Podcasts about Fermilab

Nos inquieta nuestra SOLEDAD en el universo. Miramos al cielo a la espera de una señal o un destello de vida en nuestro mismo vecindario solar, algo que nos dé indicios de que no estamos tan solos como creíamos. Este es un sueño que incluso Carl Sagan había tenido: una enciclopedia galáctica, un vasto repositorio del conocimiento de muchos mundos. Oye el inicio del gran sueño por encontrar otras compañías distantes: el Catálogo de exoplanetas habitables, creado por el director del Laboratorio de Habitabilidad Planetaria (PHL), Abel Méndez. Nuestro invitado es profesor de la Universidad de Arecibo, en Puerto Rico; becado MIRS de NASA con experiencia en investigación de física y astrofísica en Fermilab, NASA Goddard, NASA Ames y el Observatorio de Arecibo. Es investigador de habitabilidad en el Sistema Solar y planetas extrasolares; desarrollador del Índice de Similitud de la Tierra, y el proyecto Paleo-Tierra Visible. Su investigación ha sido destacada por publicaciones internacionales como National Geographic, Scientific American y Discover Magazine. ¿Cómo podría ser el HOGAR de otras formas de vida? En nuestra galaxia el 73% de las estrellas son enanas rojas y naranjas. Estas suelen tener una juventud violenta, pero pueden vivir 10 veces más que el Sol y estar muy calmadas el resto de su existencia, permitiendo que los planetas a su alrededor sean habitables. ¿Qué tan parecidos podrían ser a la Tierra? Acompáñanos en este viaje en el que es posible que no estemos buscando algo que no hayamos visto. Cuando hablamos de habitabilidad, cuenta Abel Méndez, nos imaginamos una tierra familiar. Pero incluso nuestro hogar en el universo ha cambiado mucho en millones de años. Si nos remitiéramos a sus inicios, la Tierra parecía otro planeta, uno habitado, sobre todo, por la vida que prospera en lo diminuto: océanos colmados de seres microscópicos, sin plantas o animales, que luego evolucionaron para ser lo que somos.

Das unglaubliche Muon G-2 Experiment von Fermilab. Während es einige ungeklärte Phänomene gibt, die wir bis heute nicht erklären können. Waren für viele Wissenschaftler die Vorhersagen des Standardmodells absolut zuverlässig. Nun, bis auf ein paar lose Enden hier und da, einschließlich einer jahrzehntelangen Meinungsverschiedenheit zwischen Daten und Theorie in Bezug auf die magnetischen Eigenschaften eines subatomaren Teilchens namens Myon. Wissenschaftler haben zwei Jahrzehnte darauf gewartet, ob diese Diskrepanz real ist. Und nun ist das Warten endlich vorbei. Good Night Stories: Auf YouTube - https://www.youtube.com/channel/UCOGzvEVuggur7x8BxoL84-A Auf Spotify - https://open.spotify.com/show/5Mz5jx2lm7DXN3FizSigoJ Abonniere jetzt die Entropy, um keine der coolen & interessanten Episoden zu verpassen! Das unterstützt mich natürlich und hilft mir meinen Content zu verbessern und zu erweitern! Hier abonnieren: https://www.youtube.com/channel/UC5dBZm6ztKizdUnN7Puz3QQ?sub_confirmation=1 ♦ PATREON: https://www.patreon.com/entropy_wse ♦ TWITTER: https://twitter.com/Entropy_channel ♦ INSTAGRAM: https://www.instagram.com/roma_perezogin/ ♦ INSTAGRAM: https://www.instagram.com/entropy_channel/

Why the next kernel will be "the merge window from hell," a holiday gift for Wayland users, and how the open source community could do more to take on YouTube.

Why the next kernel will be "the merge window from hell," a holiday gift for Wayland users, and how the open source community could do more to take on YouTube.

Crain's health care reporter Katherine Davis talks with host Amy Guth about Chicago's new class of hospital CEOs taking over at a trying time and the headwinds against them. Plus: A big week on the national and local political stage could give big answers to big questions; Walgreens' VillageMD to acquire rival in $9 billion deal; Novartis laying off 275 in Libertyville; and Argonne and Fermilab to get over $300 million from feds.

Design and Testing of a 3U CubeSat to Test the In-situ Vetoing for the ν SOL Solar Neutrino Detector by Jonathan Folkerts. on Monday 17 October For years, earth-based neutrino detectors have been run and operated to detect the elusive neutrino. These have historically been enormous underground detectors. The neutrino Solar Orbiting Laboratory ($nu$SOL) project is working to design a technical demonstration to show that a much smaller neutrino detector can be operated in near-solar environments for a future spaceflight mission. At a closest approach of 3 solar radii, there is a ten thousand-fold increase in the neutrino flux. This would allow a 100 kg payload to be the equivalent of a 1 kTon earth-based payload, larger than the first neutrino experiment in the Homestake mine. As a continuing step towards this goal, the $nu$SOL project will fly a 3U CubeSat for testing the detector's passive shielding design, active vetoing system in a space environment, and the rate of false double-pulse signals in a space environment. I go into technical detail about the characterization of the central detector in simuo and in the lab. The first test is a characterization of energy resolution and calibration through the use of radioactive sources. We will continue testing by measuring the veto success rate with ground-level cosmic rays. For the final ground testing, we will use the Fermilab test beam to characterize the central detector and veto performance at specific particle energies. Veto performance on the previous detector design has been promising, and we were able to veto a high percentage of all particles that can penetrate the passive shielding of the satellite. These laboratory results and simulations of the CubeSat detector design will raise the technological readiness level of the planned technological demonstrator flight to the sun, and the current level of shielding performance is promising for a successful CubeSat test flight. arXiv: http://arxiv.org/abs/http://arxiv.org/abs/2210.07975v1

Design and Testing of a 3U CubeSat to Test the In-situ Vetoing for the ν SOL Solar Neutrino Detector by Jonathan Folkerts. on Monday 17 October For years, earth-based neutrino detectors have been run and operated to detect the elusive neutrino. These have historically been enormous underground detectors. The neutrino Solar Orbiting Laboratory ($nu$SOL) project is working to design a technical demonstration to show that a much smaller neutrino detector can be operated in near-solar environments for a future spaceflight mission. At a closest approach of 3 solar radii, there is a ten thousand-fold increase in the neutrino flux. This would allow a 100 kg payload to be the equivalent of a 1 kTon earth-based payload, larger than the first neutrino experiment in the Homestake mine. As a continuing step towards this goal, the $nu$SOL project will fly a 3U CubeSat for testing the detector's passive shielding design, active vetoing system in a space environment, and the rate of false double-pulse signals in a space environment. I go into technical detail about the characterization of the central detector in simuo and in the lab. The first test is a characterization of energy resolution and calibration through the use of radioactive sources. We will continue testing by measuring the veto success rate with ground-level cosmic rays. For the final ground testing, we will use the Fermilab test beam to characterize the central detector and veto performance at specific particle energies. Veto performance on the previous detector design has been promising, and we were able to veto a high percentage of all particles that can penetrate the passive shielding of the satellite. These laboratory results and simulations of the CubeSat detector design will raise the technological readiness level of the planned technological demonstrator flight to the sun, and the current level of shielding performance is promising for a successful CubeSat test flight. arXiv: http://arxiv.org/abs/http://arxiv.org/abs/2210.07975v1

