A Chemistry background prepares you for much more than just a laboratory career. The broad science education, analytical thinking, research methods, and other skills learned are of value to a wide variety of types of employers, and essential for a plethora of types of positions. Those who are interested in chemistry tend to have some similar personality traits and characteristics. By understanding your own personal values and interests, you can make informed decisions about what career paths to explore, and identify positions that match your needs. By expanding your options for not only what you will do, but also the environment in which you will do it, you can vastly increase the available employment opportunities, and increase the likelihood of finding enjoyable and lucrative employment. Each chapter in this book provides background information on a nontraditional field, including typical tasks, education or training requirements, and personal characteristics that make for a successful career in that field. Each chapter also contains detailed profiles of several chemists working in that field. The reader gets a true sense of what these people do on a daily basis, what in their background prepared them to move into this field, and what skills, personality, and knowledge are required to make a success of a career in this new field. Advice for people interested in moving into the field, and predictions for the future of that career, are also included from each person profiled. Career fields profiled include communication, chemical information, patents, sales and marketing, business development, regulatory affairs, public policy, safety, human resources, computers, and several others. Taken together, the career descriptions and real case histories provide a complete picture of each nontraditional career path, as well as valuable advice about how career transitions can be planned and successfully achieved by any chemist.

In the early nineteenth century, chemistry emerged in Europe as a truly experimental discipline. What set this process in motion, and how did it evolve? Experimentalization in chemistry was driven by a seemingly innocuous tool: the sign system of chemical formulas invented by the Swedish chemist Jacob Berzelius. By tracing the history of this “paper tool,” the author reveals how chemistry quickly lost its orientation to natural history and became a major productive force in industrial society. These formulas were not merely a convenient shorthand, but productive tools for creating order amid the chaos of early nineteenth-century organic chemistry. With these formulas, chemists could create a multifaceted world on paper, which they then correlated with experiments and the traces produced in test tubes and flasks. The author’s semiotic approach to the formulas allows her to show in detail how their particular semantic and representational qualities made them especially useful as paper tools for productive application.

This comprehensive volume marks a new standard in scholarship in the emerging field of the philosophy of chemistry. Philosophers, chemists, and historians of science ask some fundamental questions about the relationship between philosophy and chemistry.

Winner of the PEN/Hemingway Award A Washington Post Notable Book One of the Best Books of the Year: NPR, Entertainment Weekly, Ann Patchett on PBS NewsHour, Minnesota Public Radio, PopSugar, Maris Kreizman, The Morning News Winner of Ploughshares’ John C. Zacharis Award Winner of a Whiting Award A Belletrist Amuse Book At first glance, the quirky, overworked narrator of Weike Wang’s debut novel seems to be on the cusp of a perfect life: she is studying for a prestigious PhD in chemistry that will make her Chinese parents proud (or at least satisfied), and her successful, supportive boyfriend has just proposed to her. But instead of feeling hopeful, she is wracked with ambivalence: the long, demanding hours at the lab have created an exquisite pressure cooker, and she doesn’t know how to answer the marriage question. When it all becomes too much and her life plan veers off course, she finds herself on a new path of discoveries about everything she thought she knew. Smart, moving, and always funny, this unique coming-of-age story is certain to evoke a winning reaction.

Finding new, safe ways to consume food has become complicated as people become more health conscious about the foods they put into their bodies. This work offers information on the field of altering foods for human consumption. It describes the differences between synthetic, engineered, irradiated, and organic foods.

Of Minds and Molecules is the first anthology devoted exclusively to work in the philosophy of chemistry. The essays, written by both chemists and philosophers, adopt distinctive philosophical perspectives on chemistry and collectively offer both a conceptualization of and a justification for this emerging field.

