Kavli Institute for Theoretical Physics
Kavli Institute for Theoretical Physics
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Dark Matter Physics in the Sky ▸ Ethan Nadler (Carnegie Observatories)
The purpose of these Blackboard Talk lunches is for the science of one program to be explained to the other KITP program participants. These talks lead to cross program communications that work towards our goal of maintaining the unity of theoretical physics.
Learn more at: www.kitp.ucsb.edu/
Follow @KITP_UCSB for updates on Twitter: KITP_UCSB
Переглядів: 357

Відео

The original is unfaithful to the translation ▸ Matthew Kunz (Princeton), Jean Baptiste Fouvry (IAP)
Переглядів 248День тому
Full title: The original is unfaithful to the translation: Kinetic theory, from Plasmaish to Galacticese The purpose of these Blackboard Talk lunches is for the science of one program to be explained to the other KITP program participants. These talks lead to cross program communications that work towards our goal of maintaining the unity of theoretical physics. Learn more at: www.kitp.ucsb.edu...
New frontiers for constraining the microphysics of dark matter ▸ Sownak Bose (ICC Durham)
Переглядів 11114 днів тому
Recorded as part of the Cosmic Signals of Dark Matter Physics: New Synergies (#darkmatter-c24) conference at the Kavli Institute for Theoretical Physics (KITP) on Jun 3, 2024 - Jun 6, 2024 in Santa Barbara, CA. Observables spanning a wide range of cosmic epochs and length-scales independently testify to the existence of dark matter. Although little is known about the microphysical nature of dar...
Prompt cusps of dark matter ▸ Sten Delos (Carnegie Obs)
Переглядів 13114 днів тому
Recorded as part of the Cosmic Signals of Dark Matter Physics: New Synergies (#darkmatter-c24) conference at the Kavli Institute for Theoretical Physics (KITP) on Jun 3, 2024 - Jun 6, 2024 in Santa Barbara, CA. Observables spanning a wide range of cosmic epochs and length-scales independently testify to the existence of dark matter. Although little is known about the microphysical nature of dar...
How light can dark matter particles be? ▸ Mustafa Amin (Rice)
Переглядів 7314 днів тому
Recorded as part of the Cosmic Signals of Dark Matter Physics: New Synergies (#darkmatter-c24) conference at the Kavli Institute for Theoretical Physics (KITP) on Jun 3, 2024 - Jun 6, 2024 in Santa Barbara, CA. Observables spanning a wide range of cosmic epochs and length-scales independently testify to the existence of dark matter. Although little is known about the microphysical nature of dar...
A Systematic EFT Approach to SIDM and Its Astrophysical Implications ▸ Aditya Parikh (Stony Brook)
Переглядів 8614 днів тому
Recorded as part of the Cosmic Signals of Dark Matter Physics: New Synergies (#darkmatter-c24) conference at the Kavli Institute for Theoretical Physics (KITP) on Jun 3, 2024 - Jun 6, 2024 in Santa Barbara, CA. Observables spanning a wide range of cosmic epochs and length-scales independently testify to the existence of dark matter. Although little is known about the microphysical nature of dar...
Cosmic shadows and cosmic structures: a CMB view of DESI galaxies ▸ Simone Ferraro (LBNL)
Переглядів 8614 днів тому
Recorded as part of the Cosmic Signals of Dark Matter Physics: New Synergies (#darkmatter-c24) conference at the Kavli Institute for Theoretical Physics (KITP) on Jun 3, 2024 - Jun 6, 2024 in Santa Barbara, CA. Observables spanning a wide range of cosmic epochs and length-scales independently testify to the existence of dark matter. Although little is known about the microphysical nature of dar...
