This indispensable guide will equip the reader with a thorough understanding of the field of foaming chemistry. Assuming only basic theoretical background knowledge, the book provides a straightforward introduction to the principles and properties of foams and foaming surfactants. It discusses the key ideas that underpin why foaming occurs, how it can be avoided and how different degrees of antifoaming can be achieved, and covers the latest test methods, including laboratory and industrial developed techniques. Detailing a variety of different kinds of foams, from wet detergents and food foams, to polymeric, material and metal foams, it connects theory to real-world applications and recent developments in foam research. Combining academic and industrial viewpoints, this book is the definitive stand-alone resource for researchers, students and industrialists working on foam technology, colloidal systems in the field of chemical engineering, fluid mechanics, physical chemistry, and applied physics.

Nuclear magnetic resonance (NMR) spectroscopy, a technique widely used for structure determination by chemists and biochemists, is based on the detection of tiny radio signals emitted by the nucleus of an atom when immersed in a strong magnetic field. Every chemical substance gives rise to a recognizable NMR signature closely related to its molecular structure. This comprehensive account adopts an accessible, pictorial approach to teach the fundamental principles of high resolution NMR. Mathematical formalism is used sparingly, and everyday analogies are used to provide insight into the physical behaviour of nuclear spins. The first three chapters set out the basic tools for understanding the rest of the book. Each of the remaining chapters provides a self- contained reference to a specific theme, for example spin echoes, and traces the way it influences our understanding of high resolution NMR methodology. Spin Choreography provides a clear and an authoritative introduction to the fundamental principles of high resolution NMR, which will appeal to all practitioners who wish to master this complex but fascinating subject. The book will also serve as supplementary reading for upper-level undergraduate and graduate courses on spectroscopy and physical methods.

Catalyst/Polymerization: Model Silica Supported Olefin Polymerization Catalysts (J.P. Blitz). Statistical Propagation Models for ZieglerNatta Polymerization (H.N. Cheng). Supported Catalysts in Stirred Bed Gas Phase Reactors (K.D. Hungenberg, M. Kersting). Functionalization: Functional Polyolefins Prepared by Borane Research (T.C. Chung). Synthesis of PolyolefinPMMA Graft Copolymers (T.C. Chung et al.). Supported Lewis Acid Catalysts Based on Polyolefin Thermoplastics (T.C. Chung, A. Kumar). Characterization: Structure, Crystallization, and Melting of Linear, Branched, and Copolymerized Polyethylenes as Revealed by Fractionation Methods and DSC (V.B.F. Mathot). Development of High Performance TREF for Polyolefin Analysis (L. Wild, C. Blatz). NMR Analysis of Multicomponent Polyolefins (H.N. Chang). Polyolefin Blends and Composites: PolyethyleneCopolymer Blends (B. Crist, J. Rhee). Interphase Design in Cellulose Fiber/Polypropylene Composites (P. Gatenholm, J.M. Felix). 7 additional articles. Index.

The world faces significant challenges as population and consumption continue to grow while nonrenewable fossil fuels and other raw materials are depleted at ever-increasing rates. This volume takes a technical approach that addresses these issues using green design and analysis. It brings together innovative research, new concepts, and novel developments in the application of new tools for chemical and materials engineers. It is an immensely research-oriented, comprehensive, and practical work that focuses on the use of applied concepts to enhance productivity and sustainability in chemical engineering. It contains significant research that reports on new methodologies and important applications in the fields of chemical engineering as well as the latest coverage of chemical databases. Highlighting theoretical foundations, real-world cases, and future directions, the volume covers a diverse collection of the newest innovations in the field, including new research on atomic/nuclear physics, the barometric formula, amino acids in aqueous solutions, bioremediation and biotechnology, and more.

The book illustrates the fascinating world of the different forms of water - from ice and snow to liquid water. The water molecule, H2O, is the second most common molecule in the Universe (behind hydrogen, H2) and ice is the most abundant solid material. Snow and ice appear in a countless large number of different shapes and with properties which can be quite different. Detailed knowledge of the properties of snow is of great importance for the Sami people involved in reindeer herding and several hundred names are used to characterize the different types.The properties of ice and liquid water are very special and unique in several respects. In contrast to most other substances, the density of ice is lower than that of liquid water, which has many very important consequences in our daily life. Water plays a unique role in chemistry and although tremendous research has been spent on this seemingly simple substance, there are still many unsolved questions about the structure of liquid water. The special properties of water are due to hydrogen bonding between the H2O molecules, and this book may be seen as a tribute to the hydrogen bond. The general properties of the hydrogen bond are treated in three separate papers. The hydrogen bond is of fundamental importance in biological systems since all living matter has evolved from and exists in an aqueous environment and hydrogen bonds are involved in most biological processes. There is a hundred times more water molecules in our bodies than the sum of all the other molecules put together.

