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TMRO:STEAM is a monthly, live webcast about the latest advances in Science.

TMRO:STEAM

Interessante Fakten aus der Welt der Physik von denen du noch nicht wusstest, dass du sie wissen willst. Diskussion von zwei Physikern über spannende Themen der modernen Physik.

Ansprechpartner:
Dennis Schmelzer
Klunkau 24a
DE-38226 Salzgitter
Tel.: +49 172 5371745
E-Mail: physikgeplaenkel@gmail.com

Interessante Fakten aus der Welt der Physik von denen du noch nicht wusstest, dass du sie wissen willst. Diskussion von zwei Physikern über spannende Themen der modernen Physik. Ansprechpartner: Dennis Schmelzer Klunkau 24a DE-38226 Salzgitter Tel.: +49 172 5371745 E-Mail: physikgeplaenkel@gmail.com

Physik-Geplänkel

Litocast, uma nova forma de comunicação para você perder o seu medo de voar e ainda descobrir diversas curiosidades sobre aviação, de maneira divertida. Os episódios quase sempre contarão com ouvintes convidados. Venha se apaixonar pela aviação.

Litocast

Podcast o tym jak 20 latek moze wykorzystywac szanse zyciowe i w jaki sposob zbudowac mocna perspektywe na cale zycie.

UBratkaPrzedMikrofonem

Listen to top scientists on how Earth and climate might change if we hit a tipping point. TiPES is a European science project quantifying tipping points in the Earth system in order to improve climate projections. TiPES is funded by Horizon 2020

The TiPES Podcast - Tipping points change Earth and climate

Yayın hayatına 2020 yılının Mayıs ayında başlayan Definasyon, Türkiye’nin spor, fitness, wellness, antrenman, sağlık, beslenme konuşulan Podcast’idir.

Definasyon

Spring 2013 - UCL's Lunch Hour Lecture Series is an opportunity for anyone to sample the exceptional research work taking place at the university, in bite-size chunks. Speakers are drawn from across UCL and lectures frequently showcase new research and recent academic publications. Lunch Hour Lectures require no pre-booking, are free to attend and are open to anyone on a first-come, first-served basis.

Lunch Hour Lectures - Spring 2013 - Audio

פודקאסט בינה מלאכותית ולמידת מכונה

Amlek.AI: ML & AI Podcast

En este podcast trataremos el tema de Fuerza en sistemas mecánicos, en donde estaremos hablando y explicando diversos temas sobre qué es la fuerza, el par de torsión o torque, la fuerza resultante y daremos algunos ejemplos de nuestra vida cotidiana con relación a cada tema tratado.

Fuerza en Sistemas Mecánicos

Podcast de entrevista que trás participantes, professores e ex-alunos para discussão de trabalhos, projetos, atividades, servir de inspiração e afins.

PodCafis

ALLwissen ist ein Podcast zu den großen Fragen aus Astronomie, Raumfahrt und Physik.
Diese reichen von alltäglichen Fragen wie "Warum ist der Himmel blau?" und “Was genau sind eigentlich Sternschnuppen?” bis hin zu den komplexen Themen der Physik, wie der Relativitätstheorie und Dunkler Materie. 

Wir haben es uns zum Ziel gemacht, solche Fragen leicht verständlich, aber trotzdem wissenschaftlich akkurat, in knapp 20 Minuten zu beantworten.
Ihr benötigt keinerlei Vorwissen, nur Interesse - den Rest erledigen wir 😉

ALLwissen ist ein Podcast zu den großen Fragen aus Astronomie, Raumfahrt und Physik. Diese reichen von alltäglichen Fragen wie "Warum ist der Himmel blau?" und “Was genau sind eigentlich Sternschnuppen?” bis hin zu den komplexen Themen der Physik, wie der Relativitätstheorie und Dunkler Materie. Wir haben es uns zum Ziel gemacht, solche Fragen leicht verständlich, aber trotzdem wissenschaftlich akkurat, in knapp 20 Minuten zu beantworten. Ihr benötigt keinerlei Vorwissen, nur Interesse - den Rest erledigen wir 😉

ALLwissen - Große Fragen, kurze Antworten

NucTalk ist der Podcast des Nuklearforums Schweiz für alle, die sich für Kernenergie und Nukleartechnologie interessieren. 
Hier reden wir mit Expertinnen und Experten aus Wissenschaft, Politik und der Energiebranche über AKW bzw. Kernkraftwerke, über Nuklearsicherheit, Stromproduktion, Versorgungssicherheit, Klimawandel sowie über Nuklearmedizin und andere Anwendungen von Nukleartechnologie.

NucTalk ist der Podcast des Nuklearforums Schweiz für alle, die sich für Kernenergie und Nukleartechnologie interessieren. Hier reden wir mit Expertinnen und Experten aus Wissenschaft, Politik und der Energiebranche über AKW bzw. Kernkraftwerke, über Nuklearsicherheit, Stromproduktion, Versorgungssicherheit, Klimawandel sowie über Nuklearmedizin und andere Anwendungen von Nukleartechnologie.

NucTalk

This podcast is a learning platform for people in quantum computing.


Quantum computing is one of the most innovative and potentially life changing fields. What powers this is the people and they all have a story to tell.