Chris Bishop's latest Quantum Tech Pod with Eric Holland, Director, Strategic Growth Initiatives, Quantum Engineering Solutions at Keysight Technologies is live! Eric grew up in a small town in New Hampshire and after getting a PhD in physics from Yale, worked as Fermilab's Deputy Director of Quantum Technology as well as Lawrence Livermore National Laboratory's Chief Quantum Hardware & Application Architect. Keysight's Quantum Control System (QCS) is described as the world's first fully digital quantum control solution. We talked about what Bill and Dave might think of their company leading the way in quantum engineering solutions! Check out the conversation. #quantum #Keysight #quantumcontrolsystems #QCS

Ransom Stephens, Ph.D., is a professor of particle physics turned writer and speaker. He has worked on experiments at Fermilab and CERN and was on the team that discovered the top quark. His new novel, The God Patent (Numina Press, www.TheGodPatent.com), is set in the battle between science and religion over the nature of the soul and the origin of the universe and concludes with an adolescent math prodigy's discovery of the nature of the eternal soul. - www.TheGodContent.com******************************************************************To listen to all our XZBN shows, with our compliments go to: https://www.spreaker.com/user/xzoneradiotv*** AND NOW ***The ‘X' Zone TV Channel on SimulTV - www.simultv.comThe ‘X' Chronicles Newspaper - www.xchroniclesnewspaper.com ******************************************************************

In our latest Electronic Specifier Insights podcast, we spoke to Gustavo Cancelo, Lead Engineer at Fermilab all about improving quantum computer performance with new control electronics  

Paratopia welcomes Dan Hooper to the show. Dr. Hooper is an Associate Scientist in the Theoretical Astrophysics Group at the Fermi National Accelerator Laboratory, and an Assistant Professor in the Department of Astronomy and Astrophysics at the University of Chicago. Previously, he was the David Schramm Fellow at Fermilab, and a postdoc at the University of Oxford. He is the author of two books dealing with dark energy and super symmetry: Dark Cosmos and Nature's Blueprint. Tonight, Dr. Hooper makes physics as accessible and fascinating for us as he does for readers of his books--which is to say, QUITE. Will Dr. Hooper be open to our questions of consciousness and the paranormal? Will this be the physics show Jeff has been searching for all his life? And what is Jeff doing back after we played a tiny violin for his two-month sabbatical? Clicky the linky and wonder no more!

In our latest Electronic Specifier Insights podcast, we spoke to Gustavo Cancelo, Lead Engineer at Fermilab all about improving quantum computer performance with new control electronics  

In our latest Electronic Specifier Insights podcast, we spoke to Gustavo Cancelo, Lead Engineer at Fermilab all about improving quantum computer performance with new control electronics  

  Vidcast:  https://youtu.be/KAnfe8VSL_4   Here is some notable healthcare-related business news for this 3rd Week of August, 2022.   Diseases of the cornea rob nearly 13 million people worldwide of their sight yet only 1 in 7 victims are able to obtain cornea transplants due to tissue shortages.  To answer that shortfall, a Swedish bioengineering company LinkoCare has developed a technique to create replacement cornea tissue using purified skin collagen from pigs.  The pig hydrogel protein is introduced into the diseased cornea restoring its shape and optical characteristics without invasive or expensive surgery.   https://www.nature.com/articles/s41587-022-01408-w     JD Power, the customer satisfaction survey people, have ranked Medicare Advantage Plans.  The best one turned out to be the Kaiser Foundation's Health Plan offering.  It was followed by Humana, Highmark, United HealthCare, BlueCross/BlueShield of Michigan, Aetna, Anthem now called Elevance, Cigna, and, bringing up the rear, Centene. Buyer beware!     https://www.jdpower.com/business/press-releases/2022-us-medicare-advantage-study     Minnetronix Medical, a company that has developed many devices for marketing by others including Medtronic and Abbott, has now come out with its own product called MindsEye.  This expandable portal is introduced into brain tissue and provides a tiny retractor system that permits surgical microscope views, the safe passage of imaging fibers, and the introduction of micro instruments.   https://medcitynews.com/2022/08/minnetronix-commercializes-its-own-product-a-minimally-invasive-deep-brain-access-port/     And finally….NYU is partnering with Fermilab's Superconducting Quantum Materials and Systems Center to create cutting edge quantitative MR imaging utilizing high speed quantum computers.  The additional computing power permits higher resolution imaging that more clearly differentiates tissue properties separating normal from cancerous.  It also facilitates the use of artificial intelligence techniques to better automate the diagnostic process.   https://www.dotmed.com/news/story/58464     There you have the latest healthcare-related business news for this 3rd Week of August, 2022, 2022.   #cornea #medicareadvantage #jdpower #neurosurgery #brainportal #mr #cancer #quantumcomputing    

The Field Guide to Particle Physics : Season 3https://pasayten.org/the-field-guide-to-particle-physics©2022 The Pasayten Institute cc by-sa-4.0The definitive resource for all data in particle physics is the Particle Data Group: https://pdg.lbl.gov.The Pasayten Institute is on a mission to build and share physics knowledge, without barriers! Get in touch.AntiprotonsAntiparticles are everywhere. They're just part of life. The electron has its positron partner. Muons and antimuons are both routinely created in the upper atmosphere.  They're so familiar that we often just call them mu plus or mu minus. The antiparticle nature of mu plus just isn't that big a deal.If you've been paying attention to our series, you know we've talked about antiparticles quite a bit, at least in passing. Up and down quarks sometimes associate with anti-up and anti-down quarks to form pions. Other mesons like kaons form similar quark-antiquark pairs.It's fun to see composite particles made up from particles and antiparticles. The neutral pion - for example - is a bound state of particle/anti particle partners - uubar & ddbar - not unlike positronium: where an electron and a positron orbit each other like an atom. Of course, all these composite particles are unstable.Arguably what separates antimatter from antiparticles is finding a composite particle that is stable. Or at least really long lived. Something that looks and behaves like ordinary matter. Something like atoms.Enter the antiproton.Just like the proton, the antiproton is a tiny bag of subnuclear goo. Virtual pions and gluons and other quantum effects are all dressed up in the antiproton package around three valance antiquarks. That's two anti-up quarks and one anti-down quark.  The antiproton looks virtually identical to the proton - except that it has a negative electric charge.Like the proton, the antiproton has a mass of about 931 MeV. In fact, it's difference from the proton's mass has been measured, and at present it looks like they're the same up to less than one part in a million!In fact, everything they measure from the antiproton seems to to line up exactly with the proton. The magnetic moment - a measure of a little dipole magnetic field generated by the anti proton - still appears to be equal and opposite to that of the proton.AntihydrogenAnd yes, the negatively charge antiproton can pick up a positively charge positron and form an atom. Like hydrogen. You know, Antihydrogen! Antihydrogen has been studied and confirmed to look and behave exactly like hydrogen. The positron energy levels of thes anti atom and the associated electromagnetic spectra are all the same. Even the fancy, hyperfine splitting of those energy levels have been experimentally shown to be identical with ordinary hydrogen, at least up to experimental precision.Antiproton decayBy all observations so far, the proton appears to be a stable particle. If the proton did decay, it would be big news and a boon for folks looking to study physics beyond the standard model.The antiproton - so far as we can tell - is also stable.  Which is good - our theory is self consistent - but it does present the question: if they don't decay, then where are all the antiprotons in nature?!Sources of antiprotonsNobody knows why there's so little antimatter in the universe, but there definitely is some.Antiprotons impinge upon the Earth's upper atmosphere all the time. They're secondary cosmic rays that currently appear to be associated with super high energy protons smashing into gas and other material sitting in between the stars in our own galaxy. It's a by-product - in other words - of cosmic ray collisions. We can make them here on Earth too. The ALPHA experiment at CERN has an antiproton source made by smashing protons into iridium. The Tevatron at FermiLab had an antiproton source that used Nickel instead.The Tevatron was an interesting particle accelerator in that - unlike the LHC, which colliders protons together - the Tevatron collided protons against antiprotons, to give it a little extra boost in energy from quark-antiquark annihilation when those two, composite particles collided.The fact that there is so much more matter in the universe than antimatter means that antimatter is simply going to annihilate against any matter that it runs into. But how protons and antiprotons annihilate is a complicated issue.Antiproton annihilationElectrons and positrons annhilate cleanly into a pair of gamma rays. The antiproton and the proton do not cleanly annihilate. There is no easy, super clean signal  when they annihilate. They're composite particles. Worse, they're both really messy composite particles.Typically what happens when a proton meets an antiproton is that one of the quarks meets up with one of the antiquarks and interacts from there. All kinds of particles can come out, things like pions, more protons,  and other emissions from the subnuclear goo. The details all depend on how quickly those particles are moving when they meet each other.If they're moving slowly, their quantum clouds of subnuclear goo might overlap, and a pion might be exchanged. If they're moving quickly, like they were at the Tevatron, those antiquarks - who carry the highest fraction of the antiproton's momentum - will collide with the quarks in the proton, and all kinds of things can - and have! - come out.

