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Books > Professional & Technical > Industrial chemistry & manufacturing technologies > Industrial chemistry > Plastics & polymers technology
This monograph is a follow-up material to the first FRRPP book by
Gerard Caneba in 2009. It includes additional conceptual results,
implementation of the FRRPP process in emulsion media to produce
various block copolymers, and other FRRPP-related supplementary
topics. Conceptual topics include the application of the
quantitative analysis presented in the first FRRPP monograph for
the occurrence of the FRRPP process to the
polysterene-styrene-ether (PS-S-Ether) and poly(methacrylic
acid)-methacrylic acid-water (PMAA-MAA-Water) systems, as well as
extensions through unsteady state analysis of the occurrence of
flat temperature profiles. Also, the generalization of the
quantitative analysis is done to consider molecular weight effects,
especially based on changes of the phase envelope to an hourglass
type. Topics in implementation of the FRRPP process from
pre-emulsions of monomers and the solvent/precipitant are
highlighted. Additional FRRPP topics are included in this monograph
that pertain to more recent efforts of Gerard Caneba, such as oil
spill control, oil dispersant system, and caustic sludge
remediation from emulsion-based FRRPP materials, hydrolysis of
vinyl acetate-acrylic acid-based copolymers, and other polymer
modification studies from FRRPP-based emulsions.
Sustainable polymers play an indispensable role in the emergence of
green materials, and the 21st century is an era of sustainable
polymeric materials. Sustainable polymer-based materials have
attracted considerable interest because of the energy crisis and
ecological concerns as well as the potential to substitute certain
petroleum-derived materials. This book covers the fundamentals of
sustainable polymers and presents guidelines in a logical and clear
manner for students and researchers to follow. It is a milestone
that will help accelerate the progress and advancement in the field
of sustainable polymers. The text explores the structure and
chemistry of various sustainable polymers, such as cellulose,
hemicellulose, lignin, chitosan, starch, guar gum, pectin, and
protein, for the possible development of green sustainable
materials.
Dendrimer science has exploded onto the polymer science scene as
the fourth major class of polymer architecture. Capturing the
history of dendrimer discovery to the present day, this book
addresses all the essential information for newcomers and those
experienced in the field, including: * Fundamental theory,
chemistry and physics of the 'dendritic state' * Synthetic
strategies (click chemistry, self-assembly, and so on) *
Dendron/dendrimer characterization techniques * Architecturally
driven 'dendritic effects' * Developments in scientific and
commercial applications * Convergence with nanotechnology,
including dendrimer-based nanodevices, nanomaterials,
nanotoxicology and nanomedicine * Dendrimers as a window to a new
nano-periodic system. Including first-hand accounts from pre-1995
pioneers, progress in the dendrimer field is brought to life with
anticipated developments for the future. This is the ideal book for
researchers in both academia and industry who need a complete
introduction to the 'dendritic state' with a special focus on
dendrimer and dendron polymer science.
The book covers the topic of geopolymers, in particular it
highlights the relationship between structural differences as a
result of variations during the geopolymer synthesis and its
physical and chemical properties. In particular, the book describes
the optimization of the thermal properties of geopolymers by adding
micro-structural modifiers such as fibres and/or fillers into the
geopolymer matrix. The range of fibres and fillers used in
geopolymers, their impact on the microstructure and thermal
properties is described in great detail. The book content will
appeal to researchers, scientists, or engineers who are interested
in geopolymer science and technology and its industrial
applications.
Molecularly Imprinted Polymers, by Karsten Haupt, Ana V. Linares,
Marc Bompart und Bernadette Tse Sum Bui.- Physical Forms of MIPs,
byAndrea Biffis, Gita Dvorakova und Aude Falcimaigne-Cordin.- Micro
and Nanofabrication of Molecularly Imprinted Polymers, by Marc
Bompart, Karsten Haupt und Cedric Ayela.- Immuno-Like Assays and
Biomimetic Microchips, by M. C. Moreno-Bondi, M. E. Benito-Pena, J.