Tekna Talks brings you uncut interviews with some of the most amazing individuals inside these worlds to share their journeys, advice and greatest learnings so you can have something to take away and help you progress.


Whether you are starting your career or are an expert in the field, we aim to create an inclusive learning platform where you can gain valuable insights.


https://www.youtube.com/channel/UCcEGf4nL_qDjO2PqBCnytBw
https://teknasearch.com/tekna-talks/

This podcast is a learning platform for people in quantum computing. Quantum computing is one of the most innovative and potentially life changing fields. What powers this is the people and they all have a story to tell. Tekna Talks brings you uncut interviews with some of the most amazing individuals inside these worlds to share their journeys, advice and greatest learnings so you can have something to take away and help you progress. Whether you are starting your career or are an expert in the field, we aim to create an inclusive learning platform where you can gain valuable insights. https://www.youtube.com/channel/UCcEGf4nL_qDjO2PqBCnytBw https://teknasearch.com/tekna-talks/

TEKNA TALKS

Podcast Himafi Unsoed 2023
Periode Cakrajiya Garjita

Podcast Himafi Unsoed 2023 Periode Cakrajiya Garjita

Himafi Unsoed

I klubbverkets nya podd galluspodden kommer du att få träffa FUTF:s klubbverk som bjuder in till allt det som F:are (och andra studenter) kan tänkas vilja lyssna på. Följ med oss på denna resa genom studentlivets bravader där vi bjuder in gäster från Ångströms alla håll och kanter!

Galluspodden

מקרינה רדיואקטיבית, דרך מחשבים קוונטיים ועד ההתחממות הגלובלית - עכבר מעבדה מסביר מושגים מורכבים ומרתקים בשפה פשוטה וברורה. 
פודקאסט פיזיקה אינפורמטיבי שמתאים לכל מי שסקרן, ללא ידע מקדים.

מקרינה רדיואקטיבית, דרך מחשבים קוונטיים ועד ההתחממות הגלובלית - עכבר מעבדה מסביר מושגים מורכבים ומרתקים בשפה פשוטה וברורה. פודקאסט פיזיקה אינפורמטיבי שמתאים לכל מי שסקרן, ללא ידע מקדים.

עכבר מעבדה

Life changing event and learning English, experience of life , thought

Indrajit@halder Science Around Everywhere

Wilson Meu Físico Favorito (WMFF)

No podcast Dr. Física, falaremos sobre o perfil dos concursos e vestibulares, dicas de estudo, resumos de Física e muito mais.
Os episódios saem toda semana, Quarta feira e é apresentado pelo Professor Júnior Sena.

No podcast Dr. Física, falaremos sobre o perfil dos concursos e vestibulares, dicas de estudo, resumos de Física e muito mais. Os episódios saem toda semana, Quarta feira e é apresentado pelo Professor Júnior Sena.

Dr. Física

In NLP rapport is an unconscious feeling of trust to someone. This is the very moment when we only see a person, start communicating with him and suddenly we begin to treat him much better than an ordinary stranger. 
This is such a state in which we become much more loyal making decisions.
This state can be created. It's a skill. This competence can be learned. Anyone can train it. This ability can be developed, and we'll show you how to do it in this podcast.
The principles of creating a ringing rapport here - on NLP Radio.

Radio NLP and Aleksandr Gerasimov presents: Ringing rapport.

In NLP rapport is an unconscious feeling of trust to someone. This is the very moment when we only see a person, start communicating with him and suddenly we begin to treat him much better than an ordinary stranger. This is such a state in which we become much more loyal making decisions. This state can be created. It's a skill. This competence can be learned. Anyone can train it. This ability can be developed, and we'll show you how to do it in this podcast. The principles of creating a ringing rapport here - on NLP Radio. Radio NLP and Aleksandr Gerasimov presents: Ringing rapport.

What is rapport?

La física es una de las ciencias naturales que más ha contribuido al desarrollo y bienestar del hombre

Conceptos básicos de la física

Lucas, Jasper, Juleon, and Sam discuss topics that they know very little about. Occasionally, a guest who knows more than them joins the discussion. Topics include Philosophy, Physics, Mathematics, Linguistics, and much more!

Hosted by: Lucas Rizzolo, Jasper Giglio, Juleon Brodie, and Sam Meyer
with Associate Producer: Sam Canfield
and Guest Hosts: Skylar Rizzolo, Nick Angerman

Lucas, Jasper, Juleon, and Sam discuss topics that they know very little about. Occasionally, a guest who knows more than them joins the discussion. Topics include Philosophy, Physics, Mathematics, Linguistics, and much more! Hosted by: Lucas Rizzolo, Jasper Giglio, Juleon Brodie, and Sam Meyer with Associate Producer: Sam Canfield and Guest Hosts: Skylar Rizzolo, Nick Angerman

SLOOM

This podcast is a general guideline for information and not a specific tutorial for any specific syllabus; therefore, it should not be relied upon. StudySquare Ltd and any people involved in producing this podcast take no responsibility or liability for any potential errors or omissions regarding this podcast and make no guarantees of any completeness, accuracy, or usefulness of the information contained in this podcast, its structure or its show notes.

Higher Physics Revision with Jonas

Willkommen beim Cosmic Latte Podcast! 

