The issues related to food science and authentication are of particular importance for researchers, consumers and regulatory entities. The need to guarantee quality foodstuff - where the word "quality" encompasses many different meanings, including e.g. nutritional value, safety of use, absence of alteration and adulterations, genuineness, typicalness, etc. - has led researchers to look for increasingly effective tools to investigate and deal with food chemistry problems. As even the simplest food is a complex matrix, the way to investigate its chemistry cannot be other than multivariate. Therefore, chemometrics is a necessary and powerful tool for the field of food analysis and control.

For food science in general and food analysis and control in particular, there are several problems for which chemometrics are of utmost importance. Traceability, i.e. the possibility of verifying the animal/botanical, geographical and/or productive origin of a foodstuff, is, for instance, one area where the use of chemometric techniques is not only recommended but essential: indeed, at present no specific chemical and/or physico-chemical markers have been identified that can be univocally linked to the origin of a foodstuff and the only way of obtaining reliable traceability is by means of multivariate classification applied to experimental fingerprinting results.

Anotherarea where chemometrics is of particular importance is in building the bridge between consumer preferences, sensory attributes and molecular profiling of food: by identifying latent structures among the data tables, bilinear modeling techniques (such as PCA, MCR, PLS and its various evolutions) can provide an interpretable and reliable connection among these domains. Other problems include process control and monitoring, the possibility of using RGB or hyperspectral imaging techniques to nondestructively check food quality, calibration of multidimensional or hyphenated instruments etc. "

The progress in nuclear magnetic resonance (NMR) spectroscopy that took place during the last several decades is observed in both experimental capabilities and theoretical approaches to study the spectral parameters. The scope of NMR spectroscopy for studying a large series of molecular problems has notably broadened. However, at the same time, it requires specialists to fully use its potentialities. This is a notorious problem and it is reflected in the current literature where this spectroscopy is typically only used in a routine way. Also, it is seldom used in several disciplines in which it could be a powerful tool to study many problems. The main aim of this book is to try to help reverse these trends.

This book is divided in three parts dealing with 1) high-resolution NMR parameters; 2) methods for understanding high-resolution NMR parameters; and 3) some experimental aspects of high-resolution NMR parameters for studying molecular structures. Each part is divided into chapters written by different specialists who use different methodologies in their work. In turn, each chapter is divided into sections. Some features of the different sections are highlighted: it is expected that part of the readership will be interested only in the basic aspects of some chapters, while other readers will be interested in deepening their understanding of the subject dealt with in them.
Shows how NMR parameters are useful for structure assignment as well as to obtain insight on electronic structuresEmphasis on conceptual aspects

Contributions by specialists who use the discussed methodologies in their everyday work

This volume includes several perspectives on how to connect the United Nations Sustainable Development Goals with the 12 principles of green chemistry, and green chemistry education.

Arthur Conan Doyle's enduringly popular Sherlock Holmes has his own undeniable place in the public eye. Holmes is often seen applying concepts of some branch of science in his work, discussing scientific matters with Watson, or is involved in situations where the applicability of the formal sciences is apparent. The Scientific Sherlock Holmes connects Holmes' vegetable poisons with concepts in botany, his use of fingerprinting with forensic science, and carbon monoxide poisoning and hemoglobin tests with concepts in chemistry, thus integrating the Holmes stories with all branches of science.

CARBON MONOXIDE IN DRUG DISCOVERY An insightful reference for the latest physiological and therapeutic studies of carbon monoxide In Carbon Monoxide in Drug Discovery: Basics, Pharmacology, and Therapeutic Potential, a team of distinguished authors delivers foundational knowledge, the latest research, and remaining challenges regarding the physiological roles and therapeutic efficacy of carbon monoxide (CO). The editors have included a broad selection of resources from leading experts in the field that discuss the background and physiological roles of CO, a variety of delivery forms including CO prodrugs using benign carriers, CO sensing, therapeutic applications, and clinical trials. Organized by topic to allow each chapter to be read individually, the book covers a wide range of topics, from physiological and patho-physiological mechanisms at the molecular level to clinical applications for multiple disease processes. The editors of Carbon Monoxide in Drug Discovery have created a compelling argument for shifting the accepted understanding of CO from poison to bioactive molecule with enormous clinical benefits. Readers will also benefit from: A thorough introduction to the background and physiological actions of carbon monoxide, including endogenous CO production in sickness and in health Comprehensive explorations of CO delivery forms, including non-carrier formulations, metal-carbonyl complexes, and organic CO donors Practical discussions of carbon monoxide sensing and scavenging, including fluorescent probes for intracellular carbon monoxide detection In-depth examinations of the therapeutic applications of CO, including CO in solid organ transplantation Perfect for professors, graduate students, and postdocs in the fields of biology, pharmacology, immunology, medicinal chemistry, toxicology, and drug delivery, Carbon Monoxide in Drug Discovery: Basics, Pharmacology, and Therapeutic Potential is also an invaluable resource for industrial scientists in these areas.

Over the past two decades, there has been a shift in research and industrial practice, and products traditionally manufactured primarily from wood are increasingly combined with other nonwood materials of either natural or synthetic origin. Wood and other plant-based fiber is routinely combined with adhesives, polymers, and other "ingredients" to produce composite materials.

"Introduction to Wood and Natural Fiber Composites" draws together widely scattered information concerning fundamental concepts and technical applications, essential to the manufacture of wood and natural fiber composites. The topics addressed include basic information on the chemical and physical composition of wood and other lignocellulosic materials, the behavior of these materials under thermocompression processes, fundamentals of adhesion, specific adhesive systems used to manufacture composite materials, and an overview of the industrial technologies used to manufacture major product categories. The book concludes with a chapter on the burgeoning field of natural fiber-plastic composites.

"Introduction to Wood and Natural Fiber Composites" is a valuable resource for upper-level undergraduate students and graduate students studying forest products and wood science, as well as for practicing professionals working in operational areas of wood- and natural-fiber processing.

For more information on the Wiley Series in Renewable Resources, visit www.wiley.com/go/rrs

Topics covered include: Overview of lignocellulosic material, their chemical and physical compositionConsolidation behavior of wood and fiber in response to heat and pressureFundamentals of adhesionAdhesives used to bond wood and lignocellulosic compositesManufacturing technology of major product typesFiber/plastic composites

Corrosion is a high-cost and potentially hazardous issue in numerous industries. The potential use of diverse carbon nanoallotropes in corrosion protection, prevention and control is a subject of rising attention. This book covers the current advancements of carbon nanoallotropes in metal corrosion management, including the usage of nanostructure materials to produce high-performance corrosion inhibitors and corrosion-resistant coatings.