Science Cosmology

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.

Die Science Busters beschäftigen sich mit dem Ende. Des Universums. Des Lebens. Der Menschheit. Der Klimakrise. Der Unendlichkeit. Aber auch mit den Dingen, die nicht wissen, wann es genug ist. Methodisch korrekt, selbstgeschrieben, unter Einhaltung aller Naturgesetze des Universums!

Quanti anni ha la vita? Qual è il destino delle stelle? Se l'atomo è fatto di vuoto, che cosa sostiene il mondo? Perché solo i nostri neuroni, tra quelli di tutte le specie, sono in grado di descrivere i neutrini? Edoardo Boncinelli e Antonio Ereditato ci raccontano l'avventura dell'Universo: dall'esplosione iniziale al costituirsi dell'architettura delle galassie, dal principio dello spaziotempo all'evoluzione dei sapiens e al sorgere della coscienza umana. Tornano a istanti che vanno da 10-30 a 10-20 secondi dopo il Big Bang.

The marvelous complexity of the universe emerges from several deep laws and a handful of fundamental constants that fix its shape, scale, and destiny. Where did these laws and these constants come from? And why are the laws so fruitful when written in the language of mathematics? Author Peter Atkins considers the minimum effort needed to equip the universe with its laws and its constants. He explores the origin of the conservation of energy, of electromagnetism, of classical and quantum mechanics, and of thermodynamics, showing how all these laws spring from deep symmetries.

"La sorpresa viene da lontano. Molto, molto lontano. Dalle sorgenti delle galassie, dalle fucine delle stelle, fonti di un'energia inesausta. Là dove abbiamo cominciato a guardare e ormai non possiamo più smettere." La materia e l'energia oscura sono il grande rompicapo della fisica del XXI secolo. E finché rimarranno un enigma, dell'universo conosceremo solo una piccolissima porzione e nulla sapremo della sua origine e del suo inevitabile destino.

夜空を彩る満天の星や、皆既日食・彗星などの天体ショー。古来より人類は宇宙の美しさに魅せられてきた。しかし宇宙の美しさは、目に見えるところだけにあるのではない。これまで宇宙にまつわる現象は、

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?

We have long fantasized about finding life on planets other than our own. Yet even as we become aware of the vast expanses beyond our solar system, it remains clear that Earth is exceptional. The question is: Why? In Lucky Planet, astrobiologist David Waltham argues that Earth’s climate stability is what makes it uniquely able to support life, and it is nothing short of luck that made such conditions possible. The four-billion-year stretch of good weather that our planet has experienced is statistically so unlikely that chances are slim that we will ever encounter intelligent extraterrestrial others.

Astronomers have determined that our universe is 13.7 billion years old. How exactly did they come to this precise conclusion? How Old Is the Universe? tells the incredible story of how astronomers solved one of the most compelling mysteries in science and, along the way, introduces listeners to fundamental concepts and cutting-edge advances in modern astronomy.

In this vibrant, eye-opening tour of milestones in the history of our universe, Chris Impey guides us through space and time, leading us from the familiar sights of the night sky to the dazzlingly strange aftermath of the Big Bang. What if we could look into space and see not only our place in the universe but also how we came to be here? As it happens, we can. Because it takes time for light to travel, we see more and more distant regions of the universe as they were in the successively greater past.

This book invites you on a journey through the most misunderstood concept in all of science — the vacuum. From the earliest philosophers terrified of emptiness to the modern physicists who discovered that “nothing” is a swirling ocean of energy and possibility, this is the story of how the void became the foundation of everything. We begin with the ancient debates about ether and the first laboratory vacuums of the Renaissance, then move through Einstein’s curved spacetime, quantum field theory’s restless vacuum, and the mysterious Higgs field that gives matter its mass.

The first person who will live to be 150 years old has already been born. The screen that we peer into will soon be within us. We could soon be taking happiness pills before breakfast. The perfect partner might need to be charged before bed. This is a new world we are walking into. And the man...

Will robots take over the world?When will we meet aliens?How are memories stored inside the brain? Join Dr A.P.J. Kalam on a fascinating quest to explore the realm of science and technology, its extraordinary achievements and its impact on our lives in the days to come.Co-written with Srijan Pal...

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.

Eclipses: What Everyone Needs to Know helps explain the profound differences between a 99.99 percent partial eclipse and true totality, and inform listeners how to experience this most beautiful natural phenomenon successfully. It covers eclipses of sun, moon, and other astronomical objects, and their applications in science, as well as their role in history, literature, and myth. It describes the phenomena to expect at a solar eclipse and the best ways to record them - by camera, video, or by simple handmade experiments.

The science behind the debate raging in modern physics over the disconcerting and uncomfortable realization that just maybe there is, as astronomer Fred Hoyle put it, some sort of "superintellect that has monkeyed with the physics". Written with the non-scientist in mind, this exploration of the big bang, Schroedinger's cat, the chaos of 9/11, the complexity of the mimic octopus and the blister beetle, and the strong anthropic principle is accessible to anyone bright enough to be interested.

Quanto è grande l'universo? C'è stato un inizio e ci sarà una fine? Come si è fatta strada l'ipotesi del Big Bang? Come si fa a scoprire il passato dell'universo e a prevederne l'evoluzione futura? Domande antiche e in parte ancora irrisolte. Nel volume i passi più importanti del lungo cammino scientifico dall'età moderna fino alle scoperte più recenti, riguardanti la gerarchia di strutture cosmiche, l'espansione dell'universo, lo stato iniziale ultracaldo e ultradenso, che oggi i cosmologi possono osservare direttamente grazie a sofisticati telescopi e strumenti spaziali.

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.

This compelling book describes how the Big Bang theory arose, how it has evolved, and why it is the best theory so far to explain the current state of the universe. In addition to understanding the birth of the cosmos, listeners will learn how the theory stands up to challenges and what it fails to explain. Karen Fox provides clear answers to some of the hardest questions including: Why was the Big Bang theory accepted to begin with? Will the Big Bang theory last into the next century or even the next decade? Is the theory at odds with new scientific findings?

The unabridged and enhanced 2nd edition of Zetetic Astronomy, formulated in the 19th century by Samuel Rowbotham, presents a flat-earth cosmology grounded in direct sensory observation rather than theoretical abstraction. Rejecting Newtonian and Copernican astronomy, Rowbotham argued that the Earth is a flat, stationary plane with the Sun, Moon, and stars moving in circular paths above it, asserting that empirical evidence—such as the apparent flatness of horizons and the behavior of water surfaces—supports this model.