Begleite Eva, wenn sie mit Jana und Elka bei einem Kaffeehausgespräch, über Galaxien, Sterne und die faszinierenden Wunder unseres Universums plaudert. Ihre Leidenschaft für Astronomie und Wissenschaftskommunikation verbindet die Podcasterinnen miteinander.

Eva studiert Astronomie an der Universität Wien. Sie hat einen Abschluss in Kommunikationswissenschaften und erst vor kurzem ihre Masterarbeit über Wissenschaftskommunikation geschrieben. Sie ist neben diesem Podcast auch im Podcast „Das Universum“ zu hören, wo sie über Science in Science-Fiction Filmen redet. Sie träumt davon, eines Tages ins Weltall fliegen zu können. 

Elka ist zur Zeit FH-Lektorin und hat eine Ausbildung zur Medizinphysikerin abgeschlossen. Außerdem beitreibt sie als @thesciencyfeminist auf Instagram einen erfolgreichen Wissenschaftskommunikationskanal, der vor allem Frauen in der Wissenschaft sichtbar machen soll. Sie träumt davon, eines Tages Evas Weltraumflug programmieren zu dürfen.

Jana ist unser neuer Zugang bei Cosmic Latte. Sie hat nach ihrem Masterabschluss in Astrophysik nach Exoplaneten geforscht, bevor sie in die Wissenschaftskommunikation wechselte. Heute ist sie Redaktionsmitglied des YouTube-Kanals „Terra X Lesch & Co“.  Neben Cosmic Latte ist sie auch in den beiden Podcasts „translunar“ und „Ein großer Schritt für die Menschheit“ zu hören.

Tauche in diesem Podcast in spannende astronomische Gespräche ein. Mach es dir gemütlich und erfahre Interessantes über die Geheimnisse des Kosmos!

Falls du Fragen hast oder mit uns in Kontakt treten möchtest, erreichst du uns jederzeit per E-Mail unter: kontakt@cosmiclatte.at.

Du kannst uns gerne unterstützen und zwar bei Steady (https://steadyhq.com/de/cosmiclatte/), Patreon (https://patreon.com/CosmiclattePodcast), Paypal (https://paypal.me/cosmiclattepod)!

Willkommen beim Cosmic Latte Podcast! Begleite Eva, wenn sie mit Jana und Elka bei einem Kaffeehausgespräch, über Galaxien, Sterne und die faszinierenden Wunder unseres Universums plaudert. Ihre Leidenschaft für Astronomie und Wissenschaftskommunikation verbindet die Podcasterinnen miteinander. Eva studiert Astronomie an der Universität Wien. Sie hat einen Abschluss in Kommunikationswissenschaften und erst vor kurzem ihre Masterarbeit über Wissenschaftskommunikation geschrieben. Sie ist neben diesem Podcast auch im Podcast „Das Universum“ zu hören, wo sie über Science in Science-Fiction Filmen redet. Sie träumt davon, eines Tages ins Weltall fliegen zu können. Elka ist zur Zeit FH-Lektorin und hat eine Ausbildung zur Medizinphysikerin abgeschlossen. Außerdem beitreibt sie als @thesciencyfeminist auf Instagram einen erfolgreichen Wissenschaftskommunikationskanal, der vor allem Frauen in der Wissenschaft sichtbar machen soll. Sie träumt davon, eines Tages Evas Weltraumflug programmieren zu dürfen. Jana ist unser neuer Zugang bei Cosmic Latte. Sie hat nach ihrem Masterabschluss in Astrophysik nach Exoplaneten geforscht, bevor sie in die Wissenschaftskommunikation wechselte. Heute ist sie Redaktionsmitglied des YouTube-Kanals „Terra X Lesch & Co“. Neben Cosmic Latte ist sie auch in den beiden Podcasts „translunar“ und „Ein großer Schritt für die Menschheit“ zu hören. Tauche in diesem Podcast in spannende astronomische Gespräche ein. Mach es dir gemütlich und erfahre Interessantes über die Geheimnisse des Kosmos! Falls du Fragen hast oder mit uns in Kontakt treten möchtest, erreichst du uns jederzeit per E-Mail unter: kontakt@cosmiclatte.at. Du kannst uns gerne unterstützen und zwar bei Steady (https://steadyhq.com/de/cosmiclatte/), Patreon (https://patreon.com/CosmiclattePodcast), Paypal (https://paypal.me/cosmiclattepod)!

Willkommen beim Cosmic Latte Podcast! 

Begleite Eva, wenn sie mit Jana und Elka bei einem Kaffeehausgespräch, über Galaxien, Sterne und die faszinierenden Wunder unseres Universums plaudert. Ihre Leidenschaft für Astronomie und Wissenschaftskommunikation verbindet die Podcasterinnen miteinander.

Eva studiert Astronomie an der Universität Wien. Sie hat einen Abschluss in Kommunikationswissenschaften und erst vor kurzem ihre Masterarbeit über Wissenschaftskommunikation geschrieben. Sie ist neben diesem Podcast auch im Podcast „Das Universum“ zu hören, wo sie über Science in Science-Fiction Filmen redet. Sie träumt davon, eines Tages ins Weltall fliegen zu können. 

