Victor Stanley is on a business trip to Japan. He is demonstrating a remarkable new anti-counterfeiting coating recently invented and proved by the English advanced electro-chemical company NTI plc. NTI have a close working relationship with the Japanese electronics company Nonaka Industries where a joint venture is likely to be established, his contact there is Kenezo Nonaka, son of the owner. Lee Doo-hwan is a Korean working out of Singapore with fingers in many shady activities but also legitimate businesses one of which is in electronics, amongst his employees is the beautiful Veronica Tan who’s fathers business he had effectively stolen some years back leading to Mr Tan’s heart attack and death. Veronica was waiting for her revenge.

Breaking Bad, hailed by Stephen King, Chuck Klosterman, and many others as the best of all TV dramas, tells the story of a man whose life changes because of the medical death sentence of an advanced cancer diagnosis. The show depicts his metamorphosis from inoffensive chemistry teacher to feared drug lord and remorseless killer. Driven at first by the desire to save his family from destitution, he risks losing his family altogether because of his new life of crime. In defiance of the tradition that viewers demand a TV character who never changes, Breaking Bad is all about the process of change, with each scene carrying forward the morphing of Walter White into the terrible Heisenberg. Can a person be transformed as the result of a few key life choices? Does everyone have the potential to be a ruthless criminal? How will we respond to the knowledge that we will be dead in six months? Is human life subject to laws as remorseless as chemical equations? When does injustice validate brutal retaliation? Why are drug addicts unsuitable for operating the illegal drug business? How can TV viewers remain loyal to a series where the hero becomes the villain? Does Heisenberg’s Principle of Uncertainty rule our destinies? In Breaking Bad and Philosophy, a hand-picked squad of professional thinkers investigate the crimes of Walter White, showing how this story relates to the major themes of philosophy and the major life decisions facing all of us.

All the science in Breaking Bad -- from explosive experiments to acid-based evidence destruction--explained and analyzed for authenticity. Breaking Bad' s (anti)hero Walter White (played by Emmy-winner Bryan Cranston) is a scientist, a high school chemistry teacher who displays a plaque that recognizes his “contributions to research awarded the Nobel Prize.” During the course of five seasons, Walt practices a lot of ad hoc chemistry--from experiments that explode to acid-based evidence destruction to an amazing repertoire of methodologies for illicit meth making. But how much of Walt's science is actually scientific? In The Science of “Breaking Bad, ” Dave Trumbore and Donna Nelson explain, analyze, and evaluate the show's portayal of science, from the pilot's opening credits to the final moments of the series finale. The intent is not, of course, to provide a how-to manual for wannabe meth moguls but to decode the show's most head-turning, jaw-dropping moments. Trumbore, a science and entertainment writer, and Nelson, a professor of chemistry and Breaking Bad' s science advisor, are the perfect scientific tour guides. Trumbore and Nelson cover the show's portrayal of chemistry, biology, physics, and subdivisions of each area including toxicology and electromagnetism. They explain, among other things, Walt's DIY battery making; the dangers of Mylar balloons; the feasibility of using hydrofluoric acid to dissolve bodies; and the chemistry of methamphetamine itself. Nelson adds interesting behind-the-scenes anecdotes and describes her work with the show's creator and writers. This is a book for every science buff who appreciated the show's scientific moments and every diehard Breaking Bad fan who wondered just how smart Walt really was.

From the New York Times bestselling author Simone Elkeles comes an epic love story like no other . . . First in the gripping PERFECT CHEMISTRY series, this is the next addictive read for fans of Anna Todd's AFTER series, and Caroline Kepnes's YOU. When Brittany Ellis walks into chemistry class on the first day of senior year, she has no clue that her carefully created 'perfect' life is about to unravel before her eyes. Forced to be lab partners with Alex Fuentes, a gang member from the other side of town, Brittany finds herself having to protect everything she's worked so hard for – her flawless reputation, her relationship with her boyfriend and, most importantly, the secret that her home life is anything but perfect. Alex is a bad boy and he knows it. So when he makes a bet with his friends to lure Brittany into his life, he thinks nothing of it. But the closer Alex and Brittany get to each other the more they realise that sometimes appearances can be deceptive and that you have to look beneath the surface to discover the truth. 'Compelling and addictive… I've still got that "wow" feeling you get after reading a great book' Wondrousreads.com 'Perfect Chemistry is a novel to obsess about. It is a book that you should drop everything for...the most romantic love story that I have ever read.' Thebookette.com 'Captures that rush of feelings associated with first love' Thebookbag.com 'Elkeles pens plenty of tasteful, hot scenes…that keep the pages turning. The author definitely knows how to write romance.' Kirkus Review

"Can Munowitz write or what!" exclaimed one advance reviewer of this extraordinary new text.

The detailed history of a multi-year effort to promote diversity in one organization

This one-stop resource is ideal for understanding the extent to which toxic chemicals are used in U.S. industry and agriculture—impacting public health and the environment through everything from industrial solvents to children's toys. Every year, about 4 billion pounds of toxic chemicals are generated and released by U.S. industries. Do these chemicals pose a potential health threat to American families, including vulnerable groups like children and the elderly? Is their manufacture and use adequately regulated to protect both human and environmental health? Is the Chemical Safety for the 21st Century Act, signed in June 2016 by President Barack Obama with bipartisan support, truly the first major overhaul of toxic chemical regulation in 40 years to put human health first, as its supporters asserted? Or is it a fatally flawed bill that does the bidding of industry by undermining strong state environmental and public health laws, as some detractors claim? This two-volume set addresses all of those questions. Moreover, it presents and examines arguments marshaled by business interests, community leaders, scientists, activists, and lawmakers alike. It thus provides users with the information they need to accurately assess the impacts—pro and con—that industrial chemicals are having in shaping the world in which we work, eat, drink, breathe, and play.

Nancy investigates the theft of a top-secret chemical compound from the biochemistry lab at Emerson College.

The evolution of a discipline at the intersection of physics, chemistry, and mathematics. Quantum chemistry—a discipline that is not quite physics, not quite chemistry, and not quite applied mathematics—emerged as a field of study in the 1920s. It was referred to by such terms as mathematical chemistry, subatomic theoretical chemistry, molecular quantum mechanics, and chemical physics until the community agreed on the designation of quantum chemistry. In Neither Physics Nor Chemistry, Kostas Gavroglu and Ana Simões examine the evolution of quantum chemistry into an autonomous discipline, tracing its development from the publication of early papers in the 1920s to the dramatic changes brought about by the use of computers in the 1970s. The authors focus on the culture that emerged from the creative synthesis of the various traditions of chemistry, physics, and mathematics. They examine the concepts, practices, languages, and institutions of this new culture as well as the people who established it, from such pioneers as Walter Heitler and Fritz London, Linus Pauling, and Robert Sanderson Mulliken, to later figures including Charles Alfred Coulson, Raymond Daudel, and Per-Olov Löwdin. Throughout, the authors emphasize six themes: epistemic aspects and the dilemmas caused by multiple approaches; social issues, including academic politics, the impact of textbooks, and the forging of alliances; the contingencies that arose at every stage of the developments in quantum chemistry; the changes in the field when computers were available to perform the extraordinarily cumbersome calculations required; issues in the philosophy of science; and different styles of reasoning.