L. Urraca und G. Orellana.- Chemosensors Based on Molecularly
Imprinted Polymers, by Subramanian Suriyanarayanan, Piotr J.
Cywinski, Artur J. Moro, Gerhard J. Mohr und Wlodzimierz Kutner.-
Chromatography, Solid-Phase Extraction, and Capillary
Electrochromatography with MIPs, by Blanka Toth und George Horvai.-
Microgels and Nanogels with Catalytic Activity, by M. Resmini, K.
Flavin und D. Carboni."
Polypeptide-Polymer Conjugates, by Henning Menzel Chemical
Strategies for the Synthesis of Protein-Polymer Conjugates, by
Bjoern Jung and Patrick Theato Glycopolymer Conjugates, by Ahmed M.
Eissa and Neil R. Cameron DNA-Polymer Conjugates: From Synthesis,
Through Complex Formation and Self-assembly to Applications, by
Dawid Kedracki, Ilyes Safir, Nidhi Gour, Kien Xuan Ngo and Corinne
Vebert-Nardin Synthesis of Terpene-Based Polymers, by Junpeng Zhao
and Helmut Schlaad
"Electroactivity in Polymeric Materials"provides an in-depth viewof
the theory of electroactivity and exploresexactly how and
whyvarious electroactive phenomena occur. The book explains the
theory behind electroactive bending (including
ion-polymer-metal-composites -IPMCs), dielectric elastomers,
electroactive contraction, andelectroactive contraction-expansion
cycles. The book also balances theory with applications - how
electroactivity can be used - drawing inspiration from the manmade
mechanical world and the natural world around us.
"
In Crystallization of Polymers, 2nd Edition, Leo Mandelkern
provides a self-contained, comprehensive, and up-to-date treatment
of polymer crystallization. Volume 2 of this edition provides an
authoritative account of the kinetics and mechanisms of polymer
crystallization, building from the equilibrium concepts presented
in volume 1. As crystalline polymers rarely, if ever, achieve their
equilibrium state, this books serves as a bridge between
equilibrium concepts and the state that is finally achieved. With a
comprehensive treatment of the surrounding theories and
experimental results from simple to complex polymer systems, this
book will be an invaluable reference work for all chemists,
physicists and materials scientists working in the area of polymer
crystallization.
This book, which is a result of a coordinated effort by 22
researchers from five different countries, addresses the methods of
determining the local and global mechanical properties of a variety
of materials: metals, plastics, rubber, and ceramics. The first
chapter treats nanoindentation techniques comprehensively. Chapter
2 concerns polymer surface properties using nanoindentation
techniques. Chapter 3 deals with the wear properties of dental
composites. Chapter 4 compares the global and local properties of a
lead-free solder. Chapter 5 discusses the methods of determining
plastic zones at the crack tip. Fatigue resistance of a synthetic
polymer under different loading conditions is dealt with in Chapter
6. Chapter 7 is a review of the methods used to measure fatigue
crack growth resistance. Chapter 8 treats bulk and surface
properties of coated materials, and the final chapter presents a
method for determining elastic constants using a resonance
technique. All in all, its depth of coverage makes it a must-have
for research scholars, graduate students, and teachers.
Chitin, Chitosan and Derivatives for Wound Healing and Tissue
Engineering, by Antonio Francesko and Tzanko Tzanov
Polyhydroxyalkanoates (PHA) and their Applications, by Guo-Qiang
Chen.- Enzymatic Polymer Functionalisation: Advances in Laccase and
Peroxidase Derived Lignocellulose Functional Polymers, by Gibson S.
Nyanhongo, Tukayi Kudanga, Endry Nugroho Prasetyo and Georg M.