Elka ist zur Zeit FH-Lektorin und hat eine Ausbildung zur Medizinphysikerin abgeschlossen. Außerdem beitreibt sie als @thesciencyfeminist auf Instagram einen erfolgreichen Wissenschaftskommunikationskanal, der vor allem Frauen in der Wissenschaft sichtbar machen soll. Sie träumt davon, eines Tages Evas Weltraumflug programmieren zu dürfen.

Jana ist unser neuer Zugang bei Cosmic Latte. Sie hat nach ihrem Masterabschluss in Astrophysik nach Exoplaneten geforscht, bevor sie in die Wissenschaftskommunikation wechselte. Heute ist sie Redaktionsmitglied des YouTube-Kanals „Terra X Lesch &amp; Co“.  Neben Cosmic Latte ist sie auch in den beiden Podcasts „translunar“ und „Ein großer Schritt für die Menschheit“ zu hören.

Tauche in diesem Podcast in spannende astronomische Gespräche ein. Mach es dir gemütlich und erfahre Interessantes über die Geheimnisse des Kosmos!

Falls du Fragen hast oder mit uns in Kontakt treten möchtest, erreichst du uns jederzeit per E-Mail unter: kontakt@cosmiclatte.at.

Du kannst uns gerne unterstützen und zwar bei Steady (https://steadyhq.com/de/cosmiclatte/), Patreon (https://patreon.com/CosmiclattePodcast), Paypal (https://paypal.me/cosmiclattepod)!

Cosmic Latte

Explore the world of physics and the lives of physicists. Produced by Physics Magazine, an online publication of the American Physical Society. Read more at physics.aps.org.

This Is Physics

Cos’è Fisicaffè?
Fisicaffé è un coro di voci da tutta Italia. Ecco come si presentano i diversi comitati locali:
“Com’è bello far podcast da Trieste in giù!” ~ LC Trieste.
"Chi l'è sto Fisicaffè?" "Fisicaffè l'è il gran visir de tücc i podcast!" ~ LC Milano.
"Se Parigi avesse un podcast sarebbe una piccola Bari” ~ LC Bari.
"Il podcast di Pisa pende pende ma non casca mai giù!" ~ LC Pisa.
"Palermo tutto porto o tutto podcast?" ~ LC Palermo.
"Daje de podcast" ~ L.C. Roma

Cos’è Fisicaffè? Fisicaffé è un coro di voci da tutta Italia. Ecco come si presentano i diversi comitati locali: “Com’è bello far podcast da Trieste in giù!” ~ LC Trieste. "Chi l'è sto Fisicaffè?" "Fisicaffè l'è il gran visir de tücc i podcast!" ~ LC Milano. "Se Parigi avesse un podcast sarebbe una piccola Bari” ~ LC Bari. "Il podcast di Pisa pende pende ma non casca mai giù!" ~ LC Pisa. "Palermo tutto porto o tutto podcast?" ~ LC Palermo. "Daje de podcast" ~ L.C. Roma

Fisicaffè

Al iniciar mes, el profesor Ricardo Villalobos nos comparte sus conocimientos sobre astrolog&iacute;a para guiarnos sobre los aspectos m&aacute;s importantes de nuestra vida.
Lo puedes escuchar de lunes a viernes desde las 5am sintonizando Vibra 104.9FM en Bogot&aacute; o en Internet ingresando a <a href="https://vibra.co/radio-en-vivo/">vibra.co</a>.

Al iniciar mes, el profesor Ricardo Villalobos nos comparte sus conocimientos sobre astrología para guiarnos sobre los aspectos más importantes de nuestra vida. Lo puedes escuchar de lunes a viernes desde las 5am sintonizando Vibra 104.9FM en Bogotá o en Internet ingresando a vibra.co.

Al iniciar mes, el profesor Ricardo Villalobos nos comparte sus conocimientos sobre astrología para guiarnos sobre los aspectos más importantes de nuestra vida.
Lo puedes escuchar de lunes a viernes desde las 5am sintonizando Vibra 104.9FM en Bogotá o en Internet ingresando a <a href="https://vibra.co/radio-en-vivo/" rel="noopener noreferrer">vibra.co</a>.

Horóscopo Ricardo Villalobos | Vibra

True Stories mit Interviews verschiedener Gäste. Fragen die jeden interessieren, beleuchtet mit der Taschenlampe imaginärer Geister. Reinkarnationslehre im Lichte des klassischen Spiritismus. 
"help to find yourself"

True Stories mit Interviews verschiedener Gäste. Fragen die jeden interessieren, beleuchtet mit der Taschenlampe imaginärer Geister. Reinkarnationslehre im Lichte des klassischen Spiritismus. "help to find yourself"

Geistertaschenlampe

Buen Día

ILLUMINATI SOUNDS

A podcast to discuss the ideas that are at the forefront of fundamental theoretical physics and mathematics.