The book illustrates the fascinating world of the different forms of water - from ice and snow to liquid water. The water molecule, H2O, is the second most common molecule in the Universe (behind hydrogen, H2) and ice is the most abundant solid material. Snow and ice appear in a countless large number of different shapes and with properties which can be quite different. Detailed knowledge of the properties of snow is of great importance for the Sami people involved in reindeer herding and several hundred names are used to characterize the different types.The properties of ice and liquid water are very special and unique in several respects. In contrast to most other substances, the density of ice is lower than that of liquid water, which has many very important consequences in our daily life. Water plays a unique role in chemistry and although tremendous research has been spent on this seemingly simple substance, there are still many unsolved questions about the structure of liquid water. The special properties of water are due to hydrogen bonding between the H2O molecules, and this book may be seen as a tribute to the hydrogen bond. The general properties of the hydrogen bond are treated in three separate papers. The hydrogen bond is of fundamental importance in biological systems since all living matter has evolved from and exists in an aqueous environment and hydrogen bonds are involved in most biological processes. There is a hundred times more water molecules in our bodies than the sum of all the other molecules put together.

Recent Methodology in Chemical Sciences provides an eclectic survey of contemporary problems in experimental, theoretical, and applied chemistry. This book covers recent trends in research with the different domain of the chemical sciences. The chapters, written by knowledgeable researchers, provide different insights to the modern-day research in the domain of spectroscopy, plasma modification, and theoretical and computational analysis of chemical problems. It covers descriptions of experimental techniques, discussions on theoretical modeling, and much more.

This book includes the fundamental science and applications of carbon-based materials, in particular fused polycyclic hydrocarbon, fullerene, diamond, carbides, graphite and graphene etc. During the past decade, these carbon-based materials have attracted much interest from many scientists and engineers because of their exciting physical properties and potential application toward electronic and energy devices. In this book, the fundamental theory referring to these materials, their syntheses and characterizations, the physical properties (physics), and the applications are fully described, which will contribute to an advancement of not only basic science in this research field but also technology using these materials. The book's targets are researchers and engineers in the field and graduate school students who specialize in physics, chemistry, and materials science. Thus, this book addresses the physics and chemistry of the principal materials in the twenty-first century.

This book covers all the basic and applied aspects of crystallization processes based on membrane technology. Synthesis and processing of membrane materials are discussed and reviewed, while mass/heat transport and control are treated in view of the non-reversible thermodynamic principles and statistical thermodynamics. Engineering process design and crystalline materials products properties, and also the relation to other traditional crystallization formats, are analyzed. Advantages, limitations, and future developments are also included in the content, with special emphasis on new fields of applications like microfluidic configurations, controlled proteins (also membrane proteins) crystallization, organic semiconductors single crystals production, and optical materials.

This textbook offers an introduction to multiple, interdependent transport phenomena as they occur in various fields of physics and technology like transport of momentum, heat, and matter. These phenomena are found in a number of combined processes in the fields of chemical, food, biomedical, and environmental sciences. The book puts a special emphasis on numerical modeling of both purely diffusive mechanisms and macroscopic transport such as fluid dynamics, heat and mass convection. To favor the applicability of the various concepts, they are presented with a simplicity of exposure, and synthesis has been preferred with respect to completeness. The book includes more than 130 graphs and figures, to facilitate the understanding of the various topics. It also presents many modeling examples throughout the text, to control that the learned material is properly understood. There are some typos in the text. You can see the corrections here: http://www.springer.com/cda/content/document/cda_downloaddocument/ErrataCorrige_v0.pdf?SGWID=0-0-45-1679320-p181107156

The use of conducting polymers for the anticorrosion protection of metals has attracted great interest during the last 30 years. The design and development of conducting polymers-based coating systems with commercial viability is expected to be advanced by applying nanotechnology and has received substantial attention recently. This book begins with corrosion fundamentals and ends with an emphasis on developments made in conducting polymer science and technology using nanotechnology. Additionally, it gives a detailed account of experimental methods of corrosion testing.

