Physics Philosophy

Der Nobelpreisträger Max Planck (1858 bis 1946) war nicht nur einer der bedeutendsten Physiker, sondern auch ein Philosoph, der unablässig nach Antworten auf grundlegende, weit über die Physik hinausgehende philosophische Fragen gesucht hat. In zahlreichen Vorträgen, gern dabei Goethe zitierend, hat er die Ergebnisse seines Nachdenkens über den Glauben, die Wissenschaft und die Willensfreiheit einer breiten Öffentlichkeit zugänglich gemacht.

Alle Welt redet davon, die Natur zu schützen. Um dies zu können, müssten wir zumindest erfahren können, was Natur ist und sie uns bedeutet. Dieses Gespür ist uns abhandengekommen. Der renommierte Physiker Ulf Danielsson zeigt den blinden Fleck der modernen Naturwissenschaften: Wissenschaftler rechnen und rechnen, aber der Mensch, mit all seinen Sinnen, spielt keine Rolle mehr in den Naturwissenschaften. Doch dabei ist das Universum keinesfalls nur Mathematik. Wir leben in Welt und Weltall, aber nicht in den abstrakten Gleichungen. Wir sind Lebewesen und keine Maschinen.

Allgemeinwissen: Mit spannenden, unterhaltsamen und breit gefächerten Fakten Wissen erweitern und in jedem Gespräch glänzen. Wozu Wissen, wenn ich doch jederzeit googeln kann? Dieser Gedanke ist verlockend, aber: Nur wer Dinge selbst weiß, kann sich ein kluges, zusammenhängendes Bild von der Welt machen – und ganz nebenbei in jedem Party-Talk punkten.

Is there such a thing as a fundamental reality, something which was around before our universe came into existence and which will still remain when all matter, time, and space itself ultimately disappear? Something fundamental which, in turn, can make space and time and matter arise from seemingly nothing? Under most cosmological and physical models, the last known remnants of reality are the disembodied laws of mathematics - beyond which it is extremely difficult to probe further.

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

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?

The Large Hadron Collider is the biggest, and by far the most powerful, machine ever built. A project of CERN, the European Organization for Nuclear Research, its audacious purpose is to re-create, in a 16.5-mile-long circular tunnel under the French-Swiss countryside, the immensely hot and dense conditions that existed some 13.7 billion years ago within the first trillionth of a second after the fiery birth of our Universe. The collider is now crashing protons at record energy levels never created by scientists before, and it will reach even higher levels by 2013.

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 this highly original book, Russell Blackford discusses the intersection of science fiction and humanity’s moral imagination. With the rise of science and technology in the 19th century, and our continually improving understanding of the cosmos, writers and thinkers soon began to imagine futures greatly different from the present. Science fiction was born out of the realization that future techno-scientific advances could dramatically change the world.

For centuries, electricity was seen as little more than a curious property of certain substances that sparked when rubbed. Then, in the 1790s, Alessandro Volta began the scientific investigation that ignited an explosion of knowledge and invention. The force that once seemed inconsequential was revealed to be responsible for everything from the structure of the atom to the functioning of our brains. In harnessing its power, we have created a world of wonders—complete with roller coasters and radar, computer networks and psychopharmaceuticals.

Decía Carl Sagan que para hacer una tarta de manzana primero hay que crear el universo. Harry Cliff, prestigioso físico de la Universidad de Cambridge, emprende la búsqueda de la receta perfecta recogiendo los ingredientes a través del cosmos, en los núcleos de estrellas moribundas, y retrocediendo en el tiempo hasta la fracción de segundo inmediatamente posterior a la que todo se creó, para entender, entre otras muchas cosas, de dónde proviene la materia.

Eine epische Geschichte der großen Zeit der Physik und ihrer leuchtenden Gestalten. Sie waren intellektuelle Abenteurer, Dandys oder Nerds, die tiefe Freundschaften und erbitterte Feindschaften miteinander verbanden. Die bedeutendsten Physiker und Physikerinnen des 20. Jahrhunderts haben einen ungeahnten wissenschaftlichen Schub ausgelöst, der zu einem neuen Weltbild der Physik führte, welches sich uns bis heute nicht vollständig erschließt. Doch das Zeitalter der Relativitätstheorie und der Quantenmechanik war auch das Zeitalter von Kriegen und Revolutionen.

A menudo conocemos las teorías que los grandes físicos de la historia han desarrollado, pero ignoramos aspectos biográficos que les han influido, como sus pensamientos teístas o ateos. A veces sus creencias han tenido un efecto en su ciencia y en otras ha sido la ciencia la cual ha influido en sus creencias. ¿Qué ideas religiosas tenían Aristóteles, Copérnico, Galileo, Einstein o Dirac? ¿Cómo influyó el contexto? Eduardo Battaner nos lo cuenta en este audiolibro desde una perspectiva objetiva e histórica.

Few recognize how the Great War, the industrialized slaughter that bled Europe from 1914 to 1918, shaped Einstein’s life and work. While Einstein never held a rifle, he formulated general relativity blockaded in Berlin, literally starving. He lost 50 pounds in three months, unable to communicate with his most important colleagues. Some of those colleagues fought against rabid nationalism; others were busy inventing chemical warfare - scientists trapped in the power plays of empire. Meanwhile, Einstein struggled to craft relativity and persuade the world that it was correct.

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.

Widely considered the greatest genius of all time, Albert Einstein revolutionized our understanding of the cosmos with his general theory of relativity and helped to lead us into the atomic age. Yet in the final decades of his life, he was also ignored by most working scientists, his ideas opposed by even his closest friends.

Everyone has heard the story of DNA as the story of Watson, Crick, and Rosalind Franklin, but knowing the structure of DNA was only part of a greater struggle to understand life's secrets. Life's Greatest Secret is the story of the discovery and cracking of the genetic code, the thing that ultimately enables a spiraling molecule to give rise to the life that exists all around us. This great scientific breakthrough has had far-reaching consequences for how we understand ourselves and our place in the natural world.

Were ancient Greek philosophers right about reality being only an illusion? What was really the biggest blunder of Einstein's life? Is everything we've been taught about the universe incorrect? In The Unobservable Universe, visionary scientist and engineer Scott M. Tyson successfully unravels cosmology from the level of rocket science and brings it down to Earth, demystifying the universe in terms that laymen can comprehend and enjoy, splitting atoms but not hairs on this magical mystery tour of the outback of time and space.

In 1919, British scientists led extraordinary expeditions to Brazil and Africa to test Albert Einstein's revolutionary new theory of general relativity in what became the century's most celebrated scientific experiment. The result ushered in a new era and made Einstein a global celebrity by confirming his dramatic prediction that the path of light rays would be bent by gravity. Today, Einstein's theory is scientific fact. Yet the effort to "weigh light" by measuring the gravitational deflection of starlight during the May 29, 1919, solar eclipse has been clouded by myth and skepticism.

Condensed matter physics is what happens when atoms cluster together to make something of a size we can understand—something like a car, say, rather than a galaxy. It's what makes things hover in mid-air or crystals glow (thermoluminescence). It's also what we mean by magick. Join Felix Flicker on an empirical adventure in condensed matter physics, the scientific mechanism behind the mysteries of alchemy, transmogrification, and much more. This is the one-stop guide on how to harness the enigmatic workings of the natural world to become a thoroughly modern wizard.