Abhijit Bandyopadhyay – författare

This book covers polymer 3D printing through basics of technique and its implementation. It begins with the discussion on fundamentals of new-age printing, know-how of technology, methodology of printing, and product design perspectives. It includes aspects of CAD along with uses of Slicer software, image analysis software and MATLAB® programming in 3D printing of polymers. It covers choice of polymers for printing subject to their structure–property relationship, troubleshooting during printing, and possible uses of waste plastics and other waste materials.Key FeaturesExplores polymeric material printing and designProvides information on the potential for the transformation and manufacturing, reuse and recycling of polymeric materialIncludes comparison of 3D printing and injection mouldingDiscusses CAD design and pertinent scaling-up process related to polymersOffers basic strategies for improvement and troubleshooting of 3D printingThis book is aimed at professionals and graduate students in polymer and mechanical engineering and materials science and engineering.

This book covers polymer 3D printing through basics of technique and its implementation. It begins with the discussion on fundamentals of new-age printing, know-how of technology, methodology of printing, and product design perspectives. It includes aspects of CAD along with uses of Slicer software, image analysis software and MATLAB® programming in 3D printing of polymers. It covers choice of polymers for printing subject to their structure–property relationship, troubleshooting during printing, and possible uses of waste plastics and other waste materials.Key FeaturesExplores polymeric material printing and designProvides information on the potential for the transformation and manufacturing, reuse and recycling of polymeric materialIncludes comparison of 3D printing and injection mouldingDiscusses CAD design and pertinent scaling-up process related to polymersOffers basic strategies for improvement and troubleshooting of 3D printingThis book is aimed at professionals and graduate students in polymer and mechanical engineering and materials science and engineering.

This book explains the intricacies of one-way shape memory polymers (SMPs), with a particular emphasis on solvent-responsive SMPs focusing on fundamental pathways and key principles crucial to the development of these materials. The subsequent section homes in on the specific realm of solvent-responsive SMPs, highlighting the potential advantages these polymers offer and critical evaluation of existing shortcomings and research gaps. It further explains how solvent-responsive SMPs aim to address challenges and advancements within the biomedical industry.Features:Delve into the latest developments and research findings on solvent-responsive shape memory polymers.Explore practical and real-world applications of solvent-responsive shape memory polymers in the biomedical domain.Provide an understanding of these polymers from molecular to macroscopic levels.Explore the underlying physics, chemistry, and thermodynamics that govern the mechanism of solvent-driven shape change in these polymers.Review innovations in the design of solvent-responsive shape memory polymers and their applications across a variety of industrial fields.Examine how solvent-responsive shape memory polymers can be integrated and applied across different scientific disciplines.This book is aimed at graduate students and researchers in polymer engineering, materials science, and bioengineering.

This book explains the intricacies of one-way shape memory polymers (SMPs), with a particular emphasis on solvent-responsive SMPs focusing on fundamental pathways and key principles crucial to the development of these materials. The subsequent section homes in on the specific realm of solvent-responsive SMPs, highlighting the potential advantages these polymers offer and critical evaluation of existing shortcomings and research gaps. It further explains how solvent-responsive SMPs aim to address challenges and advancements within the biomedical industry.Features:Delve into the latest developments and research findings on solvent-responsive shape memory polymers.Explore practical and real-world applications of solvent-responsive shape memory polymers in the biomedical domain.Provide an understanding of these polymers from molecular to macroscopic levels.Explore the underlying physics, chemistry, and thermodynamics that govern the mechanism of solvent-driven shape change in these polymers.Review innovations in the design of solvent-responsive shape memory polymers and their applications across a variety of industrial fields.Examine how solvent-responsive shape memory polymers can be integrated and applied across different scientific disciplines.This book is aimed at graduate students and researchers in polymer engineering, materials science, and bioengineering.

Self-healing synthetic materials have the ability to repair damage on their own, restoring functionality and significantly extending the lifespan, energy efficiency, safety, and environmental impact of synthetic materials. These materials can mimic self-repair mechanisms in biological materials and regain their original functionalities, ensuring prolonged durability. Methods for repairing mechanically damaged polymeric materials include using photo-activated healing agents, reversible covalent bonds, cycloaddition reactions, metal-ligand complexes, and dynamic non-covalent bonding. The initial chapter of the book lays the introduction by offering a fundamental overview of self-healing materials. It encompasses a spectrum of smart materials, from self-healing polymers to self-healing ceramics. The next section introduces the mechanisms that endow these materials with their remarkable properties. It explores various self-healing strategies, underlying chemistries, and stimulus responsiveness crucial for achieving these self-repairing abilities. The book then focuses on the processing aspect of these materials, detailing diverse fabrication methods used for developing these intelligent polymers, both in laboratory settings and at an industrial scale. The next section centers on self-healing elastomers, encompassing thermoplastic elastomers and thermoplastic vulcanizates. It not only provides an overview but delves into the synthesis, structure-property relationships, and applications of these elastomers molded as self-healing materials. The book concludes with potential applications of these smart materials. It is structured around specific properties such as mechanical or rheological characteristics, showcasing how these traits inspire the practical application of self-healing elastomers.

This brief provides an insight into the present scenario of the role of nanotechnology in the diagnosis and treatment of lung cancer at an early stage. Researchers have shown that nanoparticles may act as a powerful anti cancer tool, especially for lung cancer.

This book presents a comprehensive study on a new class of branched polymers, known as hyperbranched polymers (HBPs). It discusses in detail the synthesis strategies for these particular classes of polymers as well as biocompatible and biodegradable HBPs, which are of increasing interest to polymer technologists due to their immense potential in biomedical applications. The book also describes the one-pot synthesis technique for HBPs, which is feasible for large-scale production, as well as HBPs’ structure-property relationship, which makes them superior to their linear counterparts. The alterable functional groups present at the terminal ends of the branches make HBPs promising candidates in the biomedical domain, and the book specifically elaborates on the suitable characteristic properties of each of the potential biological HBPs’ applications. As such, the book offers a valuable reference guide for all scientists and technologists who are interestedin using these newly developed techniques to achieve faster and better treatments.

The physics section starts with an introduction and then goes on to topics in quantum mechanics, statistical mechanics of polymers, knots, and vertex models, solid state physics, exotic excitations such as Dirac quasiparticles, Majorana modes, Abelian and non-Abelian anyons.

This book presents a comprehensive study on a new class of branched polymers, known as hyperbranched polymers (HBPs). It discusses in detail the synthesis strategies for these particular classes of polymers as well as biocompatible and biodegradable HBPs, which are of increasing interest to polymer technologists due to their immense potential in biomedical applications. The book also describes the one-pot synthesis technique for HBPs, which is feasible for large-scale production, as well as HBPs’ structure-property relationship, which makes them superior to their linear counterparts. The alterable functional groups present at the terminal ends of the branches make HBPs promising candidates in the biomedical domain, and the book specifically elaborates on the suitable characteristic properties of each of the potential biological HBPs’ applications. As such, the book offers a valuable reference guide for all scientists and technologists who are interestedin using these newly developed techniques to achieve faster and better treatments.

The physics section starts with an introduction and then goes on to topics in quantum mechanics, statistical mechanics of polymers, knots, and vertex models, solid state physics, exotic excitations such as Dirac quasiparticles, Majorana modes, Abelian and non-Abelian anyons.

This book is an effort to tether all the exuberant observations on adding nanomaterial in the TPE matrix. With an enhanced processing property along with amplified recyclability and reprocessing feature, thermoplastic elastomers (TPE) proves to be one of the most significant polymeric materials till date.