Probing dark matter substructure using gravitational strong lensing in quad... ▸ Ioana Zelko (CITA)
Переглядів 5814 днів тому
Full title: Probing dark matter substructure using gravitational strong lensing in quad lensed systems Recorded as part of the Cosmic Signals of Dark Matter Physics: New Synergies (#darkmatter-c24) conference at the Kavli Institute for Theoretical Physics (KITP) on Jun 3, 2024 - Jun 6, 2024 in Santa Barbara, CA. Observables spanning a wide range of cosmic epochs and length-scales independently ...
Signatures of beyond-CDM physics in strong gravitational lenses ▸ Daniel Gilman (U. Chicago)
Переглядів 8614 днів тому
Recorded as part of the Cosmic Signals of Dark Matter Physics: New Synergies (#darkmatter-c24) conference at the Kavli Institute for Theoretical Physics (KITP) on Jun 3, 2024 - Jun 6, 2024 in Santa Barbara, CA. Observables spanning a wide range of cosmic epochs and length-scales independently testify to the existence of dark matter. Although little is known about the microphysical nature of dar...
Strong Gravitational Lensing as a Probe of Dark Matter ▸ Simona Vegetti (MPA)
Переглядів 5414 днів тому
Recorded as part of the Cosmic Signals of Dark Matter Physics: New Synergies (#darkmatter-c24) conference at the Kavli Institute for Theoretical Physics (KITP) on Jun 3, 2024 - Jun 6, 2024 in Santa Barbara, CA. Observables spanning a wide range of cosmic epochs and length-scales independently testify to the existence of dark matter. Although little is known about the microphysical nature of dar...
Decoding Dark Matter with Stellar Streams from Beyond the Milky Way ▸ Sarah Pearson (U Copenhagen)
Переглядів 7814 днів тому
Recorded as part of the Cosmic Signals of Dark Matter Physics: New Synergies (#darkmatter-c24) conference at the Kavli Institute for Theoretical Physics (KITP) on Jun 3, 2024 - Jun 6, 2024 in Santa Barbara, CA. Observables spanning a wide range of cosmic epochs and length-scales independently testify to the existence of dark matter. Although little is known about the microphysical nature of dar...
Milky Way's Satellite Galaxies under Tidal Stripping and the Implications to... ▸ Ting Li (Toronto)
Переглядів 3614 днів тому
Recorded as part of the Cosmic Signals of Dark Matter Physics: New Synergies (#darkmatter-c24) conference at the Kavli Institute for Theoretical Physics (KITP) on Jun 3, 2024 - Jun 6, 2024 in Santa Barbara, CA. Observables spanning a wide range of cosmic epochs and length-scales independently testify to the existence of dark matter. Although little is known about the microphysical nature of dar...
CDM/WDM small scale structure: Sub-Halo counting with Stellar Streams ▸ Raymond Carlberg (U Toronto)
Переглядів 1614 днів тому
Recorded as part of the Cosmic Signals of Dark Matter Physics: New Synergies (#darkmatter-c24) conference at the Kavli Institute for Theoretical Physics (KITP) on Jun 3, 2024 - Jun 6, 2024 in Santa Barbara, CA. Observables spanning a wide range of cosmic epochs and length-scales independently testify to the existence of dark matter. Although little is known about the microphysical nature of dar...
The Simons Observatory and its Science Goals ▸ Ian Harrison (Cardiff U)
Переглядів 3514 днів тому
Recorded as part of the Cosmic Signals of Dark Matter Physics: New Synergies (#darkmatter-c24) conference at the Kavli Institute for Theoretical Physics (KITP) on Jun 3, 2024 - Jun 6, 2024 in Santa Barbara, CA. Observables spanning a wide range of cosmic epochs and length-scales independently testify to the existence of dark matter. Although little is known about the microphysical nature of dar...