Phymaths podcast

Are we living in a simulated universe ? Join us on a mind-expanding journey into a revolutionary theory about the nature of our universe. We explore the fascinating possibility that our reality operates like a sophisticated finite element simulation - not as a metaphor, but as its fundamental structure. Each episode meticulously builds a framework showing how the universe's most puzzling features - from quantum mechanics to relativistic effects - align remarkably well with computational principles. Through expert analysis and clear explanation, we transform complex physics concepts into comprehensible insights about the nature of reality itself. What makes this series unique is its precise focus on finite element simulation - a specific computational technique that might hold the key to understanding everything from the Big Bang to black holes. We don't just ask "Are we in a simulation?" We explore exactly how such a system would work, what evidence supports it, and what it means for our understanding of reality. Key topics include:<ul><li>How viewing space as a computational mesh explains relativistic effects</li><li>Why quantum behavior might be an optimization feature of the universe</li><li>How information propagates through the cosmic framework</li><li>What this means for consciousness, free will, and existence itself</li></ul>Whether you're a physicist, programmer, philosopher, or simply curious about the fundamental nature of reality, Digital Universe Theory offers fresh perspectives on the cosmic code that might underlie everything we know.New episodes explore different aspects of this groundbreaking theory, from its mathematical foundations to its philosophical implications. Join us as we unravel the digital nature of our universe, one revelation at a time. #DigitalUniverseTheory #Physics #Simulation #QuantumMechanics #Cosmology

Are we living in a simulated universe ? Join us on a mind-expanding journey into a revolutionary theory about the nature of our universe. We explore the fascinating possibility that our reality operates like a sophisticated finite element simulation - not as a metaphor, but as its fundamental structure. Each episode meticulously builds a framework showing how the universe's most puzzling features - from quantum mechanics to relativistic effects - align remarkably well with computational principles. Through expert analysis and clear explanation, we transform complex physics concepts into comprehensible insights about the nature of reality itself. What makes this series unique is its precise focus on finite element simulation - a specific computational technique that might hold the key to understanding everything from the Big Bang to black holes. We don't just ask "Are we in a simulation?" We explore exactly how such a system would work, what evidence supports it, and what it means for our understanding of reality. Key topics include:How viewing space as a computational mesh explains relativistic effectsWhy quantum behavior might be an optimization feature of the universeHow information propagates through the cosmic frameworkWhat this means for consciousness, free will, and existence itselfWhether you're a physicist, programmer, philosopher, or simply curious about the fundamental nature of reality, Digital Universe Theory offers fresh perspectives on the cosmic code that might underlie everything we know. New episodes explore different aspects of this groundbreaking theory, from its mathematical foundations to its philosophical implications. Join us as we unravel the digital nature of our universe, one revelation at a time. #DigitalUniverseTheory #Physics #Simulation #QuantumMechanics #Cosmology

Digital Universe Theory

SIMPLE MACHINES :) Here i will be talking about simple machines, in physics.I will talk about simple machines as i mentioned as they have a crucial role in our lives.

SIMPLE MACHINES :) Here i will be talking about simple machines, in physics. I will talk about simple machines as i mentioned as they have a crucial role in our lives.

SIMPLE MACHINES :) Here i will be talking about simple machines, in physics.I will talk about simple machines as i mentioned as they have a crucial role in our lives.

AI- Simple machines

Somos unas gemelas cuestionándonos TODO, lo cual nos encanta poder compartir lo que aprendemos en el camino sobre temas que te harán cuestionar tu propia existencia. <hr> Hosted on Acast. See <a style='color:grey;' target='_blank' rel='noopener noreferrer' href='https://acast.com/privacy'>acast.com/privacy</a> for more information.

Somos unas gemelas cuestionándonos TODO, lo cual nos encanta poder compartir lo que aprendemos en el camino sobre temas que te harán cuestionar tu propia existencia. Hosted on Acast. See acast.com/privacy for more information.

Somos unas gemelas cuestionándonos TODO, lo cual nos encanta poder compartir lo que aprendemos en el camino sobre temas que te harán cuestionar tu propia existencia. Hosted on Acast. See <a href="https://acast.com/privacy" rel="noopener noreferrer">acast.com/privacy</a> for more information.

