Engineering Physics

The 13th person to walk on the moon could soon be part of a crew establishing a base on the lip of a crater at the lunar south pole. The discovery of ice in the eternal shadows of the polar regions transforms our ability to live on the moon. From bases on the moon we can make the long, lonely and dangerous voyage to Mars, where there is also ice. The obstacles are many, not least the fragilities of the human body. And what type of world would the first Mars explorers find?

Das Wissen über das, was die Welt im Innersten zusammenhält, ist nicht nur das Ergebnis herausragender Forschung brillanter Geister, sondern auch eine Konsequenz wahnwitziger Zufälle und absurder Ideen. Genau dieser höchst unterhaltsamen und verrückten Seite der Wissenschaft und ihrer Geschichten widmet sich der junge Science-Star und Wissenschaftsjournalist Niklas Kolorz. Er begleitet Pythagoras, Marie Curie und Albert Einstein, während sie quasi zufällig ihre bahnbrechenden Entdeckungen machen.

量子力学を創始し，原子物理学の基礎を築いた人が追究した生命の本質とは？　本書は分子生物学の生みの親となった20世紀の名著である．生物現象ことに遺伝のしくみと染色体行動における物質の構造と

О физике несерьёзно и доступно. Аудиокнига, где легко объясняется необъяснимое понятным языком, что заставляет влюбиться в физику. Знаете ли вы, что такое время? А как придумали теорию струн? Какой химический элемент - самый большой в мире? А вот Дмитрий Побединский, физик, популярный видеоблогер и постоянный автор "Чердака", знает - и может рассказать! Существуют ли параллельные вселенные? Можно ли создать настоящий световой меч? Что почувствует искусственный интеллект при первом поцелуе? Как устроена черная дыра?

Dieses Buch verknüpft anschauliche Physik mit überraschenden Anekdoten aus Biologie, Technik und Kultur und stellt dabei die große Frage: Was ist Wirklichkeit–und wie entsteht sie in unserem Kopf?

Does alien life exist? Is time travel possible? How did the universe begin, and how will it end? Is the future predetermined? These are just some of the fascinating questions posed in this book, which stretches across physics, the life sciences and cosmology. Each chapter considers a separate question and ends with either an answer or, if there is insufficient evidence, a ‘best guess’ answer.

The history of particle physics, the hunt for the most elusive particle, and the fundamental questions the search has inspired.

In Apollo's Legacy, space historian Roger D. Launius explores the many-faceted stories told about the meaning of the Apollo program and how it forever altered American society. The Apollo missions marked the first time human beings left Earth's orbit and visited another world, and thus they loom large in our collective memory. Many have detailed the exciting events of the Apollo program, but Launius offers unique insight into its legacy as seen through multiple perspectives.

Black holes are the most extreme objects in the universe, and yet they are ubiquitous. Frighteningly enigmatic, these dark giants continue to astound even the scientists who spend their careers studying them. Einstein’s Monsters reveals how our comprehension of black holes is intrinsically linked to how we make sense of the universe and our place within it. From the small questions to the big ones - from the tiniest particles to the nature of space-time itself - black holes might be the key to a deeper understanding of the cosmos.

Galileo Unbound traces the journey that brought us from Galileo's law of free fall to today's geneticists measuring evolutionary drift, entangled quantum particles moving among many worlds, and our lives as trajectories traversing a health space with thousands of dimensions. Remarkably, common themes persist that predict the evolution of species as readily as the orbits of planets or the collapse of stars into black holes.

Frankenstein: Or, Modern Prometheus by Mary Shelley had a huge impact on Gothic horror and science fiction genres. The name Frankenstein has become part of our everyday language, often used in derogatory terms to describe scientists who have overstepped a perceived moral line. But how did a 19-year-old woman with no formal education come up with the idea for an extraordinary novel such as Frankenstein?

A collection of chapters from the previous five volumes in the Rational Science series. We discuss the difference between objects and concepts, hypothesis and theory, and science and technology. We learn about light, time, and mass, the Big Bang Theory, black holes, and Mach’s principle. We find out about dinosaurs and why they were so big. We look at a couple hypotheses on planetary and solar system formation. From atom to sun, we learn to think about reality in new ways.

The discovery of the quantum - the idea, born in the early 1900s in a remote corner of physics, that energy comes in finite packets instead of infinitely divisible quantities - planted a rich set of metaphors in the popular imagination. Quantum imagery and language now bombard us like an endless stream of photons. Phrases such as multiverse, quantum leap, alternate universe, the uncertainty principle, and Schrödinger's cat get reinvented continually in cartoons and movies, coffee mugs and T-shirts, and fiction and philosophy.

In the evolution of science and technology, laws governing exceptional creativity and innovation have yet to be discovered. The historian Thomas Kuhn, in his influential study The Structure of Scientific Revolutions, noted that the final stage in a scientific breakthrough such as Albert Einstein's theory of relativity - that is, the most crucial stage - was "inscrutable". The same is still true half a century later.

This is an indispensable guide to physics that offers readers an overview of the most popular physics topics written in an accessible, irreverent, and engaging manner while still maintaining a tone of wry skepticism. Even the novice will be able to follow along, as the topics are addressed using plain English and (almost) no equations. Veterans of popular physics will also find their nagging questions addressed, like whether the universe can expand faster than light.

As smartphones, supercomputers, supercolliders, and AI propel us into an ever more unfamiliar future, How to Speak Science takes us on a rollicking historical tour of the greatest discoveries and ideas that make today's cutting-edge technologies possible. Wanting everyone to be able to "speak" science, YouTube science guru Bruce Benamran explains - as accessibly and wittily as in his acclaimed videos - the fundamental ideas of the physical world: matter, life, the solar system, light, electromagnetism, thermodynamics, special and general relativity, and much more.

The story begins on a windswept beach in Barbados, from where we follow the ascent of a weather balloon that will travel along the jet stream all around the world. From this viewpoint we observe the effect of the jet in influencing human life around the hemisphere, and witness startling changes emerging. What is the jet stream and how well do we understand it? How does it affect our weather and is it changing? These are the main questions tackled in this book.

The universe should be fun, and you’re about to discover an audiobook that understands that, weaving humor and wit into every minute so that you not only understand what you’re listening to, but enjoy the whole process.

Cosa succederebbe se la Terra orbitasse attorno a un buco nero? E se dalla sua superficie sparissero tutti gli oceani? E se venisse colpita da una supertempesta solare? E il Sole, appunto: se un giorno levassimo il naso all'insù senza più vederlo? Se qualcuno volesse improvvidamente tentare di spegnerlo con una gigantesca secchiata d'acqua? (Spoiler: sarebbe una pessima idea.) E la Luna! Cosa accadrebbe se una notte in cielo ne spuntassero due? Raddoppierebbe la poesia o ci ritroveremmo non esattamente nelle condizioni ideali per apprezzare la cosa?

Partendo da fenomeni elementari viene studiata la teoria della relatività generale di Einstein, unitamente al principio di Galilei sulla caduta libera dei gravi che ne è il presupposto. Il principio di Galilei prevede che tutti i corpi, prescindendo dalla loro massa, cadano con la stessa accelerazione di gravità. Invece, si constata la non vigenza di tale principio di Galilei non essendo detratta la massa del corpo di prova da quella della terra (ritenuta erroneamente costante), inoltre per non essere valutata la mutua attrazione reciproca dei corpi (sovrapposizione degli effetti).