Dark matter opportunities with weak lensing ▸ Alex Amon (Cambridge)
Переглядів 11314 днів тому
Recorded as part of the Cosmic Signals of Dark Matter Physics: New Synergies (#darkmatter-c24) conference at the Kavli Institute for Theoretical Physics (KITP) on Jun 3, 2024 - Jun 6, 2024 in Santa Barbara, CA. Observables spanning a wide range of cosmic epochs and length-scales independently testify to the existence of dark matter. Although little is known about the microphysical nature of dar...
DarkLight: The Impact of Reionization on the Stellar-Mass-Halo-Mass... ▸ Stacy Kim (Carnegie Obs)
Переглядів 7414 днів тому
DarkLight: The Impact of Reionization on the Stellar-Mass-Halo-Mass... ▸ Stacy Kim (Carnegie Obs)
Not Really Quantum Cosmology: How far can we get by treating a... ▸ Luna Zagorac (Perimeter Inst.)
Переглядів 13714 днів тому
Not Really Quantum Cosmology: How far can we get by treating a... ▸ Luna Zagorac (Perimeter Inst.)
How could we probe the angular dependence of dark matter self-... ▸ Moritz Fischer (LMU Munich)
Переглядів 4114 днів тому
How could we probe the angular dependence of dark matter self-... ▸ Moritz Fischer (LMU Munich)
Towards multi-wavelength constraints of DM on halo scales ▸ Benedikt Diemer (Maryland)
Переглядів 3114 днів тому
Towards multi-wavelength constraints of DM on halo scales ▸ Benedikt Diemer (Maryland)
Flash Talks ▸ KITP Conference participants
Переглядів 2914 днів тому
Flash Talks ▸ KITP Conference participants
Galaxy formation in alternative dark matter models: first results... ▸ Giulia Despali (U Bologna)
Переглядів 4914 днів тому
Galaxy formation in alternative dark matter models: first results... ▸ Giulia Despali (U Bologna)
Exploring Rotation Curve Diversity in the Marvelous Dwarf Simulations ▸ Akaxia Cruz (Princeton)
Переглядів 2314 днів тому
Exploring Rotation Curve Diversity in the Marvelous Dwarf Simulations ▸ Akaxia Cruz (Princeton)
Constraining the nature of dark matter with Galactic halos ▸ Azi Fattahi (ICC Durham)
Переглядів 3814 днів тому
Constraining the nature of dark matter with Galactic halos ▸ Azi Fattahi (ICC Durham)
Testing dark matter theories with cosmological-baryonic zoom simulations ▸ Robyn Sanderson (U Penn)
Переглядів 3614 днів тому
Testing dark matter theories with cosmological-baryonic zoom simulations ▸ Robyn Sanderson (U Penn)
The intriguing lives of galaxies lacking dark matter ▸ Jorge Moreno (Pomona)
Переглядів 25714 днів тому
The intriguing lives of galaxies lacking dark matter ▸ Jorge Moreno (Pomona)
Gravitational Wave Symphony from Oscillating Scalar Fields: Dark Matter.. ▸ Yanou Cui (UC Riverside)
Переглядів 6514 днів тому
Gravitational Wave Symphony from Oscillating Scalar Fields: Dark Matter.. ▸ Yanou Cui (UC Riverside)
Deciphering the Archaeological Record: Reconstructing the... ▸ Brooks Thomas (Lafayette College)
Переглядів 6914 днів тому
Deciphering the Archaeological Record: Reconstructing the... ▸ Brooks Thomas (Lafayette College)
The Fragmentation Scale in Dissipative Dark Matter Models ▸ James Gurian (Perimeter Inst.)
Переглядів 9514 днів тому
The Fragmentation Scale in Dissipative Dark Matter Models ▸ James Gurian (Perimeter Inst.)
Origins of Dark Matter in the Matter Power Spectrum ▸ Yue Zhang (Carleton U)
Переглядів 4914 днів тому
Origins of Dark Matter in the Matter Power Spectrum ▸ Yue Zhang (Carleton U)
Brave New Dark: opportunities for Dark Sectors in cosmology ▸ Manuel Buen Abad (Maryland)
Переглядів 9814 днів тому
Brave New Dark: opportunities for Dark Sectors in cosmology ▸ Manuel Buen Abad (Maryland)

