Showing titles in History

Black holes. DNA. The Large Hadron Collider. Ever had that sneaking feeling that you are missing out on some truly spectacular science? You do? Well fear not, for help is at hand. Ben Miller was working on his Physics PhD at Cambridge when he accidentally became a comedian. But first love runs deep, and he has returned to his roots, to share with you all his favourite bits of science. This is the stuff that you really need to know, not only because it matters, but because it will quite simply amaze and delight you.

Nobel Laureate Eugene Wigner once wondered about "the unreasonable effectiveness of mathematics" in the formulation of the laws of nature. Is God a Mathematician? investigates why mathematics is as powerful as it is. From ancient times to the present, scientists and philosophers have marveled at how such a seemingly abstract discipline could so perfectly explain the natural world. More than that - mathematics has often made predictions, for example, about subatomic particles or cosmic phenomena that were unknown at the time, but later were proven to be true.

How are illnesses diagnosed? When did the first successful organ transplant take place? Why are some pandemics so deadly? This audiobook explores big questions like these, explaining the breakthroughs and discoveries that have shaped our modern-day understanding of medicine and helped us protect and promote our health. The Medicine Book cuts through the jargon and is packed with pithy explanations of the most important milestones in medical history to untangle knotty concepts.

The Pyrocene tells the story of what happened when a fire-wielding species, humanity, met an especially fire-receptive time in Earth's history. Since terrestrial life first appeared, flames have flourished. Over the past two million years, however, one genus gained the ability to manipulate fire, swiftly remaking both itself and eventually the world. We developed small guts and big heads by cooking food; we climbed the food chain by cooking landscapes; and now we have become a geologic force by cooking the planet.

Alles passiert irgendwann zum ersten Mal. Oft ist dieses erste Mal eine mutige Idee, manchmal aber auch ein schräger Zufall oder das Ergebnis jahrelanger Forschung. Sicher ist, ohne diesen einen Moment sähe unser Alltag heute völlig anders aus. Wir würden zum Beispiel anders frühstücken, andere Musik hören oder anders verhüten. Wir hätten wahrscheinlich keine Impfstoffe und weniger Urlaubstage, unsere Drucker würden nicht funktionieren, das Essen würde anders schmecken – von all den medizinischen Entwicklungen ganz zu schweigen.

In 1916, Arthur Eddington, a war-weary British astronomer, opened a letter written by an obscure German professor named Einstein. The neatly printed equations on the scrap of paper outlined his world-changing theory of general relativity. Until then Einstein's masterpiece of time and space had been trapped behind the physical and ideological lines of battle, unknown. Eddington realised the importance of the letter - perhaps Einstein's esoteric theory could not only change the future of science but also restore the world of cooperative international science in a time of brutal war.

After the Soviet Union proved to the United States that it possessed an operational intercontinental ballistic missile with the launch of Sputnik in October 1957, the world watched anxiously as the two superpowers engaged in a game of nuclear one-upmanship. Amid this rising tension, eccentric physicist Nicholas Christofilos brought forth an outlandish, albeit ingenious, idea to defend the US from a Soviet attack: detonating nuclear warheads in space to create an artificial radiation belt that would fry incoming ICBMs. Known as Operation Argus, this plan is the most secret and riskiest experiment in history, and classified details of these nuclear tests have been long obscured.

William Shakespeare found dozens of different ways to kill off his characters, and audiences today still enjoy the same reactions - shock, sadness, fear - that they did more than 400 years ago when these plays were first performed. But how realistic are these deaths, and did Shakespeare have the knowledge to back them up? Kathryn Harkup turns her discerning scientific eye to the Bard and the varied and creative ways his characters die.

Einstein and the Quantum reveals for the first time the full significance of Albert Einstein's contributions to quantum theory. Einstein famously rejected quantum mechanics, observing that God does not play dice. But, in fact, he thought more about the nature of atoms, molecules, and the emission and absorption of light - the core of what we now know as quantum theory - than he did about relativity.

Topics explored in this dialogue include: how you can address the greatest challenge of our times, the role of the arts in deep ecology, how the shift from linear thinking to systems thinking in the sciences affects us now and in the future, understanding the complexity of living systems and life itself, why creativity is the driving force of evolution, what religion and deep ecology have in common, what's really behind the information age, and the mathematics of complexity.

Hay una revolución en marcha, una tecnología prodigiosa que nos va a permitir curar enfermedades, derrotar virus y tener hijos más sanos. A su cabeza está la reciente premio Nobel Jennifer Doudna y sus colegas, protagonistas del nuevo libro de Walter Isaacson.

In Human Frontiers, Michael Bhaskar draws a vividly entertaining and expansive portrait of humanity's relationship with big ideas. He argues that stasis at the frontier is the result of having already pushed so far, taken easy wins and started to hit limits. But new thinking is still possible. By adopting bold global approaches, deploying cutting-edge technology like AI and embracing a culture of change, we can push through and expand afresh.

Between Hope and Fear tells the remarkable story of vaccine-preventable infectious diseases and their social and political implications. While detailing the history of vaccine invention, Michael Kinch reveals the ominous reality that our victories against vaccine-preventable diseases are not permanent - and could easily be undone. Between Hope and Fear relates the remarkable intersection of science, technology, and disease that has helped eradicate many of the deadliest plagues known to man.

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.

Mars - bewilderingly empty, coated in red dust - is an unlikely place to pin our hopes of finding life elsewhere. And yet, right now multiple spacecraft are circling, sweeping over Terra Sabaea, Syrtis Major, the dunes of Elysium and Mare Sirenum - on the brink, perhaps, of a discovery that would inspire humankind as much as any in our history. With poetic precision and grace, Sarah Stewart Johnson traces the evocative history of our explorations of Mars.

Throughout the Roman Empire cities held public speeches and lectures, had libraries, and teachers and professors in the sciences and the humanities, some subsidized by the state. There even existed something equivalent to universities, and medical and engineering schools. What were they like? What did they teach? Who got to attend them? In the first treatment of this subject ever published, Dr. Richard Carrier answers all these questions and more.

Simply put, an algorithm is a set of instructions-it's the code that makes computers run. A basic idea that proved elusive for hundreds of years and bent the minds of the greatest thinkers in the world, the algorithm is what made the modern world possible. Without the algorithm, there would have been no computer, no Internet, no virtual reality, no e-mail, or any other technological advance that we rely on every day.

From late 1872 to 1876, H.M.S. Challenger explored the world's oceans. Conducting deep sea soundings, dredging the ocean floor, recording temperatures, observing weather, and collecting biological samples, the expedition laid the foundations for modern oceanography. Following the ship's naturalists and their discoveries, earth scientist Doug Macdougall engagingly tells a story of Victorian-era adventure and ties these early explorations to the growth of modern scientific fields.

This lively history traces the evolution of the idea of evolution, showing how it has changed and been changed by different societies over time. It will put 'Darwin’s Dangerous Idea' into its proper context, showing how it built on what went before and how it was developed in the 20th century, through an understanding of genetics and the biochemical basis evolution. None of this diminishes the achievement of Darwin himself, but his contribution was one link in a chain that extends back into antiquity and is still being forged today.

Frances Glessner Lee (1878-1962), born a socialite to a wealthy and influential Chicago family, was never meant to have a career, let alone one steeped in death and depravity. Yet she became the mother of modern forensics and was instrumental in elevating homicide investigation to a scientific discipline. In 18 Tiny Deaths, Bruce Goldfarb weaves Lee's remarkable story with the advances in forensics made in her lifetime to tell the tale of the birth of modern forensics.