A “visual tour through the under-appreciated chemical beauty that surrounds us,” with astonishing photographs of the scientific processes that create snowflakes, bubbles, flames, and other natural wonders (WIRED) Chemistry is not just about microscopic atoms doing inscrutable things; it is the process that makes flowers and galaxies. We rely on it for bread-baking, vegetable-growing, and producing the materials of daily life. In stunning images and illuminating text, this book captures chemistry as it unfolds. Using such techniques as microphotography, time-lapse photography, and infrared thermal imaging, The Beauty of Chemistry shows us how chemistry underpins the formation of snowflakes, the science of champagne, the colors of flowers, and other wonders of nature and technology. We see the marvelous configurations of chemical gardens; the amazing transformations of evaporation, distillation, and precipitation; heat made visible; and more.

Electric-field-mediated chemistry is an emerging topic that is rapidly growing and fanning out in many directions. It involves theoretical and experimental aspects, as well as intense interplay between them, including breakthrough achievements such as the proof-of-principle that a Diels–Alder reaction, which involves two simultaneous C–C bond making events, can be catalysed or inhibited simply by changing the direction of an oriented external-electric field (OEEF). This productive interplay between the theoretical and experimental branches of chemistry is continuing, and gradually defining a new sub-field wherein various sources of electric fields, whether external or built-in and designed, or even surface induced fields (plasmons), are brought to bear on chemical reactions, molecular structures, and nano-systems, leading to control of reactivity, selectivity, chirality, molecular orientations, changes in structure, and in dynamics. Written by leaders in the field, Effects of Electric Fields on Structure and Reactivity is the first book on this exciting topic. Starting with an overview of the theory behind – and demonstrations of the effect of – electric fields on structure and reactivity, this accessible reference work aims to encourage those new to the field to consider harnessing these effects in their own work. Covering applications and recent theoretical developments, it is a useful resource for theoretical chemists and experimentalists alike.

The book provides a detailed state-of-the-art overview of inorganic chemistry applied to medicinal chemistry and biology. It covers the newly emerging field of metals in medicine and the future of medicinal inorganic chemistry. It is an essential reading for every researcher and student in medicinal and bioinorganic chemistry.

The debt of modern chemistry to Antoine Lavoisier (1743–1794) is incalculable. With Lavoisier's discoveries of the compositions of air and water (he gave the world the term 'oxygen') and his analysis of the process of combustion, he was able to bury once and for all the then prevalent phlogiston doctrine. He also recognized chemical elements as the ultimate residues of chemical analysis and, with others, worked out the beginnings of the modern system of nomenclature. His premature death at the hands of a Revolutionary tribunal is undoubtedly one of the saddest losses in the history of science. Lavoisier's theories were promulgated widely by a work he published in 1789: Traité élémentairede Chimie. The famous English translation by Robert Kerr was issued a year later. Incorporating the notions of the "new chemistry," the book carefully describes the experiments and reasoning which led Lavoisier to his conclusions, conclusions which were generally accepted by the scientific community almost immediately. It is not too much to claim that Lavoisier's Traité did for chemistry what Newton's Principia did for physics, and that Lavoisier founded modern chemistry. Part One of the Traité covers the composition of the atmosphere and water, and related experiments, one of which (on vinous fermentation) permits Lavoisier to make the first explicit statement of the law of the conservation of matter in chemical change. The second part deals with the compounds of acids with various bases, giving extensive tables of compounds. Its most significant item, however, is the table of simple substances or elements — the first modern list of the chemical elements. The third section of the book reviews in minute detail the apparatus and instruments of chemistry and their uses. Some of these instruments, etc. are illustrated in the section of plates at the end. This new facsimile edition is enhanced by an introductory essay by Douglas McKie, University College London, one of the world's most eminent historians of science. Prof. McKie gives an excellent survey of historical developments in chemistry leading up to the Traité, Lavoisier's major contributions, his work in other fields, and offers a critical evaluation of the importance of this book and Lavoisier's role in the history of chemistry. This new essay helps to make this an authoritative, contemporary English-language edition of one of the supreme classics of science.