КОМЕНТАРІ

  • @abhirishi6200
    @abhirishi6200 13 днів тому

    Good talk!

  • @FigmentHF
    @FigmentHF 15 днів тому

    Thank you so much, i have no education or training, but I’m trying to understand what we are and where we are, and this kind of information is invaluable

  • @user-ei9bm7mv6h
    @user-ei9bm7mv6h 16 днів тому

    .#zZz#.⚡⬇️⬆️💀☢☣КОГДА МАСШТАБНО И ПОВСЕМЕСТНО ПРОИЗНОСЯТ - Luminositi???,И ВСЯЧЕСКИ ВВОДЯТ В НЕКУЮ КОМПЕТЕНЦИЮ,Т.Н.,,ФУНДАМЕНТАЛЬНЫХ ПРОЦЕССОВ",КАК БЫ ИМ ВЕДОМЫХ,И УЖЕ ПРОИСХОДИВШИХ В ИСТОРИИ/РАЗВИТИЯ НАУЧНОГО ПРОГРЕССА ОТКРЫТИЙ???!.ТОГДА ПОНИМАЕШЬ,ЧТО ВСЯ СИСТЕМА СТАРАЕТСЯ ПРИОБЩИТЬ И СВЯЗАТЬ КОДОВЫЕ ПРОЦЕССЫ И ОЗВУЧЕННУЮ СИСТЕМУ ИЗМЕНЕНИЯ!.Я НЕОДНОКРАТНО ПИСАЛ И СЕЙЧАС ПОВТОРЯЮ,ЧТО РЕЧЬ ИДЁТ О ТЯЖЁЛОМ/ЯДЕРНОМ ПРОЦЕССЕ ЭП ДЕЛЕНИЯ СИНТЕЗА МАТЕРИИ💀💀💀💀💀💀⚡🔥,НАЛОЖЕНИЯ ЯДЕРНОГО СЧЁТА СИСТЕМ,ПЛАЗМЕННО/УРАНОВОГО ПРЕВРАЩЕНИЯ ТРАНСПОРТА ГАЗА/МАТЕРИИ,СО ВСЕМИ СИСТЕМАМИ КОНТРОЛЯ!.ЗДЕСЬ НИКТО НЕ МОГ БЫТЬ!.НЕ НАХОДИТСЯ!,НЕ ПРИБЛИЗИТСЯ!.ЭТО - ЯДЕРНЫЙ ПРОЦЕСС ЭП/ДЕЛЕНИЯ ИЗЛУЧЕНИЯ СВЯЗИ НОСИТЕЛЯ МАТЕРИИ!.И МОГЛИ ЗДЕСЬ БЫТЬ ТОЛЬКО ТЕ,КТО ПРОИЗВОДИЛ ФУНДАМЕНТАЛЬНОЕ/КОДОВОЕ/ЯДЕРНОЕ ЗАКРЫТИЕ СИСТЕМ МАТЕРИИ/СИНТЕЗА ЭП💀💀💀💀💀💀💀⚡🔥ВСЁ!.НЕВЕРНОЕ ПОНИМАНИЕ,ИЛИ ЖЕЛАНИЕ СВЯЗАТЬ ВСЁ С УЖЕ СУЩЕСТВУЮЩИМИ ПРОЦЕССАМИ ЯДЕРНОГО ИЗМЕНЕНИЯ,С ЯДЕРНЫМИ НАБОРАМИ И ФОРМАМИ/НЕРАСЩЕПЛЕНИЯ ЭП,НЕ СДЕЛАЮТ НИЧЕГО...💀⚡🔥⚫⚫⚫⚫⚫💀💀💀💀💀💀⚡⚡⚡

