When a ship's surgeon during a routine episode of bloodletting noticed that the sailors' blood was brighter in the tropics than in the north, he hypothesized that heat was a form of energy.When a young boy tried to visualize what a beam of light would look like by riding alongside it at the same speed, he began thinking along lines that eventually changed our views of space and time.When a student caught hay fever and went to recover on Heligoland, he started a major revolution in physics. These are but just some of the stories covered in this entertaining book that deals with the history of physics from the end of the 19th-century to about 1930.Quips, Quotes and Quanta (2nd Edition) is unique in that it contains anecdotes on physicists creating new ideas. Often the thinking of the creators of what is now called “modern physics” is revealed through quotes. Thematic and biographical in nature, this book also includes many personal incidents.This second edition has been revised to include new material: a prologue, epilogue, glossary and chronology, and photographs as well as additional quotes and anecdotes.

This book deals with the history of physics, covering important developments in physics from the end of the nineteenth century to about 1930. Major topics include relativity theory (both special and general) and quantum mechanics.This book is unique in that it concentrates on anecdotes about the physicists creating the new ideas. Both thematic and biographical in nature, it contains a heavy emphasis on personal incidents or quotes. Readers will be entertained with humorous incidents in the lives of some famous scientists, and simultaneously learn quite a bit of modern physics without the mathematical details, but with the important concepts. Academics and anyone interested in science in the most general sense are likely to want to read this book.

This enlightening book, a sequel to QUIPS, QUOTES, AND QUANTA, helps readers to understand how physicists think about and look at the world. Starting with the discovery and investigation of cosmic rays, the book proceeds to cover some major areas of modern physics in laymen's terms. Unlike other books that deal with the history of physics, this volume concentrates on anecdotes about the physicists who created the new ideas, with a heavy emphasis on personal incidents and quotes. At the same time it presents, in every day language, the ideas created by these physicists. Both thematic and biographical in nature, readers will be entertained with humorous events in the lives of some famous scientists. Readers will also learn quite a lot about modern physics without the mathematical details, but with the important concepts intact.

Weird Scientists is a sequel to Men of Manhattan. As I wrote the latter about the nuclear physicists who brought in the era of nuclear power, quantum mechanics (or quantum physics) was unavoidable. Many of the contributors to the science of splitting the atom were also contributors to quantum mechanics. Atomic physics, particle physics, quantum physics, and even relativity are all interrelated. This book is about the men and women who established the science that shook the foundations of classical physics, removed determinism from measurement, and created alternative worlds of reality. The book introduces fundamental concepts of quantum mechanics, roughly in the order they were discovered, as a launching point for describing the scientist and the work that brought forth the concepts.

In The Age of Entanglement, Louisa Gilder brings to life one of the pivotal debates in twentieth century physics. In 1935, Albert Einstein famously showed that, according to the quantum theory, separated particles could act as if intimately connected–a phenomenon which he derisively described as “spooky action at a distance.” In that same year, Erwin Schrödinger christened this correlation “entanglement.” Yet its existence was mostly ignored until 1964, when the Irish physicist John Bell demonstrated just how strange this entanglement really was. Drawing on the papers, letters, and memoirs of the twentieth century’s greatest physicists, Gilder both humanizes and dramatizes the story by employing the scientists’ own words in imagined face-to-face dialogues. The result is a richly illuminating exploration of one of the most exciting concepts of quantum physics.

Why is it that science has consistently thrived wherever the Christian faith can be found? Why is it that so many great scientists - past and present - attribute their motivation and their discoveries, at least partially, to their Christian beliefs? Why are the age-old writings of the Bible so full of questions about natural phenomena? And, perhaps most importantly of all, why is all this virtually unknown to the general public? Too often, it would seem, science has been presented to the outside world as a robotic, detached, unemotional enterprise. Too often, Christianity is dismissed as being an ancient superstition. In reality, neither is the case. Science is a deeply human activity, and Christianity is deeply reasonable. Perhaps this is why, from ancient times right up to today, many individuals have been profoundly committed to both - and have helped us to understand more and more about the extraordinary world that we live in. As authors Tom McLeish and David Hutchings examine the story of science, and look at the part that Christianity has played, they uncover a powerful underlying reason for doing science in the first place. In example after example, ranging from 4000 BC to the present day, they show that thinking with a Christian worldview has been intimately involved with, and sometimes even directly responsible for, some of the biggest leaps forward ever made. Ultimately, they portray a biblical God who loves Science - and a Science that truly needs God.