Introduction to Chemical Graph Theory is a concise introduction to the main topics and techniques in chemical graph theory, specifically the theory of topological indices. These include distance-based, degree-based, and counting-based indices. The book covers some of the most commonly used mathematical approaches in the subject. It is also written with the knowledge that chemical graph theory has many connections to different branches of graph theory (such as extremal graph theory, spectral graph theory). The authors wrote the book in an appealing way that attracts people to chemical graph theory. In doing so, the book is an excellent playground and general reference text on the subject, especially for young mathematicians with a special interest in graph theory. Key Features: A concise introduction to topological indices of graph theory Appealing to specialists and non-specialists alike Provides many techniques from current research About the Authors: Stephan Wagner grew up in Graz (Austria), where he also received his PhD from Graz University of Technology in 2006. Shortly afterwards, he moved to South Africa, where he started his career at Stellenbosch University as a lecturer in January 2007. His research interests lie mostly in combinatorics and related areas, including connections to other scientific fields such as physics, chemistry and computer science. Hua Wang received his PhD from University of South Carolina in 2005. He held a Visiting Research Assistant Professor position at University of Florida before joining Georgia Southern University in 2008. His research interests include combinatorics and graph theory, elementary number theory, and related problems

Volume 9: Historical Perspectives, Part A: The Development of Mass Spectrometry of The Encyclopedia of Mass Spectrometry describes and analyzes the development of many aspects of Mass Spectrometry. Beginning with the earliest types of Mass Analyzers, Historical Perspectives explores the development of many different forms of analytical processes and methods. The work follows various instruments and interfaces, to the current state of detectors and computerization. It traces the use of Mass Spectrometry across many different disciplines, including Organic Chemistry, Biochemistry, and Proteomics; Environmental Mass Spectrometry; Forensic Science; Imaging; Medical Monitoring and Diagnosis; Earth and Planetary Sciences; and Nuclear Science. Finally, the book covers the history of manufacturers and societies as well as the professionals who form the Mass Spectrometry community. Also available: Volume 9: Historical Perspectives, Part B: Notable People in Mass Spectrometry briefly reviews the lives and works of many of the major people who carried out this development.

This book describes atomic orbitals at a level suitable for undergraduates in chemistry. The mathematical treatment is brought to life by many illustrations rendered from mathematical functions (no artists' impressions), including three-dimensional plots of angular functions, showing orbital phase, and contour plots of the wavefunctions that result from orbital hybridisation.Orbitals extends the key fundamental quantum properties to many-electron atoms, linear combinations of atomic orbitals, simple molecules, delocalised systems and atomic spectroscopy. By focusing on simple model systems, use of analogies and avoiding group theory the results are obtained from initial postulates without the need for sophisticated mathematics.

