検索キーワード： 物理学

Discover the physics, chemistry, and culinary secrets behind achieving perfectly crisp textures in every bite. From deep-frying fundamentals to moisture-fighting strategies, host Clare Delish reveals the science that transforms ordinary ingredients into irresistibly crunchy creations. Each episode explores a different technique for mastering the art of crunch. For more content like this, visit QuietPlease.aiThis show includes AI-generated content.

Join Clare Delish as she uncovers the chemistry and physics that elevate baking from guesswork to precision. Discover why tiny details—air pockets, fermentation timing, and gram-perfect measurements—transform ordinary ingredients into extraordinary bread, pastries, and cakes that consistently impress. For more content like this, visit QuietPlease.aiThis show includes AI-generated content.

Ezra Wade uses quantum physics breakthroughs like entanglement and non-locality to challenge everything we think we know about reality, connection, and certainty. This isn't science class—it's a philosophical provocation that asks what these discoveries actually mean for how we live and think. For more content like this, visit QuietPlease.aiThis show includes AI-generated content.

Join host Tyler Thompson as he explores the physics, technique, and timeless tradition of rotisserie cooking — from why the slow spin creates perfectly crispy, self-basting perfection to the medieval roots of spit-roasting whole meats over open flame. For more content like this, visit QuietPlease.aiThis show includes AI-generated content.

Ezra Wade explores quantum entanglement's unsettling implications—particles instantly connected across space, Einstein's famous objections proven wrong, and the paradox of connection without communication. This philosophical dive asks what these discoveries reveal about reality, distance, and the hidden rules governing what we're allowed to know about the universe. For more content like this, visit QuietPlease.aiThis show includes AI-generated content.

This book challenges one of the most persistent illusions of modern thought: the belief that evidence alone decides which theories are true. Across science, philosophy, and public debate, theories are often judged by popularity, elegance, authority, or the sheer volume of supporting data. Yet disagreement persists even where facts are shared. The reason, Boris Kriger argues, lies deeper than evidence itself. Every theory rests on an underlying structure that determines what counts as an explanation, what is allowed, and what is silently ruled out.

The Curiosity Well Podcast explores the "why" behind the fascinating. We take deep dives into space, science, history, and innovation, dropping new episodes every Wednesday

What if a 1973 Opel with a stock engine outperforms a cutting-edge hydrogen fuel cell car? In this podcast, we dive into the physics of energy efficiency — exploring how a humble GM/Shell vehicle achieved 376 mpg through continuous waste heat recovery and steam implosion, while Toyota's Mirai relies on regenerative braking that only kicks in when you stop. We break down why recovering heat you were going to throw away anyway might be the most underrated idea in automotive engineering — and what it means for the future of clean mobility.

Quasars are the brightest sustained phenomena in the known universe—engines of light powered by supermassive black holes devouring matter at the centers of distant galaxies. But they are more than cosmic spectacles. Every beam of quasar light that crosses the universe accumulates an extraordinarily detailed record of the gas, matter, and structure it passes through. The intergalactic medium writes its autobiography in the spectra of quasars, using absorption lines as words and sightlines as sentences.

Shoulders of Giants is a narrative history of how mathematics revealed the hidden forces shaping the modern world. From the geometry of ancient Greece to the emergence of electromagnetic theory, this audiobook follows the thinkers who transformed abstract symbols into practical tools — ideas that eventually carried signals, voices, and energy across continents. Along the way appear vivid portraits of mathematicians and physicists grappling with space, motion, light, and invisible fields, driven as much by obsession and rivalry as by curiosity.

Un podcast de divulgación científica donde exploro mi trabajo en desarrollo de fármacos, biología computacional y modelado in silico, junto con temas de bioinformática, biomedicina, física y ciencia en general. A través de conversaciones claras, análisis críticos y explicaciones accesibles, este espacio busca conectar la investigación de frontera con preguntas reales sobre la vida, la salud, la materia y el futuro de la ciencia.

Can you ever truly experience your own death? Quantum physics says no. Everyone dies. But what if, from your own perspective, death is impossible to experience? Reality doesn't follow one timeline. Every quantum event creates branching worlds where all outcomes happen. You exist in branches where you survived—but not in branches where you died.

For a century, physicists and philosophers have treated quantum mechanics as an anomaly—a realm where particles tunnel through barriers, exist in multiple states at once, and refuse to reveal their properties until observed. The quantum world has been called bizarre, counterintuitive, and fundamentally strange. But what if this strangeness was never in the world at all? What if it was only ever in our expectations? Nothing Strange About Quantum Strangeness offers a radical reframing.

This book explains why events in the world cannot always be understood as the result of separate things influencing one another locally. Starting from a well-established result in modern physics, it shows that some correlations observed in nature cannot be explained by assuming that each object carries its own independent properties and that all influence spreads step by step through space. The book examines the theorem that establishes this limit and the experiments that confirm it.

Die moderne Physik hat die Medizin umgekrempelt. Ärztinnen und Ärzte können heute ganz selbstverständlich in den lebendigen Menschen schauen – ohne den kleinsten Schnitt in die Haut. Verletzungen und Erkrankungen lassen sich damit so präzise erkennen wie nie zuvor. Und sogar Heilen kann die Physik! Wo eine Operation nicht ausreicht, können verschiedene Arten von Strahlung etwa Tumore bekämpfen.

Measuring distances in the Universe is one of the most demanding intellectual achievements in the history of science. The objects studied by astronomy are separated from us by such vast expanses that no direct measurement is possible. Every number describing the scale of the cosmos must therefore be inferred indirectly, through light, motion, geometry, and carefully constructed physical models.

Below the waves, the ocean remains a largely undiscovered realm, with only 25% of its features mapped in detail. What we know about its depths, we've learned with the help of deep-sea robots. World-renowned robotics expert James Bellingham introduces listeners to this compelling world of contemporary undersea exploration and the vital role autonomous robots play in corporate and governmental aquaculture management, climate data, energy source locations, shipwreck explorations, and much more.

In an era dominated by digital technology, we have long assumed that our devices—smartphones, computers, and networks—operate on the solid ground of classical physics. Yet the truth is far more profound: modern microelectronics has always rested on quantum foundations. Boris Kriger reveals how quantum mechanics quietly shaped the transistor from its inception, how effects like tunneling, interference, and decoherence were not later intrusions but essential enablers of function.

What is Now? This immediate moment, what we're experiencing right now . . . it bathes us like air, or gravity. Yet when we try to grasp this quality, to scrutinize it or bring it into focus, it vanishes, slipping through our fingers like a dream. And worse, according to the most trusted models of physics, Now doesn't even exist. If all this is so, then what, exactly, are we experiencing? How do we carve out time, sensation, self, and meaning from a blank, Now-less canvas?

Hosted by Lenny Vaughn, this podcast explores the invisible physics of sound that transforms music from noise into emotion. Each episode examines how vibrations create goosebumps, trigger memories, and synchronize crowds into shared experiences. Discover why music isn't just heard—it's physically felt and emotionally lived. For more content like this, visit QuietPlease.aiThis show includes AI-generated content.