What is the world made of? What are its most fundamental components? Those are the questions Dr. Anna Grassellino is attempting to answer. The Director of the Superconducting Quantum Materials and Systems Center at the US government's renowned Fermilab, she leads a team that is developing the most powerful quantum computer on earth. See omnystudio.com/listener for privacy information.

In questo audio il prezioso incontro con Luca Tommassini coreografo Daniela Bortoletto fisica.L'intervista è nel podcast Contemporaneamente di Mariantonietta Firmani, il podcast pensato per Artribune.In Contemporaneamente podcast trovate incontri tematici con autorevoli interpreti del contemporaneo tra arte e scienza, letteratura, storia, filosofia, architettura, cinema e molto altro. Per approfondire questioni auliche ma anche cogenti e futuribili. Dialoghi straniati per accedere a nuove letture e possibili consapevolezze dei meccanismi correnti: tra locale e globale, tra individuo e società, tra pensiero maschile e pensiero femminile, per costruire una visione ampia, profonda ed oggettiva della realtà.Con Luca Tommassini e Daniela Bortoletto parliamo di danza e fisica delle particelle, tra scienza e incontri. In un'intervista quanto mai straniata e divertente, due mondi apparentemente lontani confluiscono nella necessità di amare e rispettare l'essere umano. È importante trovarsi al posto giusto nel momento giusto, ed avere la fortuna di incontrare persone capaci di ispirarci. La possibilità di esplorare l'ignoto tiene viva la passione, e l'arte ha un ruolo nella felicità superiore a quanto riconosciuto. Ogni particella lascia un segnale speciale in un luogo specifico dell'esperimento, il lavoro sarà fatto da robot e certo questi cambiamenti creano ansietà. In uno spot pubblicitario vendi l'anima al cliente mentre in un film racconta la storia di esseri umani, ma bisogna essere sempre innamorati. Scienza e cultura si muovono assieme e le società dinamiche promuovono innovazione. Il quark top ha la massa di un atomo di oro e molto altro.ASCOLTA L'INTERVISTA!!BREVI NOTE BIOGRAFICHE DEGLI AUTORILuca Tommassini Ballerino, attore, coreografo, regista, direttore artistico. Dopo il diploma in danza classica al Balletto di Roma, vince una borsa di studio per New York e Los Angeles. Stabilitosi negli Stati Uniti ottiene prestigiosi premi tra cui: SAG Awards, American Choreography, Top of the Pops, Vittorio Gassman. Collabora con moltissimi artisti come: Prince, Michael Jackson, Bjork, Whitney Houston, Ricky Martin, Jamiroquai, Phil Collins, Robbie Williams. Jovanotti, Ramazzotti. Direttore artistico e coreografo in talent show come: MTV Europe, Academy Awards, le edizioni Regno Unito, Spagna e Italiana di XFactor, Amici. Inoltre lavora anche nella moda con: Armani, Dolce e Gabbana, Missoni, Fendi, Cavalli, Versace, David La Chapelle. Autore in show musicali e programmi televisivi, regista pubblicitario e di videoclip, firma 46 spot per: Coca Cola, Mazda, Tic Tac, Pepsi, Carpisa, TIM. Nel cinema cura coreografie di film come: "The tourist" con Angelina Jolie e Johnny Depp. “Evita” con Madonna con cui collabora 4 anni. Ed anche “La Dea Fortuna” di Ozpetek. “Un bacio” di Ivan Cotroneo, interpreta ruoli in film come: “Piume di Struzzo”, “Lord of Illusions” e “Sister Act 2”. Nel teatro e nel musical, realizza spettacoli come: “Volevo fare il ballerino e non solo” con Fiorello, “Sola me ne vò” con Mariangela Melato. Ed anche “Ali della Liberta'” di Andrea Bocelli, il Tour di Laura Pausini e Biagio Antonacci 2019, nel 2020 Cura la coreografia di Aperol #TogetherWeCanDance. Daniela Bortoletto è un fisico delle particelle sperimentale e ha partecipato alla scoperta del bosone di Higgs e del quark top. Attualmente sta studiando le proprietà del bosone di Higgs e svolge un ruolo importante nello sviluppo della strumentazione per la misura delle particelle elementari. Già Edward Mills Purcell Distinguished Professor of Physics, alla Purdue University, ne 2013 approda all'Università di Oxford dove ora dirige della fisica delle particelle elementari. Infatti ha ricevuto numerosi premi, tra cui un Early Career Award della US NSF and la Alfred P. Sloan Fellowship. Inoltre è stata eletta Fellow of American Physical Society, dell'American Association Advancement of Science e Honorary Fellow dell'Istituto di fisica del Regno Unito. Ed anche è autrice di oltre 1000 articoli pubblicati su giornali scientifici. È stata membro di molti comitati consultivi per agenzie di finanziamento e laboratori del Regno Unito e degli Stati Uniti. Tra suoi ruoli: Particle Physics Projects Prioritization Panel (P5) degli Stati Uniti, il Detector Strategic Review Panel del Regno Unito e la PAC del Fermilab. In fine difende con passione l'importanza di aumentare la eguaglianza e la partecipazione femminile nella fisica e nelle tecnologie avanzate.

Dr. Don Lincoln is a senior scientist at Fermilab, America's flagship particle physics laboratory, and an expert on the laws of nature that govern matter and energy, space and time, and even how the universe came into existence. Over the course of his scientific career, he has contributed to some of the most exciting discoveries of the last half century, including the discovery of the heaviest subatomic particle ever found, as well as the Higgs boson, which is the origin of subatomic mass. Lincoln is also a prolific scientific communicator, having penned many books, produced hundreds of YouTube videos, and written for leading media outlets, like CNN, Forbes, and Scientific American. He has also created several courses with the online streaming service Wondrium.