El despertar de la conciencia

Peter Higgs: A Life in Pursuit of the Fundamental Early Life and Education Peter Ware Higgs was born on May 29, 1929, in Newcastle upon Tyne, England. His parents, Thomas Ware Higgs and Gertrude Maude Coghill, were both involved in the arts - his father was a sound engineer for the BBC, and his mother was a former classical pianist. Despite his parents' artistic inclinations, young Peter showed an early interest in science and mathematics. Higgs' childhood was marked by the tumultuous events of World War II. He spent much of his early years moving between London, Bristol, and Devon, as his family sought safety from the German bombings. Despite the disruptions, Higgs excelled academically and earned a scholarship to attend Cotham Grammar School in Bristol. After completing his secondary education, Higgs went on to study at King's College, London. He initially pursued a degree in mathematics but later switched to physics, feeling that it offered a more profound understanding of the world. In 1950, he graduated with a first-class honors degree in physics. Higgs continued his studies at King's College, earning a master's degree in 1952 and a Ph.D. in 1954. His doctoral thesis focused on molecular vibrations and helped lay the groundwork for his later work in theoretical physics. Early Career and the Higgs Mechanism After completing his Ph.D., Higgs took up a research fellowship at the University of Edinburgh. It was during this time that he began to delve deeper into the fundamental questions of particle physics. In the early 1960s, physicists were grappling with a perplexing problem: how to explain the origin of mass in the universe. At the time, the prevailing theory was the Standard Model of particle physics, which described the fundamental particles and forces that make up the universe. However, the Standard Model had a glaring omission - it could not explain why some particles, like protons and electrons, had mass, while others, like photons, did not. Higgs set out to tackle this problem. In 1964, he published a series of papers proposing a mechanism that could give particles mass. According to Higgs, the universe is permeated by an invisible field, now known as the Higgs field. As particles move through this field, they interact with it and acquire mass. The more strongly a particle interacts with the Higgs field, the more massive it becomes. Crucially, Higgs' theory also predicted the existence of a new particle, which came to be known as the Higgs boson. This particle was essentially a ripple in the Higgs field and was the key to verifying the existence of the field itself. Higgs was not alone in proposing this mechanism. Around the same time, several other physicists, including François Englert and Robert Brout in Belgium, and Carl Hagen, Gerald Guralnik, and Tom Kibble in the United States, independently came up with similar ideas. However, it was Higgs' name that became most closely associated with the theory, and the particle itself came to be known as the Higgs boson. The Hunt for the Higgs Boson Despite the theoretical elegance of the Higgs mechanism, proving its existence would prove to be a monumental challenge. The Higgs boson was predicted to be incredibly massive and short-lived, making it extremely difficult to detect. For decades, physicists searched for evidence of the Higgs boson using increasingly powerful particle accelerators. The search became one of the main motivations behind the construction of the Large Hadron Collider (LHC) at CERN, the European Organization for Nuclear Research, in Geneva, Switzerland. The LHC is the world's largest and most powerful particle accelerator. It consists of a 27-kilometer ring of superconducting magnets that can accelerate protons to nearly the speed of light and then smash them together at immense energies. The hope was that, among the debris of these collisions, physicists might finally catch a glimpse of the elusive Higgs boson. On July 4, 2012, after years of intense effort, CERN announced a historic discovery. Two independent experiments at the LHC, known as ATLAS and CMS, had both detected a new particle with a mass of around 125 GeV - consistent with the predicted mass of the Higgs boson. It was a triumph not only for the thousands of physicists and engineers involved in the experiments but also for Higgs and the other theorists who had predicted the particle's existence nearly half a century earlier. Nobel Prize and Legacy The discovery of the Higgs boson was a watershed moment in the history of physics. It provided the final piece of the puzzle in the Standard Model and confirmed the existence of the Higgs field, which is now understood to be a fundamental component of the universe. In recognition of this achievement, Higgs and François Englert were awarded the Nobel Prize in Physics in 2013. The Nobel Committee praised their work for the "theoretical discovery of a mechanism that contributes to our understanding of the origin of mass of subatomic particles." For Higgs, who had spent much of his career in relative obscurity, the Nobel Prize brought a sudden and intense spotlight. He became a scientific celebrity, sought after for interviews and public appearances. Despite his newfound fame, Higgs remained humble and dedicated to his work. He continued to pursue research and to inspire a new generation of physicists. Beyond the scientific implications, the discovery of the Higgs boson and the confirmation of the Higgs mechanism have had a profound cultural impact. The Higgs boson has captured the public imagination like few other scientific concepts, earning nicknames like the "God Particle" (a term Higgs himself dislikes). It has become a symbol of the power of human curiosity and the relentless pursuit of knowledge. Today, Peter Higgs is remembered as one of the most influential physicists of his generation. His work has reshaped our understanding of the universe at its most fundamental level and has opened up new avenues for exploration and discovery. The Higgs boson and the Higgs field are now an integral part of the language of physics, a testament to the enduring legacy of a man who dedicated his life to the pursuit of understanding. As we continue to push the boundaries of our knowledge, from the smallest subatomic particles to the vast expanses of the cosmos, we stand on the shoulders of giants like Peter Higgs. His story is a reminder of the power of human ingenuity, the importance of basic research, and the profound impact that a single idea can have on the course of human understanding. Thanks for listening to Quiet Please. Remember to like and share wherever you get your podcasts.