  • @user-ei9bm7mv6h
    @user-ei9bm7mv6h 17 днів тому

    .#zZz#.⚡⬇️⬆️💀☢☣КОДОВОЕ/ГРАВИТАЦИОННОЕ/ЛАЗЕРНОЕ ИЗЛУЧЕНИЕ ЭП ДЕЛЕНИЯ МАТЕРИИ СИНТЕЗА - ЭТО ФУНДАМЕНТАЛЬНЫЙ/ЯДЕРНЫЙ ПРОЦЕСС ЗАХВАТА СИСТЕМ НАЛОЖЕНИЯ,ПЛАНЕТАРНОГО СИНТЕЗА ЗЕМЛИ ЭП,ПЛАЗМЕННО/УРАНОВОГО ПРЕВРАЩЕНИЯ,САМОГО ЯДЕРНОГО ЗАКРЫТИЯ СИСТЕМ ЭП/ДЕЛЕНИЯ ВОЗВРАТА ЯДЕРНОГО СЧЁТА/ПЕРЕМЕЩЕНИЯ💀💀💀💀💀💀⚡🔥Т.Е.ЧТОБЫ ВОЗНИКЛА ЖИЗНЬ НА ЗЕМЛЕ,ДОЛЖНА БЫЛА БЫТЬ ПРОИЗВЕДЕНА СИСТЕМА ЯДЕРНОГО/КОДОВОГО/ГРАВИТАЦИОННОГО ЗАКРЫТИЯ ЭП ДЕЛЕНИЯ МАТЕРИИ СИНТЕЗА ЗЕМЛИ!.И ПРОИЗВЕСТИ ЭТОТ ПРОЦЕСС СТРОГО НУЖНО БЫЛО,ПО ВСЕМ ЯДЕРНЫМ СИСТЕМАМ/НАЛОЖЕНИЯ ЭП,ОСОБЕННО ПО ЯДРУ/ЗЕМЛИ СЧЁТА,Т.К.САМ ЯДЕРНЫЙ СЧЁТ/ЯДРА ЗАКРЫТЫМ,ПОСЛЕ ЯДЕРНОГО ЗАКРЫТИЯ СИСТЕМ/НАЛОЖЕНИЯ ЭП ДЕЛЕНИЯ ЗЕМЛИ,СОХРАНЯЛ ФУНДАМЕНТАЛЬНУЮ/ЯДЕРНУЮ ОСНОВУ ПРДТВЕРЖДЕНИЯ ЗАКРЫТИЯ,ПО НЕЙТРИННОМУ СИНТЕЗУ МАТЕРИИ ЭП/ОТВЕТА💀💀💀💀💀💀⚡🔥Т.Е.КОДОВАЯ/ЯДЕРНАЯ ГРАВИТАЦИЯ ЭП ДЕЛЕНИЯ - ЯДЕРНО ЗАКРЫВАЕТСЯ ПО СИСТЕМАМ/НАЛОЖЕНИЯ ПЛАНЕТАРНОГО СИНТЕЗА ЗЕМЛИ,НО САМО ЯДРО/СВЯЗИ ЗЕМЛИ ЯДЕРНОГО СЧЁТА ЭП - ПРОИЗВОДИТ ЯДЕРНЫЙ ОТВЕТ ЭП,НЕЙТРИННОГО СИНТЕЗА МАТЕРИИ/КС/ПЕРВИЧНОСТИ!.БЕЗ ОЗВУЧЕННОГО ПРОЦЕССА ФУНДАМЕНТАЛЬНОГО/ЯДЕРНОГО ЗАКРЫТИЯ ЭП ДЕЛЕНИЯ,САМИ СИСТЕМЫ - НИЧЕГО НЕ МОГЛИ ПРОИЗВЕСТИ,Т.К.САМ КОДОВЫЙ/ЯДЕРНЫЙ ПРОЦЕСС ЗАКРЫТИЯ ЭП ДЕЛЕНИЯ ПЕРЕМЕЩЕНИЯ - СТРОГО ОПРЕДЕЛЁН ЗАКРЫТИЕМ ЯДЕРНОГО СЧЁТА АТОМНОГО КОМПЛЕКСА МАТЕРИИ,СВЯЗАННЫЙ С РАЗДЕЛЕНИЕМ ПЛАЗМЕННО/УРАНОВОГО ТРАНСПОРТА ПРЕВРАЩЕНИЯ💀⚡🔥⚫⚫⚫⚫⚫💀💀💀💀💀⚡⚡⚡