Puntata #291 - Sabato 11 Giugno 2022 Grazie alle vostre domande oggi facciamo qualche considerazione su Yogananda, il suo Lignaggio e la sua Fellowship. Poi parliamo di Simmetria e "Rottura della Simmetria" come concetto cosmogenetico ma anche evolutivo, tra equilibrio dinamico, Ordine e Caos. Seguono poi alcune considerazioni su aspetti che furono parte del mio percorso personale. Per domande o informazioni: www.carlodorofatti.com  Grazie a tutti, alla prossima.   Immagine: foto del monumento intitolato "Broken Symmetry" (di Robert Wilson) che si trova all'ingresso del Fermilab. Il Fermilab (anche noto come FNAL, acronimo di Fermi National Accelerator Laboratory), è un laboratorio di ricerca dedicato allo studio della fisica delle particelle elementari situato a Batavia, a una trentina di miglia a ovest di Chicago, che deve il nome al celebre fisico italiano Enrico Fermi.

What makes the absence of antimatter puzzling? Since we know it is produced, not being able to observe it opens a host of new questions. Listen up to learn: The essence of the Muon g-2 project How the medium in which a particle travels affects it What the supersymmetry theory is Offer: This episode is sponsored by Bowmar Nutrition. To receive a 5% discount, use the code GENIUS5 at checkout. Go to BowmarNutrition.com to shop now! Chris Polly, the project manager of the Muon g-2 project, shares his work with accelerator experiments and what they may lead to. Accelerator physics experiments have the potential to reveal an entirely new set of answers to the questions surrounding our universe. From particles winking in and out of existence to the search for antimatter, it is truly the bleeding edge. The Muon g-2 project holds the potential to reveal some of the universe's inner workings. Using principles that have been long-established in combination with new theories, the possibilities are fascinating. Visit https://muon-g-2.fnal.gov to learn more. Episode also available on Apple Podcasts: http://apple.co/30PvU9C

UchinoさんとOkaで宇宙天気、太陽、エルデンリングなどについて話しました。。以下の Show Notes は簡易版です。完全版はこちら。0:00 Uchino さん自己紹介次世代の「はかる」をあらゆる産業に｜株式会社HACARUS株式会社HACARUSの会社情報 - Wantedly07:49 学生時代の研究地球磁気圏とは何か？Kapuskasing - Wikipedia19:26 TECH in 京都TECH in 京都 #1 - connpassTECH: Technology Enhancement Community by HACARUS時系列データ予測手法の宇宙天気予報への応用 - Speaker Deckガウス過程と機械学習32:13 宇宙天気太陽地球圏環境予測オープン・テキストブック (PSTEP Open Textbook)宇宙天気予報 - NICT37:09 Podcast recommendation app を作りたいYouTube動画をキュレーションしてみた - Qiitaクリエイターフレンドリーなポッドキャスト発見アプリ「Moonbeam」recsys-python49:34 ニュース49:47 PSP/WISPRPSP “Touches the Sun” - Wide-Field Imager for Parker Solar Probe56:17 ユージン・パーカーユージン・ニューマン・パーカー - Wikipedia1:01:20 太陽カルツァ=クライン・アクシオンarXiv:2109.03562 Solar Kaluza-Klein axion search with NEWS-G / Phys. Rev. D 105, 012002 (2022)「ひので」・彩層・波、そしてコロナ加熱 | 宇宙科学研究所1:09:05 LLNL で核融合に成功Physics - Ignition First in a Fusion Reaction1:13:40 太陽の自転の謎スーパーコンピュータ「富岳」で太陽の自転の謎、解ける｜国立大学法人千葉大学のプレスリリース1:20:25 その他のニュースarXiv:2201.02879 Gravity-Assist as a Solution to Save Earth from Global Warming名誉会員の近藤淳氏逝去(3月16日更新) - 日本物理学会CDF collaboration at Fermilab announces most precise ever measurement of W boson mass to be in tension with the Standard Model1:25:23 雑談1:25:37 エルデンリングELDEN RINGHorizon Forbidden West1:34:00 ゴールデンカムイゴールデンカムイ1:38:53 将棋将棋ウォーズ公式-日本将棋連盟公認-オンライン将棋ゲームの決定版1:50:09 iPad Pro はいいぞおじさんiPad ProQUADERNOKINGONE スタイラスペンエレコム iPad Pro ペーパーテクスチャフィルム 着脱式Zotero iOSNextcloud1:58:20 サウナはいいぞおじさんサウナはいいぞ2:02:38 宇宙飛行士JAXA - 2021年度　宇宙飛行士候補者の募集結果について2:09:30 コロナワクチンお知らせ出演して頂ける方、感想などお待ちしております。 #interaxion

Name: Isvari MaranweCurrent title: President and Co-FounderCurrent organisation: Dweebs GlobalI'm the President of Dweebs Global. I am also a national and cyber security lawyer, an ex-physicist, and a writer. I have held many positions with the U.S. government (Department of Defense, Department of State, National Commission on Service, FCC), worked for businesses (Sidley Austin, Ingenico, iKeyVault), written columns for several different outlets, and researched particle and astrophysics (CERN, Fermilab, Lawrence Berkeley Lab). I have taught Python, given two TEDx talks, and volunteered around the world. I write novels. I have played the piano for twenty years, sing, and speak Hindi, Spanish, German, French, Kannada, and English. Most of all, I help people.Janani Mohan, Nathan Maranwe, and I founded Dweebs Global, an international mentorship organization with thousands of mentors around the world. Starting to help people through COVID 19, our services will always be 100% free. No paid content. No sponsorships. No nonsense. If you are reaching out for free personalized resume edits, career tips, or anything else, please go through www.dweebsglobal.org/contact. We have helped thousands of people with life and mental health advice, resume editing, and boosting their careers and network. We will continue to help for free, especially in these dark times. If you are also willing to be a mentor, please reach out to me.Resources mentioned in this episode:Free Download of The Leadership Survival Guide (10 World-Class Leaders Reveal Their Secrets)The Leadership Conversations PodcastThe Jonno White Leadership PodcastThe Leadership Question of the Day PodcastClarity Website7 Questions on Leadership SeriesWe'd Love To Interview YOU In Our 7 Questions On Leadership Series!Subscribe To Clarity's Mailing ListJonno White's eBook Step Up or Step OutJonno White's Book Step Up or Step Out (Amazon)

Es gibt große Neuigkeiten aus der Teilchenphysik! Eine Vorhersage des Standardmodells wurde scheinbar widerlegt. Was steckt genau dahinter? Wie immer überall, wo es Podcasts gibt. Viel Vergnügen! #boson #teilchenphysik #standardmodell #fermilab ********** Anmerkungen, Fragen, Kritik oder interessante Themenvorschläge bitte an physikgeplaenkel@gmail.com ********** Unsere Instragram Seite: https://www.instagram.com/physikgeplaenkel/ Unsere Facebook Seite: https://www.facebook.com/Physik-Geplänkel-1153934681433003/ Unser Youtube Channel: https://www.youtube.com/channel/UCD1CT-nTdEagwMF16P6gIKQ/ Folgt uns unter "Physik-Geplänkel" auf Spotify, iTunes, Deezer, PocketCasts oder als Amazon Alexa Skill. Oder am besten direkt unter https://physik-geplaenkel.podigee.io/

Questa puntata 405 di Scientificast trova ai microfoni una coppia di lungo corso, Andrea e Ilaria, che anche se esauriti dalla primavera (e dalle primavere) provano a raccontarci due notizie scientifiche delle ultime settimane. Fabio, in un intervento esterno, intervista nuovamente l'ingegner Marco Fuga, che è ingegnere di pista di una delle due Toyota hyperhybrid.Ilaria vi parla di una nuova strategia per sconfiggere la Varroa, un parassita delle api che le indebolisce e provoca la perdita di migliaia di famiglie di api ogni anno. Al momento l'attacco chimico è la soluzione standard a questo problema, ma un affascinante esperimento sfrutta una caratteristica non comune di alcuni strain di Ape mellifera per un approccio meno invasivo.Fabio intervista l'ingegner Marco Fuga, race engineer del team Toyota Gazoo Racing per parlare delle nuove vetture hypercar ibride del campionato del mondo enduranceAndrea ci parla del bosone W e di come una recente scoperta minacci di ribaltare il modello standard. I dati di un vecchio esperimento suggeriscono che è la massa del bosone W sia superiore a quanto previsto dalla teoria, aprendo uno scenario di entusiasmanti scoperte future.

