a stress softening phenomenon observed under loading and characteristic for rubbers and other filled elastomers [55, 57].”