Astronomy Physics

In this brilliant exploration of our cosmic environment, the renowned particle physicist and New York Times best-selling author of Warped Passages and Knocking on Heaven's Door uses her research into dark matter to illuminate the startling connections between the farthest reaches of space and life here on Earth.

This audiobook introduces younger listeners to the magic of the night sky. A broad range of topics are covered including telescopes, comets, meteors, and planets. Learn about the life cycle of stars and what you can see at night with the naked eye or using telescopes. Understand the life cycle of planets and the different types of planets in the universe. Explore how stars are sorted according to their brightness and learn about some of the more important constellations that you can see at night.

The "universe" refers to all "observable things", ranging in size from the entire cosmos to elementary particles. A guide for an enjoyable visit to the universe, this small tome on fundamental physics, cosmology, Higgs bosons, time travel, and all that is unlike any other analogous book. Its scientific statements are correct or, at least, they coincide with the opinions held by the vast majority of experts. It establishes clear distinctions between things we know for sure and things that we know that we do not know, or we do not understand.

Mars is back. Suddenly everyone - from Elon Musk to Ridley Scott to Donald Trump - is talking about going to the Red Planet. When the Apollo astronauts walked on the Moon in 1969, many people imagined Mars would be next. However NASA’s Viking 1, which landed in 1976, was just a robot. The much-anticipated crewed mission failed to materialise, defeated by a combination of technological and political challenges.

Stargazing has shaped the entire course of human civilization. The rhythm of our ancestors' lives revolved around the stars, from cycles of agriculture to patterns of birth. How radically different would humanity be if our ancestors had looked up to the night sky and seen...nothing? In lyrical yet evidence-grounded meditations, Trotta imagines a world without stars, a dramatic alternate history in which we wouldn't understand gravity, where couldn't navigate or have much sense of time, and where our sense of the profound - of art and of the divine - was altered beyond recognition.

Y si existiera una cuarta dimensión espacial que no pudiéramos percibir? ¿Y si el tiempo, que nos parece una realidad implacable, no fuera más que una ilusión de nuestra mente? ¿Y si nuestro universo fuera sólo uno de los muchos que integran un complejo multiverso inflacionario? Estas preguntas, que parecieran derivadas de un guion de ciencia ficción o propias de un temperamento esotérico, constituyen algunos de los planteamientos más rigurosos de la física moderna. Y son la fascinante materia de este libro.

What keeps objects from floating out of your hand? What if your feet drifted away from the ground? What stops everything from floating into space? Gravity. Author Jason Chin takes this complex subject and makes it brilliantly accessible to young listeners in this innovative book. His expansive but simple narrative does justice to the subject at hand, looking at the concept of gravity in a whole new way. From the redwoods to the oceans to a small island, he now takes us to outer space in this thoroughly researched, exceptional addition to his body of children's nonfiction.

Mit Hawking durch Raum und Zeit. Wie ist das Universum entstanden? Was war vor dem Urknall? Warum sind Schwarze Löcher schwarz? Gibt es außerirdisches Leben? Können wir in die Vergangenheit reisen? - Der Wissenschaftsjournalist und Hawking-Experte Rüdiger Vaas bringt sprichwörtlich Licht ins Dunkel. Kurzweilige Texte machen Hawkings faszinierende Gedanken unterhaltsam und leicht nachvollziehbar. Eine abenteuerliche Reise durch Hawkings Universum! Gelesen von Daniel Pokladek.

Be an instant expert on the quantum universe and Bluff Your Way in the subject with everyone you know. No science required, just a sense of humour. From 'gluons' to 'gravitons', and from 'certainty' to 'superstrings', here's all you need to know to sound all-knowing.

Have you ever found yourself wondering what we might have in common with stars or why the moon never leaves us? Thinking about the precise dancing of planets, the passing of time or the nature of natural things? Our world is full of unshakable mystery, and although we live in a civilisation more complicated than ever, there is beauty and reassurance to be found in knowing how and why.

Forty-four science articles using the Rational Scientific Method of Inquiry. These subjects are covered in the book Curious Chain of Events, and this is the first in a series of Rational Science books.

The possibility of life elsewhere in the cosmos is one of the most profound subjects that human beings can ponder. Astrophysicist Andrew May gives an expert overview of our current state of knowledge, looking at how life started on Earth, the tell-tale ‘signatures’ it produces and how such signatures might be detected elsewhere in the solar system or on the many ‘exoplanets’ now being discovered by the Kepler and TESS missions.

Nearly 60 years ago, Nobel Prize-winners Arno Penzias and Robert Wilson stumbled across a mysterious hiss of faint radio static that was interfering with their observations. They had found the key to unravelling the story of the Big Bang and the origin of our universe. That signal was the Cosmic Microwave Background (CMB), the earliest light in the universe, released 379,000 years after the Big Bang.

A powerful reflection on life in isolation, in pursuit of the dream of Mars. In 2013 Kate Greene moved to Mars. On NASA’s first HI-SEAS simulated Mars mission in Hawaii, she lived for four months in an isolated geodesic dome with her crewmates, gaining incredible insight into human behaviour in tight quarters, as well as the nature of boredom, dreams and isolation that arise amidst the promise of scientific progress and glory.

An icon of the last 50 years, Stephen Hawking seems to encapsulate genius: not since Albert Einstein has a scientific figure held such a place in our popular consciousness. In this enthralling memoir, writer and physicist Leonard Mlodinow tells the story of his friend and colleague, offering an intimate account of this giant of science.

A fascinating piece of historical scientific writing, written in 1913 by E. Walter Maunder (F.R.A.S.), the superintendent of the Solar Dept. at the Royal Observatory in Greenwich. The book is a snapshot in time showing the evolution of thinking on the solar system and cosmology. The author considers, in fine detail, the plausibility of life on other planets within our solar system, the requirements for such life, and the barriers that life faces.

Vorwärts in die Vergangenheit. Weiße Löcher sind das Gegenteil von Schwarzen Löchern – sie sind vermutlich ihre Abkömmlinge. Die einen ziehen alle Materie unwiderstehlich in sich hinein, die anderen geben ihre Information wieder frei. Sie sind ein weiteres großes Rätsel der Kosmologie, und noch gibt es keinen Beweis ihrer Existenz. Einsteins Gleichungen lassen sie aber vermuten, und mit Carlo Rovellis Quantentheorie sind Weiße Löcher theoretisch darstellbar.

Based on real questions from children, expert author Dr Matt Bothwell has created the Supervillain Academy to teach astrophysics to middle graders. At the Supervillain Academy, listeners will learn about the solar system, galaxies, the universe, and, most importantly, the answer to the question “Which planet is entirely populated by robots?”.

Neil deGrasse Tyson, a former star, amateur wrestler at Harvard who went on to become an award-winning astrophysicist, might be the most well-known science communicator in the United States since the late Carl Sagan. Tyson, who has served as the director of the Hayden Planetarium in New York City since 1996, had published a dozen books prior to Astrophysics for People in a Hurry; all of them have been aimed at a popular audience. In spite of that, Astrophysics for People in a Hurry is probably his most accessible and scaled-down work to date.

Einstein's special theory of relativity made time travel to the future a possibility, and later his general theory of relativity showed us that loops in spacetime could exist, meaning that we might be able to bend time backwards, too. But what are the practicalities of making time travel possible? What do we still need to know? How do we deal with any paradoxical twists in time - and could quantum physics hold the answer?