I. Electron Transfer Reactions.- 1. Electron Transfer: General and Theoretical.- 1.1. Overview and General Aspects of Reactions in Fluid Media.- 1.2. Electronic Coupling (Ke1).- 1.2.1. The Distance Dependence of Electron Transfer Rates.- 1.2.2. Electric and Magnetic Field Effects on Electronic Coupling and Related Problems of Photoinduced Electron Transfer.- 1.3. The Free-Energy Dependence of Electron Transfer Reactions: The "Inverted Region" Problem.- 1.4. The Effects of Solvent Dynamics.- 1.5. Metal-to-Metal and Ligand-to-Ligand Charge Transfer ("Inter-valence" Transfer).- 2. Redox Reactions between Two Metal Complexes.- 2.1. Introduction.- 2.2. Reactions of Metal Aqua and Oxo Ions.- 2.2.1. Titanium.- 2.2.2. Vanadium and Chromium.- 2.2.3. Iron.- 2.2.4. Molybdenum and Tungsten.- 2.3. Reactions of Metal Ion Complexes.- 2.3.1. Chromium.- 2.3.2. Manganese.- 2.3.3. Iron, Ruthenium, and Osmium.- 2.3.4. Cobalt and Rhodium.- 2.3.5. Nickel, Palladium, and Platinum.- 2.3.6. Copper and Silver.- 2.3.7. Technetium and Rhenium.- 2.3.8. Ytterbium.- 2.4. Reactions with Metalloproteins.- 2.4.1. Introduction.- 2.4.2. Copper Proteins.- 2.4.3. Hemoglobin and Myoglobin.- 2.4.4. Cytochromes.- 2.4.5. Iron-Sulfur Proteins.- 3. Metal-Ligand Redox Reactions.- 3.1. Introduction.- 3.2. Oxygen, Peroxide, and Other Oxygen Compounds.- 3.2.1. Dioxygen.- 3.2.2. Hydrogen Peroxide.- 3.2.3. Alkyl Hydroperoxides.- 3.3. Nitrogen Compounds and Oxyanions.- 3.3.1. Hydrazine, Azides, Hydroxylamines, and Derivatives.- 3.3.2. Oxynitrogen Compounds.- 3.3.3. Amines and Nitriles.- 3.4. Sulfur Compounds and Oxyanions.- 3.4.1. Peroxodisulfate and Peroxomonosulfate.- 3.4.2. Sulfur Dioxide and Sulfite Ions.- 3.4.3. Sulfoxides.- 3.4.4. Alkyl Sulfur Compounds.- 3.4.5. Selenium, Tellurium, and Elemental Sulfur.- 3.5. Halogen, Halides, and Halogen Oxyanions.- 3.5.1. Halogens.- 3.5.2. Halides.- 3.5.3. Oxyhalogen Compounds.- 3.6. Phosphorus, Arsenic, and Oxycompounds.- 3.6.1. Phosphorus Oxyanions.- 3.6.2. Phosphines and Arsines.- 3.7. Inorganic Radicals.- 3.8. Ascorbic Acid, Quinols, Catechols, and Diols.- 3.8.1. Ascorbic Acid.- 3.8.2. Aromatic Diols and Diones.- 3.8.3. Aromatic and Aliphatic Alcohols.- 3.9. Carboxylic Acids, Carboxylates, Carbon Dioxide, and Carbon Monoxide.- 3.9.1. Carboxylic Acids and Carboxylates.- 3.9.2. Carbon Dioxide and Carbon Monoxide.- 3.10. Alkyl Halides.- 3.11. Organic Radicals.- II. Substitution and Related Reactions.- 4. Reactions of Compounds of the Nonmetallic Elements.- 4.1. Boron.- 4.2. Carbon.- 4.3. Silicon.- 4.4. Germanium.- 4.5. Nitrogen.- 4.6. Phosphorus.- 4.7. Arsenic.- 4.8. Oxygen.- 4.9. Sulfur.- 4.10. Selenium and Tellurium.- 4.11. Halogens, Krypton, and Xenon.- 4.11.1. Fluorine.- 4.11.2. Chlorine.- 4.11.3. Bromine.- 4.11.4. Iodine.- 4.11.5. Krypton and Xenon.- 4.12. Oscillating Reactions.- 5. Substitution Reactions of Inert-Metal Complexes-Coordination Numbers 4 and 5.- 5.1. Introduction.- 5.2. Associative Ligand Exchange at Square-Planar Platinum(II).- 5.3. Associative Ligand Exchange at Square-Planar Palladium(II).- 5.4. Ligand Exchange at Platinum(II) by Dissociative Processes.- 5.5. Ligand Exchange at Nickel.- 5.6. Reactions of Planar Ir(I), Rh(I), Au(III), and Cu(II) Complexes.- 5.7. Five-Coordinate Species.- 5.8.TransEffect.- 5.9. Isomerizations.- 6. Substitution Reactions of Inert-Metal Complexes-Coordination Numbers 6 and Above: Chromium.- 6.1. Introduction.- 6.2. Aquation and Solvolysis of Chromium(III) Complexes.- 6.2.1. [Cr(III)(L5)X]n+1Systems (L = OH2, NH3).- 6.2.2. Cr(III)-C Bond Rupture.- 6.2.3. Amine and Other Complexes.- 6.2.4. Dechelation/Chelation Processes.- 6.2.5. Metal-Ion-Assisted Aquation.- 6.2.6. Porphyrins.- 6.3. Formation of Chromium(III) Complexes.- 6.3.1. The Nature of the Cr3+Cation in Aqueous Solution.- 6.3.2. Anation Reactions.- 6.4. Base Hydrolysis.- 6.5. Oxidation and Reduction of Cr(III) Complexes.- 6.6. Isomerization and Racemization.- 6.7. Photochemistry and Photophysics of Chromium(III) Complexes.-...

The Elementary Reaction Steps in Heterogeneous Catalysis was studies during the first week in November, 1992, by no fewer than 54 participants, drawn from 11 countries, with both industrial and academic backgrounds. The five sessions reported in the book cover: Catalytic reactivity; Surface science studies in catalysis; In situ methods in catalysis; The contribution of theory to catalytic understanding; and Chemical kinetics and chemical engineering. The book ends with Summary lectures, a list of contributors, and an index.