  • @user-ei9bm7mv6h
    @user-ei9bm7mv6h 21 день тому

    .#zZz#.⚡⬇️⬆️💀☢☣ATTOSECOND#💀⚡🔥АТОМНОГО КОМПЛЕКСА МАТЕРИИ ЭП/ДЕЛЕНИЯ - ЯДЕРНО ЗАКРЫВАЕТСЯ /КС/DARKSECOND#💀⚡🔥МАТЕРИИ СИНТЕЗА,ПО ПЕРЕМЕЩЕНИЮ ВИМБРАЦ.ВОЛНОВОГО ЭП СЧЁТА ДЕЛЕНИЯ ПРОСТРАНСТВА,ОПРЕДЕЛЁННОЕ И ЯДЕРНО СВЯЗАННОЕ,С КОДОВЫМ/ГРАВИТАЦИОННЫМ НЕЙТРИНО💀⚡🔥СИНТЕЗА ЯДРА/НАЛОЖЕНИЯ!.Т.К.ЯДЕРНЫЕ УРОВНИ ЭП/ДЕЛЕНИЯ,ВСЕ ЯДЕРНО ЗАКРЫВАЮТСЯ ПО ВОЗВРАТУ ЭП/ИЗЛУЧЕНИЯ СЧЁТА!.ЯДЕРНОЕ/КОДОВОЕ/ЛАЗЕРНОЕ ИЗЛУЧЕНИЕ ЭП ДЕЛЕНИЯ В КОДОВОМ КОСМОСЕ,ТОЛЬКО НАБИРАЕТ СИЛУ ЯДЕРНОГО НАБОРА ЭП,ЛЮБОЙ ТЕКТОНИЧЕСКИЙ СИНТЕЗ ЯДРА/ПЛАНЕТ - ЯДЕРНО ОТВЕЧАЕТ,Т.К.ЯДЕРНАЯ СИЛА ЭП/ДЕЛЕНИЯ ИЗЛУЧЕНИЯ НОСИТЕЛЯ...ПРОСТО ЯДЕРНО ЗАПРЕДЕЛЬНА💀💀💀💀💀💀💀💀💀💀💀💀⚡🔥🔥🔥🔥⚫⚫⚫⚫💀💀💀💀💀💀💀💀💀💀⚡⚡⚡

  • @jamesraymond1158
    @jamesraymond1158 24 дні тому

    I thought I caught an error when Dr. Craig said "leed, South Dakota". He was correct: "Lead, South Dakota developed as the company town serving the Homestake Mine, and took its name (pronounced “leed”) from the term for a ledge of ore."

  • @jamesraymond1158
    @jamesraymond1158 24 дні тому

    Great talk, so clear and well-presented. One thing was not clear: do particles interact with the Higgs field or the Higgs boson? Higgs bosons must be extremely rare because of their high energy. So the answer must be particles interact with the Higgs field.

  • @supermonkeygod
    @supermonkeygod 24 дні тому

    Can you geniuses fix the audio?

  • @vitoenzosalatino7400
    @vitoenzosalatino7400 Місяць тому

    ?

  • @ozachar
    @ozachar Місяць тому

    Very clear and intuition building presentation!

  • @DenaMarie-mc3xt
    @DenaMarie-mc3xt Місяць тому

    This is what system most people are trapped in. 0:47

  • @nadjajesovnik
    @nadjajesovnik Місяць тому

    ❤❤❤❤

  • @amirmoezz
    @amirmoezz Місяць тому

    Why are there alphabets in a equation?

    • @seebasschipman293
      @seebasschipman293 Місяць тому

      The letters represent numbers

    • @amirmoezz
      @amirmoezz Місяць тому

      @@seebasschipman293 and who put numbers in math, cause it's so f-ing hard?