In other top stories: Chicago marks the 100th anniversary of Harold Washington's birth; Dixmoor's water system will be partly upgraded, with federal grant; bison calf born at Fermilab; and more. 

In other top stories: Chicago marks the 100th anniversary of Harold Washington's birth; Dixmoor's water system will be partly upgraded, with federal grant; bison calf born at Fermilab; and more. 

In other top stories: Chicago marks the 100th anniversary of Harold Washington's birth; Dixmoor's water system will be partly upgraded, with federal grant; bison calf born at Fermilab; and more. 

Despite being shut down a decade ago, the Collider Detector at Fermilab provided enormous amounts of data, some of which have recently been re-analyzed, leading to the discovery that the W boson is actually more massive than calculations and predictions expected. Plus, another JWST update, the newest most distant galaxy, gravitational waves, and an interview with Dr. Kelsi Singer about cryovolcanoes on Pluto.

El bosón W es una de las partículas subatómicas más interesantes y significativas. Tiene un papel fundamental en la construcción de todos los elementos químicos. Su existencia fue anticipada por la Mecánica Cuántica y su descubrimiento pareció confirmar el Modelo Estándard que describe a toda la materia del universo. Un trabajo reciente realizado en el Fermilab parece desmentirlo. De ser cierto, el Modelo Estándard deberá ser modificado, con enormes consecuencias filosóficas y prácticas. Gracias por sus comentarios, interacciones, apoyo económico y suscripción. Escuche y descargue gratuitamente en MP3 2022/04/07 Física de Partículas Problemas con el Bosón W. Gracias por su apoyo a El Explicador en: Patreon, https://www.patreon.com/elexplicador_enriqueganem, PayPal, elexplicadorpatrocinio@gmail.com, SoundCloud, https://soundcloud.com/el-explicador, Spotify, https://open.spotify.com/show/01PwWfs1wV9JrXWGQ2MrbY, iTunes, https://podcasts.apple.com/mx/podcast/el-explicador-sitio-oficial/id1562019070 y YouTube, https://youtube.com/c/ElExplicadorSitioOficial. Twitter @enrique_ganem. Lo invitamos a suscribirse a estas redes para recibir avisos de nuestras publicaciones y visitar nuestra página http://www.elexplicador.net. En el título de nuestros trabajos aparece la fecha año/mes/día de grabación, lo que facilita su consulta cronológica, ya sabe usted que el conocimiento cambia a lo largo del tiempo. Siempre leemos sus comentarios, no tenemos tiempo para reponder a cada uno personalmente pero todos son leídos y tomados en cuenta. Este es un espacio de divulgación científica en el que nos interesa informar de forma clara y amena, que le invite a Ud. a investigar sobre los temas tratados y a que Ud. forme su propia opinión. Serán borrados todos los comentarios que promuevan la desinformación, charlatanería, odio, bullying, violencia verbal o incluyan enlaces a páginas que no sean de revistas científicas arbitradas, que sean ofensivos hacia cualquier persona o promuevan alguna tendencia política o religiosa ya sea en el comentario o en la fotografía de perfil. Aclaramos que no somos apolíticos, nos reservamos el derecho de no expresar nuestra opinión política, ya que éste es un canal cuya finalidad es la divulgación científica. ¡Gracias por su preferencia!

The Field Guide to Particle Physics https://pasayten.org/the-field-guide-to-particle-physics©2021 The Pasayten Institute cc by-sa-4.0The definitive resource for all data in particle physics is the Particle Data Group: https://pdg.lbl.gov.The Pasayten Institute is on a mission to build and share physics knowledge, without barriers! Get in touch.The Particle Data Group's write up on cosmic rays. See Figure 29.8 for a representation of the "ankle" feature in the spectrum.https://pdg.lbl.gov/2019/reviews/rpp2019-rev-cosmic-rays.pdfAnother representation of the power laws can be found in Professor Peter Gorham's Coursework on Ultra High Energy Cosmic Rays: http://www2.hawaii.edu/~gorham/UHECR.htmlCosmic RaysPart 1 - Particles from SpaceWell before the gigantic particle accelerators like the Large Hadron Collider at CERN or the Tevatron at Fermilab, particle physics was studied with balloons.Well. It still is. I don't want to give an overly simplified take on the history of particle physics - but it's fair to say that physicists will study high energy particles WHEREVER they can find them. And it just so happens that  a large number of really high energy particles are constantly bombarding us from space.In our prior series on the ALPHA PARTICLE, we learned about the solar wind and how the Earth's magnetic field catches much of that ionizing radiation, which we occasionally see displayed as the Aurora.Well. That magnetic field is no match for these cosmic rays, which come flying at us from deeper in space with much higher velocities than anything in the solar wind. These particles smash right though the magnetosphere and into the molecules of the upper atmosphere.From our perspective on Earth, these cosmic rays appear as showers of debris left over from those high altitude collisions. But they're happening all the time.There's so much debris out there that hundreds of particles - particles of that debris - have passed through you since you first hit play on this episode.### Cosmic RaysOn the 15th of October, 1991, a particle with enormous energy entered our upper atmosphere.A particle with this much energy had never been seen before on Earth. At least by humans. It had tens of millions of times more energy than anything produced at the Large Hadron Collider or FermiLab. All told. It had the kinetic energy of a baseball moving at around 60 miles per hour. All Packed. Into. A single. Particle. And it was heading right for us.The first thing it found upon arrival at Earth was the magnetic field. Traveling at such a high speed, it barely noticed the deflecting force and smashed through through into the atmosphere.Even in the rarified air of our upper atmosphere, tens of kilometers above the Earth's surface, there are plenty of molecules to go around. Way more than you'd find in outer space. And what do particles from space with a lot of energy do when suddenly surrounded by a bunch of molecules? They spend it.That poor first molecule it encountered didn't stand a chance. Whether it simply lost an electron or got completely blown apart is hard to say, but that incident cosmic ray quickly broke apart into a shower of particles high above the Earth. Pions were certainly created, but with that much energy - 50ish Joules of energy - all kinds of particles - from Lambda Zero to Kaons to the Cascades and Sigma baryons - could have been present. And all of them decayed as they usually do.The resulting shower of decays grew wider and wider, until the final, resultant charged pions decayed into muons. And the neutral pions decayed into photons. And any high energy photons decayed into electron-positron pairs who would in turn radiate the rest of the energy away.That final blast of radiation filled a circle kilometers wide that slammed into the US Army's Dugway Proving ground in Utah desert and - as luck would have it - right into the detectors of a physics experiment.The detectors measured resultant spray and were able to back-calculate the energy of the original, impinging particle from space.This aptly-named Oh-my-god particle was far and away the highest energy particle ever detected. To date, it's not entirely clear what could accelerate a particle to such outrageous speeds.And the current candidates are, frankly, terrifying.## The Power LawIn some respects, cosmic rays are kind of like earthquakes. There's a lot more little ones than there are big ones. For earthquakes, big ones with lots of shaking - magnitude 7 or 8 - are, mercifully, fairly uncommon around the world. Small ones, like magnitude 1's or 2's happen almost every day.Cosmic rays follow a similar law.Cosmic rays with an energies around 1000 MeV arrive almost continuously, from every direction, where as cosmic rays with energies a million times that might strike near you a few times per year.  Those ultra high energy cosmic rays, a bit like the oh my god particle, whose energies can be measured macroscopic units like Joules? They might strike your whole TOWN maybe once a year, if that.As scientists would say, the frequency depends inversely on energy.More precisely, the frequency is derived from a POWER LAW.  A power law for cosmic rays implies that the relative likelihood of two events, with energy E1 and E2 is proportional to their ratio, raised to some exponent. Power laws are simple enough to understand, but difficult to explain.  Bigger cosmic rays are less common, sure. But what's difficult to explain about a power laws is that little number. The scaling exponent. Where does it come from?It's a collective effect. All the things inside and outside our galaxy that throw cosmic rays at us contribute to that effect. Other stars and planets sometimes get in the way and capture some of them. Cosmic rays in interstellar space sometimes decay or interact en route, turning into other particles with somewhat lower energy, muddying things a bit. Magnetic fields in space - like the one surrounding our Earth - deflect cosmic rays ever so slightly. It's a bit like studying Earthquakes. There are just so many moving parts and we don't know all the details.## The AnkleDespite all this complexity, the shape of the cosmic ray power law can tell us a LOT about the nature of cosmic rays.For example. At the highest end, for those particles coming in with the HIGHEST energies, the power law for cosmic rays actually changes a bit. It flattens out. It becomes slightly less sensitive to Energy. Ultra high energy Cosmic Rays aficionados call this change the “ankle”.The ankle represents a cut in the cosmic ray spectrum at about half a joule of kinetic energy. There's a pretty good plot physicists who study these things have made. I'll include links to a picture in the show notes.It's a small effect on a small fraction of the total number cosmic rays we see on Earth. But to astrophysicists who study these things, it says a lot.Namely, this “kink” or “ankle” in the power law suggests a possible change in where those cosmic rays are coming form. The leading explanation is that those ultra high energy cosmic rays - those cosmic rays with kinetic energy greater than half a Joule or so - are coming from OUTSIDE our galaxy.Which is just as well. Because it's hard to imagine anything inside our own galaxy capable of accelerating individual, microscopic particles up to macroscopic energies. The possibilities are just… too frightening.Next time, we'll explore what kinds of objects in space serve as particle accelerators millions of times more powerful than anything humans ever built on Earth.

