专委会委员个人简介——钟旦明

浣江实验室研究员、浙江大学平台百人计划研究员，浙江大学固体力学博士，中国流变学专业委员会委员，第四届中国力学学会青年人才蓄水池项目入选者。从事软材料本构建模、性能调控、仿生设计与应用等研究。在软物质流变学性能研究方面，他揭示了溶剂含量变化引发超弹-黏弹转变的微观机制，建立了大变形黏弹性本构模型[1]；发展了以缠结临界聚合物含量为核心变量的超弹性本构关系，构建了制备参数与力学性能间的映射关系[2]。在软材料性能调控与优化方面，开发了一种水凝胶增韧、抗疲劳新策略，设计了长链结构与脱水诱导缠结的协同作用，打破了单网络水凝胶难以克服的模量-韧性冲突与模量-疲劳阈值冲突，提升了材料在极大变形、极高能量释放率等极端载荷下的实用性[3]；建立了盐析法调节软材料分子链构象的微观物理图像，实现了对弹性模量与应变软化行为的大幅可逆调控[4]。近期致力于软材料的仿生设计，采用类生命体水凝胶材料复现了肌肉等人体组织的自增强行为，为仿生设计提供了新思路[5]。

Biography of Professor Zhong: 

Dr. Zhong is a Research Fellow at Huanjiang Laboratory and a “Hundred Talents Program” Research Fellow of Zhejiang University, holding a Ph.D. in Solid Mechanics from Zhejiang University. He is a member of the Chinese Society of Rheology and recipient of the 4th Youth Talent Reservoir Program of the Chinese Society of Theoretical and Applied Mechanics. His research focuses on constitutive modeling, performance modulation, biomimetic design, and applications of soft materials. In the field of soft matter rheology, he revealed the microscopic mechanism underlying the solvent-induced transition from hyperelasticity to viscoelasticity and developed a finite-deformation viscoelastic model[1]; established a hyperelastic constitutive relationship centered on the critical polymer content for entanglement, and constructed a mapping between synthesis parameters and mechanical properties[2]. In regulation and optimization of soft materials, he proposed a novel strategy for anti-fracture and anti-fatigue design of hydrogels by combining the long-chain structures and dehydration-induced entanglement, thereby overcoming the long-standing trade-offs between modulus and toughness/fatigue threshold in single-network hydrogels and improving their applicability under ultra-large deformation and ultra-high energy release rate[3]; developed a microscopic physical framework for tuning the chain conformations of soft materials via salting-out, enabling substantial and reversible modulation of mechanical behaviors[4]. He is dedicated to biomimetic design of soft materials, employing hydrogels to reproduce the self-reinforcement behavior of muscle and other human tissues, thereby offering new inspiration for biomimetic design[5].
 

五篇代表作/Selected Publications

[1]. Danming Zhong, Yuhai Xiang, Zhicheng Wang, Zhe Chen, Junjie Liu, Zi Liang Wu, Rui Xiao*, Shaoxing Qu*, Wei Yang. A visco-hyperelastic model for hydrogels with tunable water content[J]. Journal of the Mechanics and Physics of Solids, 2023, 173: 105206.

[2]. Zhicheng Wang, Danming Zhong*, Rui Xiao, Shaoxing Qu*. Correlation between synthesis parameters and hyperelasticity of hydrogels: Experimental investigation and theoretical modeling[J]. Journal of the Mechanics and Physics of Solids, 2024, 190: 105733.

[3]. Danming Zhong, Zhicheng Wang, Junwei Xu, Junjie Liu, Rui Xiao, Shaoxing Qu*, Wei Yang. A strategy for tough and fatigue-resistant hydrogels via loose cross-linking and dense dehydration-induced entanglements[J]. Nature Communications, 2024, 15: 5896.

[4]. Junwei Xu, Jian Li, Xiaocheng Hu, Danming Zhong*, Weiqiu Chen*, Shaoxing Qu*. A constitutive model for hydrogels with tunable mechanical properties by salting-out[J]. Journal of the Mechanics and Physics of Solids, 2024, 185: 105571.[5]. Danming Zhong, Junwei Xu, Kai Zhu, Hua Yang*, Shaoxing Qu*. Strengthening and Self-Reinforcement of Polyacrylamide/Chitosan Hydrogel through Salting-Out Treatment and Mechanical Training[J]. Macromolecules, 2025, 58: 5831-5841.