Physics Philosophy

Does science have all the answers? Can it even deal with abstract reasoning that reaches beyond the world experienced by us? How can we be so sure that the physical world is sufficiently ordered to be intelligible to humans? How is it that mathematics, a product of human minds, can unlock the secrets of the physical universe? Are all such questions to be ruled out as inadmissible if science cannot settle them? Metaphysics has traditionally been understood as reasoning beyond the reach of science, sometimes even claiming realities that are beyond its grasp.

Can we ever truly comprehend the universe before we fully understand consciousness and the wonders, and limits, of the mind? Ulf Danielsson, an acclaimed theoretical physicist who has dedicated his career to probing the deepest mysteries of nature, thinks not. As he dismantles the arguments of esteemed mathematicians and scientists, who would substitute their mathematical models for reality and equate the mind to a computer, he makes a lucid and passionate case that it is nature, full of beauty and meaning, which must compel us.

We take time for granted as it passes during every moment of our existence. Other things may change, but time remains constant and predictable. The past, the present, and the future exist within a harmonious, reliable, and never-changing system. Or at least that’s how it seems. It was Albert Einstein who, in 1905, first theorized that time might not be quite as straightforward as that. In one of the most influential papers on physics ever published[1], he proposed something called “time dilatation.”

In 1911, some of the greatest minds in science convened at the First Solvay Conference in Physics, a meeting like no other. Almost half of the attendees had won or would go on to win the Nobel Prize. Over the course of those few days, these minds began to realize that classical physics was about to give way to quantum theory, a seismic shift in our history and how we understand not just our world, but the universe.

This book consists of six distinct essays describing how science works, with special attention to how Richard Feynman viewed the scientific method. Chapter one explores the difference between evolution and mysticism's version of intelligent design. Chapter two is entitled The Feynman Imperative and explores a contentious debate over reductionism and its role in the hard sciences, particularly in explaining consciousness.

This book explores the famous quantum debate between Albert Einstein and Niels Bohr. A clear and precise exposition of a most complicated issue concerning the implications of indeterminacy and photon entanglement.

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 this fascinating collection of articles and speeches, Albert Einstein reflects not only on the scientific method at work in his own theoretical discoveries, but eloquently expresses a great appreciation for his scientific contemporaries and forefathers, including Johannes Kepler, Isaac Newton, James Clerk Maxwell, Max Planck, and Niels Bohr. While Einstein is renowned as one of the foremost innovators of modern science, his discoveries uniquely his own, through his own words it becomes clear that Einstein viewed himself as only the most recent in a long line of scientists driven to create new ways of understanding the world and to prove their scientific theories.

Why does one smoker die of lung cancer but another live to 100? The answer is 'The Hidden Half' - those random, unknowable variables that mess up our attempts to comprehend the world. We humans are very clever creatures - but we're idiots about how clever we really are. In this entertaining and ingenious book, Blastland reveals how in our quest to make the world more understandable, we lose sight of how unexplainable it often is. The result - from GDP figures to medicine - is that experts know a lot less than they think.

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.

I give this illustration to my students because a winning lottery number exponentially pales in comparison to the odds against them being alive and breathing (even if they nod off a bit here and there) at this very juncture in history. But in order to appreciate the anomaly of one's existence it is necessary to get a deeper understanding of the theory of large numbers.

Drawing intriguing parallels between the present era of quantum physics and past episodes of scientific confusion, Beyond the Quantum tells the story of how pilot-wave theory was discovered and abandoned, revived and reconstructed, and how today it can pave the way to a new and radical physics beyond the quantum.

One of the great mysteries of science is that its fundamental laws are written in the language of mathematics. Graham Farmelo's thrilling new book shows how modern maths has helped physicists to rethink gravity, space, and time. The Universe Speaks in Numbers takes us on an adventure from the Enlightenment to the present with a vibrant cast of characters, illuminating the most exciting and controversial developments in contemporary thought.

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.

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.

For millennia, people have asked questions about the nature of matter. In the 20th century, this curiosity led to an unprecedented outburst of scientific discovery that changed the course of history. In The Matter of Everything, accelerator physicist Suzie Sheehy introduces us to the people who, through a combination of genius, persistence and luck, staged these groundbreaking experiments.

Offering a unique insight into human behaviour, this book explains why we behave the way we do and what happens when humans interact with the world and each other. Starting with evolutionary biology and what it physically means to be a human being, this book moves on to include a wide range of topics such as artificial intelligence, virtual reality and how we are evolving as we interact with new technology.

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.

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.

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