Peter Higgs: A Life in Pursuit of the Fundamental Early Life and Education Peter Ware Higgs was born on May 29, 1929, in Newcastle upon Tyne, England. His parents, Thomas Ware Higgs and Gertrude Maude Coghill, were both involved in the arts - his father was a sound engineer for the BBC, and his mother was a former classical pianist. Despite his parents' artistic inclinations, young Peter showed an early interest in science and mathematics. Higgs' childhood was marked by the tumultuous events of World War II. He spent much of his early years moving between London, Bristol, and Devon, as his family sought safety from the German bombings. Despite the disruptions, Higgs excelled academically and earned a scholarship to attend Cotham Grammar School in Bristol. After completing his secondary education, Higgs went on to study at King's College, London. He initially pursued a degree in mathematics but later switched to physics, feeling that it offered a more profound understanding of the world. In 1950, he graduated with a first-class honors degree in physics. Higgs continued his studies at King's College, earning a master's degree in 1952 and a Ph.D. in 1954. His doctoral thesis focused on molecular vibrations and helped lay the groundwork for his later work in theoretical physics. Early Career and the Higgs Mechanism After completing his Ph.D., Higgs took up a research fellowship at the University of Edinburgh. It was during this time that he began to delve deeper into the fundamental questions of particle physics. In the early 1960s, physicists were grappling with a perplexing problem: how to explain the origin of mass in the universe. At the time, the prevailing theory was the Standard Model of particle physics, which described the fundamental particles and forces that make up the universe. However, the Standard Model had a glaring omission - it could not explain why some particles, like protons and electrons, had mass, while others, like photons, did not. Higgs set out to tackle this problem. In 1964, he published a series of papers proposing a mechanism that could give particles mass. According to Higgs, the universe is permeated by an invisible field, now known as the Higgs field. As particles move through this field, they interact with it and acquire mass. The more strongly a particle interacts with the Higgs field, the more massive it becomes. Crucially, Higgs' theory also predicted the existence of a new particle, which came to be known as the Higgs boson. This particle was essentially a ripple in the Higgs field and was the key to verifying the existence of the field itself. Higgs was not alone in proposing this mechanism. Around the same time, several other physicists, including François Englert and Robert Brout in Belgium, and Carl Hagen, Gerald Guralnik, and Tom Kibble in the United States, independently came up with similar ideas. However, it was Higgs' name that became most closely associated with the theory, and the particle itself came to be known as the Higgs boson. The Hunt for the Higgs Boson Despite the theoretical elegance of the Higgs mechanism, proving its existence would prove to be a monumental challenge. The Higgs boson was predicted to be incredibly massive and short-lived, making it extremely difficult to detect. For decades, physicists searched for evidence of the Higgs boson using increasingly powerful particle accelerators. The search became one of the main motivations behind the construction of the Large Hadron Collider (LHC) at CERN, the European Organization for Nuclear Research, in Geneva, Switzerland. The LHC is the world's largest and most powerful particle accelerator. It consists of a 27-kilometer ring of superconducting magnets that can accelerate protons to nearly the speed of light and then smash them together at immense energies. The hope was that, among the debris of these collisions, physicists might finally catch a glimpse of the elusive Higgs boson. On July 4, 2012, after years of intense effort, CERN announced a historic discovery. Two independent experiments at the LHC, known as ATLAS and CMS, had both detected a new particle with a mass of around 125 GeV - consistent with the predicted mass of the Higgs boson. It was a triumph not only for the thousands of physicists and engineers involved in the experiments but also for Higgs and the other theorists who had predicted the particle's existence nearly half a century earlier. Nobel Prize and Legacy The discovery of the Higgs boson was a watershed moment in the history of physics. It provided the final piece of the puzzle in the Standard Model and confirmed the existence of the Higgs field, which is now understood to be a fundamental component of the universe. In recognition of this achievement, Higgs and François Englert were awarded the Nobel Prize in Physics in 2013. The Nobel Committee praised their work for the "theoretical discovery of a mechanism that contributes to our understanding of the origin of mass of subatomic particles." For Higgs, who had spent much of his career in relative obscurity, the Nobel Prize brought a sudden and intense spotlight. He became a scientific celebrity, sought after for interviews and public appearances. Despite his newfound fame, Higgs remained humble and dedicated to his work. He continued to pursue research and to inspire a new generation of physicists. Beyond the scientific implications, the discovery of the Higgs boson and the confirmation of the Higgs mechanism have had a profound cultural impact. The Higgs boson has captured the public imagination like few other scientific concepts, earning nicknames like the "God Particle" (a term Higgs himself dislikes). It has become a symbol of the power of human curiosity and the relentless pursuit of knowledge. Today, Peter Higgs is remembered as one of the most influential physicists of his generation. His work has reshaped our understanding of the universe at its most fundamental level and has opened up new avenues for exploration and discovery. The Higgs boson and the Higgs field are now an integral part of the language of physics, a testament to the enduring legacy of a man who dedicated his life to the pursuit of understanding. As we continue to push the boundaries of our knowledge, from the smallest subatomic particles to the vast expanses of the cosmos, we stand on the shoulders of giants like Peter Higgs. His story is a reminder of the power of human ingenuity, the importance of basic research, and the profound impact that a single idea can have on the course of human understanding. Thanks for listening to Quiet Please. Remember to like and share wherever you get your podcasts.

