Members
4.Dolly CHANDELPostdoctoral Researcher
(Haino Group)
Molecular Topology, Supramolecular Chemistry, Topology-Controlled Polymers, Host–Guest Chemistry, Dynamic Polymer Networks, Adaptive Soft Materials, Functional Polymeric Materials, Molecular Entanglement
Affiliations
WPI-SKCM², Hiroshima University
dolly_at_hiroshima-u.ac.jp
Bio
My research interests focus on supramolecular chemistry, topology-controlled molecular systems, and stimuli-responsive polymeric materials. I am particularly interested in how molecular topology and noncovalent interactions can be exploited to create dynamic host–guest architectures and bioinspired functional materials.
Currently, my research involves topology-engineered polyknot polymer systems incorporating π–π interacting chromophores to achieve mechanical behavior. I am especially interested in understanding how complex molecular topologies such as knots and entanglements influence force transmission, molecular mobility, energy dissipation, and adaptive mechanical responses in polymeric materials. By combining supramolecular interactions with controlled topology, my work aims to develop smart materials capable of translating molecular-scale structural changes into tunable macroscopic functions, with potential applications in artificial muscles, soft robotics, and adaptive materials.
Mentor ：Takeharu Haino
Co-Mentor ：Silvia Vignolini
What I like about my science
What excites me most about this field is how molecular topology and weak supramolecular interactions can collectively generate complex mechanical behavior and adaptive functions. I enjoy designing systems where molecular-level organization translates into emergent macroscopic properties.
Personal site
Research group
Currently, my research involves topology-engineered polyknot polymer systems incorporating π–π interacting chromophores to achieve mechanical behavior. I am especially interested in understanding how complex molecular topologies such as knots and entanglements influence force transmission, molecular mobility, energy dissipation, and adaptive mechanical responses in polymeric materials. By combining supramolecular interactions with controlled topology, my work aims to develop smart materials capable of translating molecular-scale structural changes into tunable macroscopic functions, with potential applications in artificial muscles, soft robotics, and adaptive materials.
Mentor ：Takeharu Haino
Co-Mentor ：Silvia Vignolini
What I like about my science
What excites me most about this field is how molecular topology and weak supramolecular interactions can collectively generate complex mechanical behavior and adaptive functions. I enjoy designing systems where molecular-level organization translates into emergent macroscopic properties.
Personal site
Research group