Cleo Garcia, Fermilab herdsman and caretaker of the bison, joined Lisa Dent on Chicago’s Afternoon News to chat about the new camera placed on Fermilab’s website where you can watch the bison and how many babies they could be expecting this year. To go watch the bison, visit here! Follow Your Favorite Chicago’s Afternoon News […]

Learn about why you want things just because others do too; a way to reduce wrongful convictions; and Fermilab's ferret."Mimetic desires" are things you want because others want them — here's how to spot them by Steffie DruckerReese, H. (2021, November 8). Mimetic desire: How to avoid chasing things you don't truly want. Big Think; Big Think. https://bigthink.com/neuropsych/mimetic-desire-luke-burgis/Caprino, K. (2021, June 4). How To Identify Your True Desires And Stop Imitating Everyone Else's. Forbes. https://www.forbes.com/sites/kathycaprino/2021/06/04/how-to-identify-your-true-desires-and-stop-imitating-everyone-elses/?sh=15125424699e‌Girard, Rene | Internet Encyclopedia of Philosophy. (2015). Utm.edu. https://iep.utm.edu/girard/‌Wanting: The Power of Mimetic Desire by Luke Burgis - Summary & Quotes. (2021). Matthewvere.com. https://www.matthewvere.com/notes/wanting-the-power-of-mimetic-desire#toc-thick-desiresMimetic Theory | What It Is. (2019). Mimetic Theory. https://mimetictheory.com/what-it-is-2/  To reduce wrongful convictions, test a witness's memory only once by Grant CurrinOne and done: Researchers urge testing eyewitness memory only once. (2021, November 3). EurekAlert! https://www.eurekalert.org/news-releases/933794Wixted, J. T., Wells, G. L., Loftus, E. F., & Garrett, B. L. (2021). Test a Witness's Memory of a Suspect Only Once. Psychological Science in the Public Interest, 22(1_suppl), 1S18S. https://doi.org/10.1177/15291006211026259Kimball, S. (2021, January 28). US Supreme Court turns down Texas death row case concerning police hypnosis. Jurist.org; - JURIST - News - Legal News & Commentary. https://www.jurist.org/news/2021/01/us-supreme-court-turns-down-texas-death-row-case-concerning-police-hypnosis/In the 1970s, one of Fermilab's particle accelerator techs was a ferret named Felicia by Cameron DukeFelicia helps out. (2016, October 5). News. https://news.fnal.gov/2016/10/felicia-helps-out/Pinkowski, J. (2019, April 2). Why Physicists Tried to Put a Ferret in a Particle Accelerator. Atlas Obscura; Atlas Obscura. https://www.atlasobscura.com/articles/felicia-ferret-particle-accelerator-fermilabSearcy, M. (Fall 2014). A fuzzy concept. The University of Chicago Magazine. https://mag.uchicago.edu/science-medicine/fuzzy-conceptSpichak, S. (2021, July 13). The Ferret Who Ran Inside the Fermi Particle Accelerator. Medium; History of Yesterday. https://historyofyesterday.com/the-ferret-who-ran-inside-the-fermi-particle-accelerator-fec5b3136b0bFollow host Cody Gough on Giveo and at https://academicpodcasts.com. Still curious? Get exclusive science shows, nature documentaries, and more real-life entertainment on discovery+! Go to https://discoveryplus.com/curiosity to start your 7-day free trial. discovery+ is currently only available for US subscribers.