Guebitz.- Lipases in Polymer Chemistry, by Bahar Yeniad,
Hemantkumar Naik and Andreas Heise.- Enzymes for the
Biofunctionalization of Poly(Ethylene Terephthalate), by Wolfgang
Zimmermann and Susan Billig.- Biology of Human Hair: Know Your Hair
to Control It, by Rita Araujo, Margarida Fernandes, Artur
Cavaco-Paulo and Andreia Gomes.- Recombinamers: Combining Molecular
Complexity with Diverse Bioactivities for Advanced Biomedical and
Biotechnological Applications, by Jose Carlos Rodriguez-Cabello,
Maria Pierna, Alicia Fernandez-Colino, Carmen Garcia-Arevalo and
Francisco Javier Arias.- Biomimetic Materials for Medical
Application Through Enzymatic Modification, by Piergiorgio Gentile,
Valeria Chiono, Chiara Tonda-Turo, Susanna Sartori and Gianluca
Ciardelli.- Supramolecular Polymers Based on Cyclodextrins for Drug
and Gene Carrier Delivery, by Jia Jing Li, Feng Zhao and Jun Li.-
Engineering Liposomes and Nanoparticles for Biological Targeting,
by Rasmus I. Jolck, Lise N. Feldborg, Simon Andersen, S. Moein
Moghimi and Thomas L. Andresen.-"
Some years ago in Paisley (Scotland) the International Conference
on Composite Materials, headed by Professor I. Marshall, took
place. During the conference, I presented a paper on the
manufacturing and properties of the Soviet Union's composite
materials. Soviet industry had made great achievements in the
manufacturing of composite materials for aerospace and rocket
applications. For example, the fraction of composites
(predominantly carbon fibre reinforced plastics) in the large
passenger aircrafts Tu-204 and 11-86 is 12-15% of the structure
weight. The percentage by weight share of composites in military
aircraft is greater and the fraction of composites (organic fibre
reinforced plastics) used in military helicopters exceeds a half of
the total structure weight. The nose parts of most rockets are
produced in carbon-carbon materials. In the Soviet spacecraft
'Buran' many fuselage tubes are made of boron-aluminium composites.
Carbon-aluminium is used for space mirrors and gas turbine blades.
These are just a few examples of applications. Many participants at
the Paisley conference suggested that the substantial Soviet
experience in the field of composite materials should be distilled
and presented in the form of a comprehensive reference publication.
So the idea of the preparation and publication of a six volume work
Soviet Advanced Composites Technology, edited by Academician J.
Fridlyander and Professor I. Marshall, was born.
A. Grosberg, S. Nechaev Polymer Topology H.-W. Kammer, J. Kressler,
C. Kummerloewe Phase Behavior of Polymer Blends - Effects of
Thermodynamics and Rheology B. Hammouda Sans from Homogeneous
Polymer Mixtures: A Unified Overview E.T. Kang, K.G. Neoh, K.L. Tan
X-Ray Photoelectron Spectroscopic Studies of Electroactive Polymers
The 14th Conference of the European Colloid and Interface Society
(ECIS 2000) was held in September 2000, in Patras, GREECE.
Researchers from the academia and the industrial sector met and
presented research work divided in nine thematic sections:
molecular interactions in thin films, polymer-surfactant
interactions, structure and dynamics at interfaces, biocolloids,
colloids in pharmaceutical and biological applications, new trends
in colloid and interface science techniques, rheology, self
assembly of amphiphiles and measurements in concentrated
suspensions. Selected contributions from these thematic areas are
presented in the present volume and show the up today achievements
of the Colloid and Interface Science.
Technology and Development of Self-Reinforced Polymer Composites,
by Ben Alcock und Ton Peijs; Recent Advances in High-Temperature
Fractionation of Polyolefins, by Harald Pasch, Muhammad Imran Malik
und Tibor Macko ; Antibacterial Peptidomimetics: Polymeric
Synthetic Mimics of Antimicrobial Peptides, by Karen Lienkamp,
Ahmad E. Madkour und Gregory N. Tew; Collagen in Human Tissues:
Structure, Function, and Biomedical Implications from a Tissue
Engineering Perspective, by Molamma P. Prabhakaran;
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