  • @PeterRice-xh9cj
    @PeterRice-xh9cj Місяць тому

    One week goes around in a circle, repeating itself after completing the circle. If you have an appointment booked for Friday and gets changed to the Thursday before, Friday and Thursday have switched places with each other in a blink of an eye or an infinitely fast split second. The two days have switched places with each other but have not taken any time to do so. Imagine if the 7 days of the week forming the circle were still or frozen, so each of the 7 days were just 3 dimensional spaces that don’t involve any time going by. The week involves time, but because the 7 days that make up the circular week are still 3 dimensional spaces, they don’t involve any time. If an appointment for Friday gets changed to the Thursday before, Friday has switched places with Thursday infinitely fast. If Friday keeps switching places with the 6 other days around the circle infinitely fast non stop, Friday would take up all the other days spots up at the same time. All the 7 days around the circle are still or frozen 3 dimensional spaces, so if Friday is taking up the 6 other day’s places up all at once, Friday would now be made up of time turning it from 3 dimensional to 4 dimensional. And the six other days would have to all fit into Friday’s space all at once forming one 3 dimensional day. So we have Friday switching places with all the other days infinitely fast non stop taking filling the 6 other days places all at once becoming 4 dimensional, and the 6 other days are not switching around the circle but they would all have to all make one 3 dimensional day to fit into the space Friday is leaving behind. So Friday is forming a 4 dimensional day, and the six other days are making one 3 dimensional day. Let’s say the 7 frozen 3 dimensional days forming the circle all stay in their places, not switching with other days. If Friday was separated by the 6 other days by time, but the 6 other days were not separated by each other by time, the 6 other days would form one 4 dimensional entity because they are not separated by time. The 6 other days are only separated from Friday by time. So the same thing is now happening as if Friday were switching spaces with the 6 other days around the circle infinitely fast non stop. When Friday stay’s in its space, Friday is the 3 dimensional day and the 6 other days make the 4 dimensional thing. When Friday switches places with the 6 other days infinitely fast non stop the other 6 days become one 3 dimensional day and Friday becomes 4 dimensional. When the 7 frozen 3 dimensional days forming the circle remain in their places, because the 6 other days are not separated by each other by time, the 6 make one 4 dimensional thing. But because the 6 are separated by Friday by time, Friday makes the 3 dimensional day. The 4 dimensional thing can be red and the 3 dimensional day can be blue. Let’s say there are two zero dimensional points, and these two zero dimensional points are the only two colours that exist, each being red and blue. Let’s say each of these two zero dimensional points are themselves composed of individual zero dimensional points mixed together. If the two zero dimensional points both split apart so the individual zero dimensional points that made them are dispersed, you might think the two colours that the two zero dimensional points were don’t exist any more. But if all these dispersed points formed a circle like the 7 day week with frozen 3 dimensional days, the two colours could still exist even though the two zero dimensional points have split apart. So we could be the 4 dimensional thing and at the same time be the 3 dimensional day. Let’s say there are two groups of people. Let’s say that time can’t move on until one person leaves one group and enters the other group. If that is the case, then person B from the left group would have to leave their group and enter the right group at the exact same time as person A is leaving the right group and entering the left group. Imagine a circle composed of 20 frozen 3 dimensional days. Each frozen day was either red or blue. So it goes red red blue blue blue red red blue blue and so on. Let’s imagine each frozen days being like a right or left group. If one day switched with the day next to it that is a different colour, all the other days would each switch with the days next to them that are a different colour at the exact same time.