Peter Higgs: A Life in Pursuit of the Fundamental Early Life and Education Peter Ware Higgs was born on May 29, 1929, in Newcastle upon Tyne, England. His parents, Thomas Ware Higgs and Gertrude Maude Coghill, were both involved in the arts - his father was a sound engineer for the BBC, and his mother was a former classical pianist. Despite his parents' artistic inclinations, young Peter showed an early interest in science and mathematics. Higgs' childhood was marked by the tumultuous events of World War II. He spent much of his early years moving between London, Bristol, and Devon, as his family sought safety from the German bombings. Despite the disruptions, Higgs excelled academically and earned a scholarship to attend Cotham Grammar School in Bristol. After completing his secondary education, Higgs went on to study at King's College, London. He initially pursued a degree in mathematics but later switched to physics, feeling that it offered a more profound understanding of the world. In 1950, he graduated with a first-class honors degree in physics. Higgs continued his studies at King's College, earning a master's degree in 1952 and a Ph.D. in 1954. His doctoral thesis focused on molecular vibrations and helped lay the groundwork for his later work in theoretical physics. Early Career and the Higgs Mechanism After completing his Ph.D., Higgs took up a research fellowship at the University of Edinburgh. It was during this time that he began to delve deeper into the fundamental questions of particle physics. In the early 1960s, physicists were grappling with a perplexing problem: how to explain the origin of mass in the universe. At the time, the prevailing theory was the Standard Model of particle physics, which described the fundamental particles and forces that make up the universe. However, the Standard Model had a glaring omission - it could not explain why some particles, like protons and electrons, had mass, while others, like photons, did not. Higgs set out to tackle this problem. In 1964, he published a series of papers proposing a mechanism that could give particles mass. According to Higgs, the universe is permeated by an invisible field, now known as the Higgs field. As particles move through this field, they interact with it and acquire mass. The more strongly a particle interacts with the Higgs field, the more massive it becomes. Crucially, Higgs' theory also predicted the existence of a new particle, which came to be known as the Higgs boson. This particle was essentially a ripple in the Higgs field and was the key to verifying the existence of the field itself. Higgs was not alone in proposing this mechanism. Around the same time, several other physicists, including François Englert and Robert Brout in Belgium, and Carl Hagen, Gerald Guralnik, and Tom Kibble in the United States, independently came up with similar ideas. However, it was Higgs' name that became most closely associated with the theory, and the particle itself came to be known as the Higgs boson. The Hunt for the Higgs Boson Despite the theoretical elegance of the Higgs mechanism, proving its existence would prove to be a monumental challenge. The Higgs boson was predicted to be incredibly massive and short-lived, making it extremely difficult to detect. For decades, physicists searched for evidence of the Higgs boson using increasingly powerful particle accelerators. The search became one of the main motivations behind the construction of the Large Hadron Collider (LHC) at CERN, the European Organization for Nuclear Research, in Geneva, Switzerland. The LHC is the world's largest and most powerful particle accelerator. It consists of a 27-kilometer ring of superconducting magnets that can accelerate protons to nearly the speed of light and then smash them together at immense energies. The hope was that, among the debris of these collisions, physicists might finally catch a glimpse of the elusive Higgs boson. On July 4, 2012, after years of intense effort, CERN announced a historic discovery. Two independent experiments at the LHC, known as ATLAS and CMS, had both detected a new particle with a mass of around 125 GeV - consistent with the predicted mass of the Higgs boson. It was a triumph not only for the thousands of physicists and engineers involved in the experiments but also for Higgs and the other theorists who had predicted the particle's existence nearly half a century earlier. Nobel Prize and Legacy The discovery of the Higgs boson was a watershed moment in the history of physics. It provided the final piece of the puzzle in the Standard Model and confirmed the existence of the Higgs field, which is now understood to be a fundamental component of the universe. In recognition of this achievement, Higgs and François Englert were awarded the Nobel Prize in Physics in 2013. The Nobel Committee praised their work for the "theoretical discovery of a mechanism that contributes to our understanding of the origin of mass of subatomic particles." For Higgs, who had spent much of his career in relative obscurity, the Nobel Prize brought a sudden and intense spotlight. He became a scientific celebrity, sought after for interviews and public appearances. Despite his newfound fame, Higgs remained humble and dedicated to his work. He continued to pursue research and to inspire a new generation of physicists. Beyond the scientific implications, the discovery of the Higgs boson and the confirmation of the Higgs mechanism have had a profound cultural impact. The Higgs boson has captured the public imagination like few other scientific concepts, earning nicknames like the "God Particle" (a term Higgs himself dislikes). It has become a symbol of the power of human curiosity and the relentless pursuit of knowledge. Today, Peter Higgs is remembered as one of the most influential physicists of his generation. His work has reshaped our understanding of the universe at its most fundamental level and has opened up new avenues for exploration and discovery. The Higgs boson and the Higgs field are now an integral part of the language of physics, a testament to the enduring legacy of a man who dedicated his life to the pursuit of understanding. As we continue to push the boundaries of our knowledge, from the smallest subatomic particles to the vast expanses of the cosmos, we stand on the shoulders of giants like Peter Higgs. His story is a reminder of the power of human ingenuity, the importance of basic research, and the profound impact that a single idea can have on the course of human understanding. Thanks for listening to Quiet Please. Remember to like and share wherever you get your podcasts.

Peter Higgs - Audio Biography

一档学生对谈播客，尝试在庸碌竞争的日常生活工作和科研中，用真正的聊天找到那些最有灵气最酷的故事。我们希望这些有意思的小「Fancy」成为热爱的内核，希望无论看见微风或暴雨，我们都愿意讲，“哇，事情开始变得有意思了。”

现在的主播霄宇@Xiaoyu_PKU，合作请致 real_fancy@icloud.com

一档学生对谈播客，尝试在庸碌竞争的日常生活工作和科研中，用真正的聊天找到那些最有灵气最酷的故事。我们希望这些有意思的小「Fancy」成为热爱的内核，希望无论看见微风或暴雨，我们都愿意讲，“哇，事情开始变得有意思了。” 现在的主播霄宇@Xiaoyu_PKU，合作请致 real_fancy@icloud.com

Physics Podcasts / Page 17