The interest in finding reliable and highly sensitive sensors for water quality control has grown recently empowered by the explosion of cutting-edge technologies such as nanotechnologies, optoelectronics, and computing on one hand and by the increasing need for more secure control of water quality on the other hand. This book highlights a number of modern topics in the field of biosensing particularly for water sensing in which the signal is enhanced, starting from surface enhanced spectroscopies using plasmonic structures such as Raman scattering (SERS), infrared enhanced absorption (SEIRA), and surface enhanced fluorescence (SEF). The SPR enhanced detection is highlighted in two chapters and addressed using signal processing and the use of color of solutions as a result of modification of the LSPR properties of nanoparticles. Porous materials are another field of research where the enhancement is achieved due to the increasing the area- to-volume ratio. Good examples are the two emerging fields of porous Si and sculptured thin films prepared by the oblique deposition technique. One of the long standing problems is bacteria detection in water which is addressed thoroughly with emphasis on the problems usually encountered in detecting large bioentities.

Presenting new developments from nearly a decade of advancement, this reference provides examples of the most original scientific and technical research impacting studies in porosity and microporosity-illustrating methods to forecast the properties of microporous structures for improved electronic, construction, electrical, chemical, military, sanitary, and medical applications. Clearly outlines new results in fractal, self-organization, and polymer theories; models of adsorption, pore aging, and percolation; stability and resistance; and their various engineering applications. Written by a leading researcher in the field, Microporous Media: -analyzes, compares, and classifies existing models of narrow pores and microporosity-related phenomena-emphasizing their usefulness in determining the efficacy of new materials and compounds. -provides working calculative techniques, as well as energetic, technical, and ecomomic estimations and investment recommendations. -considers the impact of preparation conditions on the structure and properties of microporous materials. -describes the practical application of the concept of microporosity and the organizational aspects of its introduction in everyday practices of scientists, technologists, and investors. -explores theoretical and experimental studies of micropores and the development of models of pore formation. Microporous Media is an invaluable reference for all physical, surface, colloid, polymer, medicinal, and analytical chemists; chemical engineers; materials scientists; chemical physicists; and graduate students in these disciplines.

Nanoparticles can be viewed as a new type of 'atom' with size dependent physical, optical and electronic properties that make them suitable for a wide variety of applications. There are many open questions in the field of nanoparticle synthesis and assembly: how does the nanoparticle-nanoparticle potential govern nanoparticle formation or assembly? Can we design a nanoparticle from the ground up, according to theoretical predictions, which will self-assemble into a given nanoparticle superlattice structure? How does the assembly process vary with nanoparticle shape and the ligand coating which surrounds each nanoparticle? The answers to these questions require the coordination and collaboration of nanoparticle theorists, synthesizers, and assemblers. Following the Nanoparticle Synthesis and Assembly: Faraday Discussion (April 2015), this book brings together a diverse group of scientists to deliberate the latest developments in nanoparticle theory, synthesis and assembly and to generate new ideas and engender new collaborations between these groups.

The primary goal of the book is to promote research and developmental activities in energy, power technology and chemical technology. Besides, it aims to promote scientific information interchange between scholars from top universities, business associations, research centers and high-tech enterprises working all around the world. The conference conducted in-depth exchanges and discussions on relevant topics such as energy engineering and chemical engineering, aiming to provide an academic and technical communication platform for scholars and engineers engaged in scientific research and engineering practice in the field of energy materials, energy equipment and electrochemistry. By sharing the research status of scientific research achievements and cutting-edge technologies, it helps scholars and engineers all over the world comprehend the academic development trends and broaden research ideas. So as to strengthen international academic research, academic topics exchange and discussion, and promote the industrialization cooperation of academic achievements.

"Computer Simulation in Chemical Physics" contains the proceedings of a NATO Advanced Study Institute held at CORISA, Alghero, Sardinia, in September 1992. In the years that have elapsed since the field was last summarised there have been a number of advances which have significantly expanded the scope of the methods. Good examples are the Car-Parrinello method, which allows the study of materials with itinerant electrons; the Gibbs technique for the direct simulation of liquid vapour phase equilibria; the transfer of scaling concepts from simulations of spin models to more complex systems; and the development of the configurational-biased Monte-Carlo methods for studying dense polymers. The field has also been stimulated by an enormous increase in available computing power and the provision of recent software. All these developments, and more, are discussed in an accessible way here, making the text suitable reading for graduate students and research scientists in both academic and industrial settings.

