Supramolecular assemblies with well-defined structural attenuation toward varied functional
implications are an emerging area in mimicking natural biomaterials. In that regard, the …

Recently, pathway complexity in supramolecular self-assembly has gained great attention
due to their ability to control over the dimensions of the nanostructures. Although, the self …

Injectable hydrogels with nonlinear mechanical attributes to emulate natural biopolymers
hold paramount significance in tissue engineering, offering the potential to create scaffolds …

Supramolecular materials due to their ordered arrangement, and efficient charge transport,
exhibit great potential in optoelectronic applications. Nonetheless, precise structural control …

Supramolecular polymers represent ordered nanostructures that are held together by highly
directional noncovalent bonds and can undergo reversible self-assembly. Their noncovalent …

Reinforcement owing to inner stress formation is of supreme importance in life and is the
basis for biomechanical pathways, especially in the contractile materials resembling …

Designing polymeric systems with ultra‐high optical activity is instrumental in the pursuit of
smart artificial chiroptical materials, including the fundamental understanding of …

The controlled molecular assembly of small units is a pivotal technology for the development
of smart organic materials, serving as a fundamental approach to fabricating nanodevices in …

Stimuli-responsive self-assembled and supramolecular hydrogels derived from peptide
amphiphiles have opened exciting new avenues in biomedicine and drug delivery. Herein …

Herein, we explore the intricate pathway complexity, focusing on the dynamic interplay
between kinetic and thermodynamic states, during the supramolecular self-assembly of …