(14:07) O premio Nobeld de quimica 2021 ganárono Benjamin List e David MacMillan polo desenvolvemento da organocatálise asimétrica. En 20 anos esta nova tecnoloxía ten revolucionado o mundo dos catalizadores, unha industria da que dependo un terzo do PIB mundial. A potencia da catálise asimétrica amósase na síntese da estricnina, o cubo de Rubik dos químicos orgánicos. Esta metodoloxía ten un rendemento 7000 veces maior que a síntese tradicional. Conversamos no CIQUS-USC co investigador científico do CSIC Fernando López, especialista en catálise asimétrica. (4:18) Por que ao estar coa regra entran ganas de comer trapalladas coma unha lima? Mito ou realidade? Nolo conta Laura Veiga @PingandoG na súa sección de divulgación sobre o ciclo menstrual. Envíanos as túas dúbidas. (0:40) e (39:00) O ano pasado o experimento muón g-2 do Laboratorio Nacional de Aceleradores Fermi, o FermiLAb, de Chicago fixo públicos os seus resultados da medida do momento magnético do muón. O resultado non cadra cos cálculos consensuados para esta magnitude polos teóricos. Isto podería significar que existen nova física ou novas partículas alén do Modelo Estándar. Ou non. A unha pequena colaboración de teóricos empregando un método alternativa semella que as contas cadran. En que rematará todo isto? Analizámolo con Carlos Salgado, director do Instituto Galego de Física de Altas Enerxias (IGFAE). www.efervesciencia.org

Steve Staten is a trainer, speaker and organizational health consultant. He has worked with single and multisite churches of 250 to 6,000 members in Hawaii, Alaska, California, Florida, the Midwest, Canada and the UK, as well as a global nonprofit and a nonprofit in Asia. Steve’s early professional life began at Fermilab in 1979 and spans nine years in engineering, where he worked with high energy, sound, radar and computer design. In 1988, Steve and his wife went into ministry full-time, where he acquired over twenty-five years of experience in church leadership, overseeing staff education, pastoring and managing conflict. He has a Master’s degree in Theology (1997) and a Master’s degree in Conflict Management (2013). And Steve is certified with a Safety / Risk Management method and philosophy called Just Culture. He's a big proponent of collaboration and recently published, The Art of Breakthrough: Collaborating on Audacious Undertakings. Steve is a project coordinator for the Disciples Center for Education, a nonprofit initiative that helps fund the Teleios Journal and PhD scholarships for qualifying individuals. Highlights: Just Culture Confession Phobia Vs. Safe Environments The Pro’s of Conflict Prologue, Clarify The Problem, Develop The “Ask” The Enemy of Resolution Is Shame Applying the Ancient Paths More About Steve: www.bridginginternational.com Subscribe at tepodcast.substack.com

Larry Bartoszek, is a licensed engineer with Physics and Mechanical Engineering degrees from the Univ of Illinois. He is a member of numerous professional societies related to engineering, welding, and the International Space Elevator Consortium. Larry worked at the Fermi National Accelerator Laboratory from 1983 to 1993. In his work at Fermilab he was responsible for the design of many accelerator and detector projects, including a 150 million dollar Hadron calorimeter and many other accelerator and detector projects. Larry is the owner of Bartoszek Engineering, a world-wide consulting firm which specializes in mechanical designs for the nuclear and high energy physics research community world-wide. The neutrino horn his company designed for Fermilab holds the world record for surviving over 400 million pulses at 170 Kiloamps of current. He also helped build the 2.5 meter Sloan Digital Sky Survey Telescope. In 2004, Larry started working on the Space Elevator as a and has given presentations at several Conferences. He became a Director on the Board of the International Space Elevator Consortium (ISEC) in April, 2021. We look forward to learning more about this fascinating research and hope you will stay tuned after the interview for our takeaways. Website Bartoszek Engineering www.bartoszekeng.com Bartoszek's work can be viewed here: http://bartoszekeng.com/se_calcs/se.htm Check out one of his published papers: “Design Considerations for Space Elevator Tether Climbers”, ISEC Position Paper # 2013-1 --- Support this podcast: https://anchor.fm/shawna-christenson2/support

Today we unpack the latest neutrino results from Fermilab's MicroBoone experiment. Special guest Pedro Machado helps us understand what they mean for the future of neutrino research.

This week, we're journeying into the world of the smallest objects known to humanity: the tiny particles that make up us and the entire universe around us. Plus, in the news, getting the world vaccinated against COVID-19 - half the global population have been jabbed so far, but the many countries in the Global South lag far behind; the Nobel prizes are announced; and, have scientists finally solved the biggest problem of them all: leaves on the line delaying trains... Like this podcast? Please help us by supporting the Naked Scientists

This week, we're journeying into the world of the smallest objects known to humanity: the tiny particles that make up us and the entire universe around us. Plus, in the news, getting the world vaccinated against COVID-19 - half the global population have been jabbed so far, but the many countries in the Global South lag far behind; the Nobel prizes are announced; and, have scientists finally solved the biggest problem of them all: leaves on the line delaying trains... Like this podcast? Please help us by supporting the Naked Scientists

Why are these trout on meth? And how did Fermilab clean out it's 4 mile long particle accelerator. Plus, a tiny cow, Battle Royale you don't want to miss. AND Fact or Fiction that'll make you say "WTF?" Patreon @ https://patreon.com/wildtimespod All the links @ https://thewildtimespodcast.com/ino P.S. Sorry for the audio only hiccup. Love you!

Ransom Stephens, Ph.D., is a professor of particle physics turned writer and speaker. He has worked on experiments at Fermilab and CERN and was on the team that discovered the top quark. His new novel, The God Patent (Numina Press, www.TheGodPatent.com), is set in the battle between science and religion over the nature of the soul and the origin of the universe and concludes with an adolescent math prodigy's discovery of the nature of the eternal soul. - www.TheGodContent.com******************************************************************To listen to all our XZBN shows, with our compliments go to: https://www.spreaker.com/user/xzoneradiotv*** AND NOW ***The ‘X' Zone TV Channel on SimulTV - www.simultv.comThe ‘X' Chronicles Newspaper - www.xchroniclesnewspaper.com ******************************************************************

Det 20. århundret så utviklingen av den såkalte «standardmodellen» i partikkelfysikk som tilsier at alt vi ser rundt oss er satt sammen av et lite knippe partikler, kvarker, elektroner, nøytrinoer, fotoner, Higgsbosoner og noen til. Eksperimentelle resultater fra CERN og Fermilab i USA denne våren hinter imidlertid om nye uoppdagede partikler, og dette diskuteres med dagens gjest som er professor i partikkelfysikk ved Universitetet i Oslo.

Guest Gerald Jackson, former Fermilab physicist and advanced propulsion entrepreneur chats about his plans for an Antimatter Propulsion interstellar robotic probe.  First stop would be Proxima Centauri.  In a wide-ranging interview, Jackson talks about the politics and pitfalls of advance propulsion research. Too many people seem to think antimatter is something that is still science fiction.  It's not.  It's as real as the chair you're sitting on.

今回の回答は暴力性や衝動性の低い(比較的犯罪者になりにくい)マイルドサイコパスの視点であること、一個人の事例であることをあからじめ理解していただきたい。暴力性をともなったガチめのサイコパスが実際にどうなのかは私には分からないため、すべてを鵜呑みにして一般化し過ぎないように気をつけてほしい。／【衝撃】サイコパスの可能性がある特徴１０選（フェルミ研究所 FermiLab）https://youtu.be/MLdLNbpoaR0 ／　ケヴィンダットンのセルフチェックリスト https://note.com/y_uemizu/n/nff802cfd34fe ／トロッコ問題 https://bit.ly/3zAnfqB ／話の元ネタはこちら【脳内議事録】https://note.com/y_uemizu/n/n57446f9acc37 ／シソフレ（思想フレンド）募集中！【秘密結社S.A.B】 https://forms.gle/cDFpZtHra1dAkPR66 ／うえみずゆうき【@y_uemzu】  https://twitter.com/y_uemizu

今回の回答は暴力性や衝動性の低い(比較的犯罪者になりにくい)マイルドサイコパスの視点であること、一個人の事例であることをあからじめ理解していただきたい。暴力性をともなったガチめのサイコパスが実際にどうなのかは私には分からないため、すべてを鵜呑みにして一般化し過ぎないように気をつけてほしい。／【衝撃】サイコパスの可能性がある特徴１０選（フェルミ研究所 FermiLab）https://youtu.be/MLdLNbpoaR0 ／話の元ネタはこちら【脳内議事録】https://note.com/y_uemizu/n/n57446f9acc37 ／シソフレ（思想フレンド）募集中！【秘密結社S.A.B】 https://forms.gle/cDFpZtHra1dAkPR66 ／うえみずゆうき【@y_uemzu】  https://twitter.com/y_uemizu

Dr Ciaccio (not a doctor) talks about new info on the social lives of Tyrannosaurus Rexes, they might have had more friends than we thought, plus reportedly they were slow AF. Also, alarmist headlines aside, robots that custom make smaller robots are all the rage. In Color news there's a new whitest white and it's not a GOP fundraiser, it's a paint that reflects some huge percentage of light. In Muon news two particle accelerators, CERN in Switzerland and Fermilab in Illinois, are racing to confirm new data that might upend particle physics as we know it, or never quite understood in the first place. Finally, there's a remote control helicopter on Mars and I still don't have one.

