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The last few decades have witnessed the great progress in surface modification through the use of functional polymer coatings. Surface-grafted polymers with thickness ranging from several nanometers to micrometers have been proven to significantly improve the surface properties of materials, thus enabling diverse, customizable, and controllable performances. Consequently, surface-grafting has become

The design and manufacture of new biodegradable and bioderived polymeric materials has traditionally taken place through experimentation and material characterisation. However, cutting-edge computational methods now provide a less expensive and more efficient approach to innovative biopolymer design and scale-up. In particular, the holistic framework provided by Materials 4.0 combines multiscale simulations

Chitosan holds great promise for demanding applications such as functional packing and biomedical uses. There has been a notable increase in interest in combining chitosan or its derivatives with other polymers and nanofillers to achieve synergistic effects. Remarkable progress has been made through polymer molecular design and iterative nanotechnology in the development of chitosan-based nanocomposite

Epoxy resins rank among the most significantly used thermosets, showing high thermal and mechanical properties. Unfortunately, current polymerization processes to reach these properties are energy-intensive, characterized by high temperatures and long processing duration. Addressing this problem, recent years have witnessed the emergence of curing methods under mild and ecofriendly conditions, aligning

In this perspective, we explore the historical evolution, photochemical processes, and distinct utility of photoiniferter polymerization. We aim to provide a practical guide encompassing the selection of iniferter and monomer, coupled with the optimization of light wavelengths to conduct efficient photoiniferter polymerizations. We delve into the impact of iniferter structure on photophysical properties

Amino acid-based poly(ester urea)s (PEUs) are an emerging class of highly tunable, degradable polymers that have found utility in a wide scope of biomedical applications. PEUs possess three points of tunability at the amino acid side chain, diol length, and copolymer stoichiometric ratio, resulting in a broad range of chemical, thermal and mechanical properties. PEUs are interesting biologically because

An in-depth review is presented on the interfacial phenomena of polymer nanocomposites and the role of the interface/interphase in capacitive energy storage. The interaction between polymer chains and nanofillers upon filler dispersion and glass transition temperature are discussed through the lens of the adsorbed layer or polymer-grafted nanoparticles. Moreover, fundamentals of dielectric physics

Proteins and peptides have played a pivotal role in revolutionizing disease treatment over the last century. Despite their commercial success, protein therapeutics can be eliminated or inactivated in the body excretion or other metabolic pathways. Polymeric materials have been used to stabilize these biomolecules in the presence of external stressors as excipients, conjugates, and in nanomaterial formulations

Since the invention of inverse vulcanization and high sulfur content polymers, termed , the application of these polymers as optical materials for IR optics & photonics has garnered interest from groups around the world. Earlier publications and review papers have focused on the polymer chemistry aspects of inverse vulcanization, however, recent work in the past decade has seen tremendous new advances

In the last decades, nanoscale drug delivery systems have gained great attention partly due to their ability to improve the bioavailability of water insoluble drugs. To this end, the general aim in developing nanomedicine is to enhance efficacy, drug stability and drug safety profile ideally by an active- or passive-cell specific targeting effect. Alteration of dose-response and potential personalization

Polycatechols are a class of polymers bearing multiple catechol moieties. These polymers possess unique physiochemical properties such as antioxidant, bioadhesive, metal chelating, and dynamic covalent bonding. As a result, polycatechols have shown great promise in various biomedical applications i.e. drug delivery, gene and protein delivery, free radical scavenging, antimicrobials, bio-adhesions,

The "Janus" feature/structure inspired by the ancient Roman double-sided protector is prominent in the field of materials science due to its unique "asymmetric" concept and flexible and adjustable characteristics. The emergence of numerous biomaterials based on Janus properties/structures provides a different approach to material design for complex biomedical scenarios. Gel materials with excellent

A mechanical bond serves as a distinctive approach for harnessing the most beneficial features of both covalent and supramolecular chemistries, offering stability and structural adaptability owing to its unique dynamic nature. Molecules formed by mechanical bonding, known as mechanically interlocked molecules (MIMs) including catenanes, rotaxanes, and knots have opened new possibilities. Notably, the