Handbook Of Molecularly Imprinted Polymers

This handbook provides a useful guide to preparing molecularly imprinted polymers (MIPs) for diverse practical applications. The first chapter covers the general aspects of molecular imprinting technology. The following chapters focus on specific applications, such as MIPs for sample concentration, MIPs for chromatography and related techniques, MIPs as sensor components, MIPs as traps for medical and bioremediation, MIPs as catalysts and artificial enzymes, and MIPs as components of drug delivery systems. All chapters of the handbook follow a common structure: interest of the MIP approach for that application specific aspects of the synthesis of MIPs for this aim (requirements and general recipes) representative examples of MIPs and their performance for that application a look to the future.

Molecular imprinting technology has become a relevant tool for the synthesis of polymeric materials with the unique feature of being able to recognise specific target molecules and to bind them preferably among many others. Such an outstanding property makes molecularly imprinted polymer(s) (MIP) well suited for a wide range of applications in fields as diverse as analytical techniques, bioremediation, catalysis or drug delivery. Information regarding MIP has exponentially increased in recent years, being collected in a large variety of scientific journals, monographs and proceedings.This Handbook provides an overview of the state of the art of MIP by organising the information in an educational and practical way, with useful guidelines for newcomers to the field regarding monomer selection, polymerisation conditions and MIP conditioning for each given purpose.

Molecular imprinting focuses on the fabrication of an artificial receptor with perfect molecular recognition abilities. It has attracted a great deal of scientific attention because of the enormous opportunities it opens in the fields of separation, catalysis, and analysis. The advantages of the molecular imprinting enable to target a wide class of substances ranging from small molecules to big conglomerates, such as proteins or even cells. In recent years, sensor applications based on molecular imprinting have started to attract greater attention because of the easy creation of robust receptor sites with high specificity and sensitivity toward a target compound. A collection of contributions from distinguised experts, Handbook of Molecular Imprinting: Advanced Sensor Applications provides a comprehensive overview on the specific challenges of molecular imprinting in sensor applications. It covers various molecular imprinting approaches. As a result, a perspective of future device ensembles for sensing is acquired. The text lays particular emphasis on fundamental aspects as well as novel ideas in the context of sensor applications. It also highlights the operation principles of various sensor transducers that are generally employed in combination with molecular imprinting recognition elements.

This detailed volume explores molecularly imprinted polymers (MIPs), which have attracted great interest both in fundamental research and for practical applications due to their selective molecular recognition capabilities, extraordinary stability, and ease of preparation. Beginning with key laboratory protocols describing the different steps towards the synthesis of MIPs by different polymerization strategies, the volume continues by examining MIP use in sample preparation, their implementation on the development of sensors, as well as applications in other areas such catalysis and the use of bioinformatics and molecular modeling for MIPs design. Written for the highly successful Methods in Molecular Biology series, chapters include introductions to the respective topics, lists of the necessary materials and reagents, step-by-step, readily reproducible laboratory protocols, and tips on troubleshooting and avoiding known pitfalls. Authoritative and practical, Molecularly Imprinted Polymers: Methods and Protocols serves as an ideal guide for researchers seeking to harness this very powerful approach for the preparation of molecular selective synthetic polymers.

Molecular imprinting focuses on the fabrication of an artificial receptor with perfect molecular recognition abilities. It has attracted a great deal of scientific attention because of the enormous opportunities it opens in the fields of separation, catalysis, and analysis. The advantages of the molecular imprinting enable to target a wide class of substances ranging from small molecules to big conglomerates, such as proteins or even cells. In recent years, sensor applications based on molecular imprinting have started to attract greater attention because of the easy creation of robust receptor sites with high specificity and sensitivity toward a target compound. A collection of contributions from distinguised experts, Handbook of Molecular Imprinting: Advanced Sensor Applications provides a comprehensive overview on the specific challenges of molecular imprinting in sensor applications. It covers various molecular imprinting approaches. As a result, a perspective of future device ensembles for sensing is acquired. The text lays particular emphasis on fundamental aspects as well as novel ideas in the context of sensor applications. It also highlights the operation principles of various sensor transducers that are generally employed in combination with molecular imprinting recognition elements.

Molecular imprinting is one of the most efficient methods to fabricate functional polymer structures with pre-defined molecular recognition selectivity. Molecularly imprinted polymers (MIPs) have been used as antibody and enzyme mimics in a large number of applications. The outstanding stability and straightforward preparation make MIPs ideal substitutes for biologically derived molecular recognition materials, especially for development of affinity separation systems, chemical sensors and high selectivity catalysts. New MIP materials are being increasingly applied to solve challenging problems in environmental sciences, food safety control, biotechnology and medical diagnostics. Development in molecular imprinting research over the past decade has enabled tailor-designed molecular recognition sites to be created in synthetic materials with physical dimensions in the micro- and nano-regime. The new breakthroughs in MIP synthesis/fabrication have brought in many unprecedented functions of the micro- and nano-structured polymers. The aim of this review volume is to introduce to the readers the new developments in molecularly imprinted micro- and nano-structures, and the new applications that have been made possible with the new generation of imprinted materials.

The 21st century offers vast challenges for researchers all around the globe, especially regarding the effective use of sustainable polymers and their materials for different applications. With this focus, sustainable polymers are now rising as one of the most feasible alternatives to traditional synthetic polymers/materials for a variety of industrial uses. This book is an archival reference for researchers and students working in the field of sustainable polymers and their applications in industry. It focuses on the processing and applications of diverse sustainable polymers procured from different biorenewable resources that have been rarely reported so far in a single book.

This book presents an authoritative review of analytical methods used for diagnostics, medical therapy and for forensic purposes. Divided into 4 parts, the book discusses new challenges in bioanalytics, covers bioanalysis as a source of clinical, pharmaceutical and forensic information, explores natural resources as a source of biologically active compounds, and offers new analytical strategies and equipment solutions. Written by interdisciplinary expert academics, this work will appeal to a wide readership of students, researchers and professionals interested in the fields of medicine, chemistry, pharmaceutical, life and health sciences, engineering and environmental protection. Clinicians and employees of forensic laboratories will also find this work instructive and informative.