Today, on our eight episode we are taking a slight diversion and reporting on some ground breaking Physics. Both of have a passion for the subject so when we saw an opportunity to integrate it into what we do here, we jumped at it. So, for the first time themouseproject ventures into the realm of physics, while informing our listeners on the Muon -2 experiment that was conducted in Fermilab, USA.

Christopher Gardner is the founder of iValue LLC as well as the author of the highly acclaimed book The Valuation of Information Technology: A Guide for Strategy Development, Valuation, and Financial Planning (John Wiley & Sons), and Measuring Value in Healthcare. Previously he was a partner at PricewaterhouseCoopers LLP where he led the Information Technology Strategy Group in the New York office. He was also a vice president at Bain & Company and worked at A.T. Kearney where he was elected principal by the Board of Directors. He began his career as a management consultant at McKinsey & Company and has served clients across a wide-range of major industries. Prior to consulting, he worked in the high technology industry, joining the Digital Equipment Corporation after graduation, and working in central engineering as a manager in the semiconductor, office workstation, and VAX computer system development groups. With the support of Digital he co-founded The Software Agency in Cambridge, Massachusetts, a company engaged in the business of representing software authors to software publishers. He was educated at the University of Chicago where he received his MBA in Finance and a BA/BS in Physics a year earlier. He spent his summers working at Fermilab and at the Enrico Fermi Institute and is a graduate of the Bronx High School of Science. TAGS #Consulting #Technology #UniversityofChicago EPISODE LINKS Christopher's Email: cgardner@i-value.com Books: - The Valuation of Information Technology: A Guide for Strategy Development, Valuation, and Financial Planning: https://www.amazon.com/Valuation-Information-Technology-Development-Financial/dp/0471378313 PODCAST INFO Podcast website: Apple Podcasts: https://apple.co/2NUTPAa Spotify: https://spoti.fi/3e6DEKK Anchor.fm: https://anchor.fm/masonhargrave/ Full episodes playlist: https://youtube.com/playlist?list=PLAAkUcxW_NWRXAlo7dlxjDuKfJ6c8OEBz Clips playlist: https://www.youtube.com/playlist?list=PLAAkUcxW_NWQBBzYWp-GuOqLiM9kXb0A8 OUTLINE 0:00​ - Introduction FOLLOW ME - Twitter: https://twitter.com/MasonHargrave - LinkedIn: https://www.linkedin.com/in/masonhargrave/ - Instagram: https://www.instagram.com/metaphysical_ramblings/ --- Support this podcast: https://anchor.fm/masonhargrave/support

Pierwsze wyniki prowadzonego od lat eksperymentu Muon g-2 w Fermi National Accelerator Laboratory Departamentu Energii USA pokazują, że cząstki elementarne zwane mionami zachowują się w sposób, który nie został przewidziany przez obecną teorię, Model Standardowy – informuje strona internetowa Fermilab. Świat obiegła informacja, że być może mamy do czynienia z nową fizyką. Sam zespół komunikacyjni Fermilabu pisze o wynikach w tonie ekscytacji. Na ile jest to istotnie przełomowa praca? Czy starzy fizycy teoretycy mogą już się pakować, bo gmach tej nauki będą teraz urządzać nowi-rewolucjoniści? Czym są miony, Model Standardowy i co w zasadzie robi eksperyment Muon g-2?O tym wszystkim w specjalnym odcinku Radia Naukowego, który powstał z inicjatywy Patronów i Patronek Radia Naukowego skupionych na facebookowej grupie RN. Opowiada jeden z najbardziej znanych i zasłużonych popularyzatorów nauki w kraju - prof. Krzysztof Meissner z Wydziału Fizyki Uniwersytetu Warszawskiego || https://pl.wikipedia.org/wiki/Krzysztof_Meissner || https://patronite.pl/radionaukowe

What is the Dark Matter which makes 85% of the matter in the Universe? We have been asking this question for many decades and used a variety of experimental approaches to address it, with detectors on Earth and in space. Yet, the nature of Dark Matter remains a mystery. An answer to this fundamental question will likely come from ongoing and future searches with accelerators, indirect and direct detection. Detection of a Dark Matter signal in an ultra-low background terrestrial detector will provide the most direct evidence of its existence and will represent a ground-breaking discovery in physics and cosmology. Among the variety of dark matter detectors, liquid xenon time projection chambers have shown to be the most sensitive, thanks to a combination of very large target mass, ultra-low background and excellent signal-to-noise discrimination. Experiments based on this technology have led the field for the past decade. I will focus on the XENON project and its prospects to continue to be at the forefront of dark matter direct detection in the coming decade. Professor Elena Aprile is Professor of Physics at Columbia University in New York City. After obtaining her undergraduate degree in Physics in Naples, Italy, she earned her PhD at the University of Geneva, Switzerland. She started her research on noble liquid imaging detectors under the mentorship of Professor Carlo Rubbia, first as a student at CERN and later as postdoc at Harvard University. At Columbia, she pioneered the development of a Compton telescope for gamma-ray astrophysics based on a liquid xenon time projection chamber. She later turned her attention to the dark matter question proposing the XENON project for its direct detection using liquid xenon as target and detector medium. She founded the XENON Dark Matter Collaboration in 2002 and has served as its scientific spokesperson ever since; her international team includes more than 170 scientists and students representing 24 nationalities and 22 institutions. Aprile has been principal investigator on more than 20 research grants worth nearly $30 million over the last three decades and holds a patent for a vacuum ultraviolet light source. She has served on numerous panels and committees, for NASA, NSF, DOE, Fermilab, CNRS, ERC, etc. She is a Fellow of the American Physical Society since 2000. In 2017, she received an honorary degree from the University of Stockholm. She is the recipient of the 2019 AAS Lancelot Berkeley Prize.

Episode 4 of The Art and Science of Sound Healing with Thomas Orr Anderson. This episode features special guest, Dr. Tom Weiler. Working at the CERN supercollider, FermiLab and as a professor at Vanderbilt University, Dr. Weiler is a renowned astrophysicist, cosmologist, and particle physicist. He is especially well known for his demonstration that messages may be sent back in time if there exist extra unseen dimensions that have a certain form. This is an especially exciting episode. Learn more about his theory on his TED talk at: https://youtu.be/BFcKxL0z4lM This podcast series brought to you by PhiSonics Sound Immersion Technologies (https://www.phisonics.com/ ).