Knowledge of thermodynamics is a necessary tool for describing and understanding the physical behavior of new polymers and polymer blends, for instance, compatibility of components, rheological properties, morphological features, and mechanical properties. This book summarizes in a fairly comprehensive manner the recent technical research accomplishments in the area of thermodynamics, characterizations, and applications of polymer blends. In the first chapter, an overview of thermodynamic behaviors of non-equilibrium polymers is discussed. In the consecutive chapters, different properties of polymer blends are discussed, including surface tension, transition, crystallization, morphology, and flow behaviors. Miscibility and molecular characterizations of polymer blends are also covered in this book. Applications to various systems are reviewed, and both experimental concerns and references are supplied. In this time when science has such a strong tendency for diversification, this book demonstrates the relevance of one's own activities with neighboring branches of activities. This book is unique in that the mathematics of the physics of polymers are minimized in order not to discourage the interest of a junior or senior undergraduate or new graduate student by an unnecessarily rigorous approach. However, book aims to widen the readers' general knowledge with a better understanding of the physics of polymers. Applications to various systems are reviewed, and both experimental concerns and references are supplied.

Volume 9: Historical Perspectives, Part B: Notable People in Mass Spectrometry of The Encyclopedia of Mass Spectrometry briefly reviews the lives and works of many of the major people who carried out this development, providing insights into the history of mass spectrometry applications through the personal stories of pioneers and innovators in the field. The book presents biographies of notable contributors, including Nobel Prize winners J. J. Thomson, Francis W. Aston, Wolfgang Paul, John B. Fenn, and Koichi Tanaka, along with other luminaries in the field, including Franz Hillenkamp, Catherine Clarke Fenselau, Alfred O. C. Nier, and many more, discussing not only the instruments and their uses, but also providing interesting information on the careers, characters, and life stories of the people who did the work.

Applied Photochemistry encompasses the major applications of the chemical effects resulting from light absorption by atoms and molecules in chemistry, physics, medicine and engineering, and contains contributions from specialists in these key areas. Particular emphasis is placed both on how photochemistry contributes to these disciplines and on what the current developments are. The book starts with a general description of the interaction between light and matter, which provides the general background to photochemistry for non-specialists. The following chapters develop the general synthetic and mechanistic aspects of photochemistry as applied to both organic and inorganic materials, together with types of materials which are useful as light absorbers, emitters, sensitisers, etc. for a wide variety of applications. A detailed discussion is presented on the photochemical processes occurring in the Earth's atmosphere, including discussion of important current aspects such as ozone depletion. Two important distinct, but interconnected, applications of photochemistry are in photocatalytic treatment of wastes and in solar energy conversion. Semiconductor photochemistry plays an important role in these and is discussed with reference to both of these areas. Free radicals and reactive oxygen species are of major importance in many chemical, biological and medical applications of photochemistry, and are discussed in depth. The following chapters discuss the relevance of using light in medicine, both with various types of phototherapy and in medical diagnostics. The development of optical sensors and probes is closely related to diagnostics, but is also relevant to many other applications, and is discussed separately. Important aspects of applied photochemistry in electronics and imaging, through processes such as photolithography, are discussed and it is shown how this is allowing the increasing miniaturisation of semiconductor devices for a wide variety of electronics applications and the development of nanometer scale devices. The final two chapters provide the basic ideas necessary to set up a photochemical laboratory and to characterise excited states. This book is aimed at those in science, engineering and medicine who are interested in applying photochemistry in a broad spectrum of areas. Each chapter has the basic theories and methods for its particular applications and directs the reader to the current, important literature in the field, making Applied Photochemistry suitable for both the novice and the experienced photochemist.

Written for use in the first course of a typical chemical engineering program, Material Balances for Chemical Reacting Systems introduces and teaches students a rigorous approach to solving the types of macroscopic balance problems they will encounter as chemical engineers. This first course is generally taken after students have completed their studies of calculus and vector analysis, and these subjects are employed throughout this text. Since courses on ordinary differential equations and linear algebra are often taken simultaneously with the first chemical engineering course, these subjects are introduced as needed. Teaches readers the fundamental concepts associated with macroscopic balance analysis of multicomponent, reacting systems Offers a novel and scientifically correct approach to handling chemical reactions Includes an introductory approach to chemical kinetics Features many worked out problems, beginning with those that can be solved by hand and ending with those that benefit from the use of computer software This textbook is aimed at undergraduate chemical engineering students but can be used as a reference for graduate students and professional chemical engineers as well as readers from environmental engineering and bioengineering. The text features a solutions manual with detailed solutions for all problems, as well as PowerPoint lecture slides available to adopting professors.