  • @PeterRice-xh9cj
    @PeterRice-xh9cj Місяць тому

    One millionth of a second is too fast for us to remember or experience, so it’s fair to say that in that short span of time we have no sense of being or our sense of being doesn’t exist. The span of time we can remember or be aware of is joined together by spans of time that are too fast for us to be able to take any notice of, so how is it possible to have a sense of being at all. Let’s imagine an atom moves an extremely short distance. The span of time it takes for this atom to move this extremely short distance is too short of a time interval for us to be aware of anything, so where were we, or where was our sense of being. To us, the universe, a hurricane, or an infinitely long line of dominos that are falling down does not have a sense of being according to us. Say one day feels like one second to us, but one second just feels like one second to the person standing next to us, then according to the person standing next to us our sense of being does not exist. So what if we as conscious beings are both ourselves, as well as the universe. We can be ourselves where one second feels like one second, and at the same time we can be the universe, which solves the problem as not consciously existing at extremely short time spans. At extremely short time spans that are too fast for us to be aware of anything, we can’t say that we are different individuals because we don’t exist. Every one could be the universe. Imagine two zero dimensional points. These two zero dimensional points are not in any particular space, or are not separated by any space but are separated by time. Nonetheless, even though these two zero dimensional points are separated by time, they both still exist simultaneously. Let’s say one second was like one second to one of these zero dimensional points, but one second was like one day to the other one. That would make perfect sense as to why the two points are separated by time but still both exist simultaneously. So everyone could be their individual selves, and at the same time every one makes the universe. All numbers are the same because all a number really is is just the digit one that is a certain way up the number line, but the boundaries in between numbers really are different to the digit ones each side of them. So one of these two zero dimensional points that are experiencing time different from each other could be a boundary in between numbers, and the other could be a digit one that makes a number. Our sense of being may not be zero dimensional but four dimensional. We need to be focusing on a colour to have a sense of being, even if we are just imagining it, which involves time going by. If one hundred years went on while we had no sense of being, it would be like a flash to us. Let’s say we were each individual zero dimensional points all mixed together to make one single zero dimensional point where one second feels like one second. At the same time, in a span of time that is too short for us to be aware of or exist, we could all make the universe or another zero dimensional point where one week feels like one second. You see, we are saying the universe doesn’t have a sense of being, and in an extremely short span of time we are saying our sense of being doesn’t exist, so in that short span of time we could all make the universe or we could all make another zero dimensional point where one week feels like one second. If one second feels like one second to the zero dimensional point on the right, but one week feels like one second to the zero dimensional point on the left, we would see the zero dimensional point on the right as being us. In a super symmetrical way, what if there were other beings that thought the zero dimensional point on the left was them. If 20 people were all individual zero dimensional points that were mixed together to form one single zero dimensional point, the 20 would all agree on what number they are looking at because the 20 zero dimensional points would make one single zero dimensional point. But if 5 of the 20 disagreed with what colour the numbers and background were, the distance away the numbers are, and how far they are spread apart, would that 5 of the 20 form a seperate zero dimensional point or individual zero dimensional points, as well as the one they are part of. Imagine if how many, what colour, how far away, how far apart, all mixed to form a sense of how fast time is moving. Then if every one was part of one zero dimensional point where one second feels like one second, then no one could form separate zero dimensional points because they disagreed with what colour the numbers are or how far away or apart they are. If every one was part of the right zero dimensional point where one second feels like one second, they could be part of the left zero dimensional point at the same time, where one week feels like one second, because no body’s sense of being exists at extremely short time intervals. To us, a hurricane or the weather doesn’t have a sense of being. Our sense of being can’t be joined together by extremely short time spans that we can’t take any notice of, so everyone can be the one universe at the same time. If there were two things separated by time but both exist simultaneously, where one second feels like one second to one, but one second feels like one hour to the other, that would make sense as to why the two things are separated by time but both still exist simultaneously.

  • @SnackFatson
    @SnackFatson Місяць тому

    If C^Squared exists to describe 100% Linear Momentum * 100% Angular Momentum, does F^Squared exist to describe 100% Electro * 100% Magnetic? Also, does F(Magnetic^squared) : K(C^squared) exist where the force of magnetism is equal to a zero-K mass? note: these are also just words to me

  • @nikhildoshi5412
    @nikhildoshi5412 Місяць тому

    First

  • @NS-gr9cy
    @NS-gr9cy Місяць тому

    nice..

  • @schang8964
    @schang8964 Місяць тому

    3:53 I think it is not accurate to use 1990 german map for someone born in 1858.

  • @physicsouruniverse2798
    @physicsouruniverse2798 Місяць тому

    informative thank you

  • @Muhsinhayat1032-sg7tu
    @Muhsinhayat1032-sg7tu Місяць тому

    Milnor polynomial [3,20]), multiplying a Gaussian of fix idth w psi_{2D}(r, phi) = e ^ (- r ^ 2 / (2w ^ 2)) * (1 - r ^ 2 - r ^ 4 + r ^ 6 - 8r ^ 3 * e ^ (3i*phi)) welds with this transverse profile are an interesting class of strm red beams for considering spin-orbit effects, Please soultion of this

  • @jespervalgreen6461
    @jespervalgreen6461 Місяць тому

    Just for the idiots in the audience, the not-experts, people like me; MRI here stands for 'magneto-rotational instability'. To the lecturer; thank you for this brief lecture that, somewhat inadvertently perhaps, served to introduce me to a subject that up until yesterday I knew nothing about, not even that it existed, and now I want to know everything. To Kavli; thank you for this, for setting up this conference, for getting it on video in a decent quality, for getting it on UA-cam, such that even ignorants like myself can grapple with this. And thank you also for keeping the comments section open. Even when filling up with the grandiose yet barely scientifically literate wibble-wobble of crackpots and crazies, it is still, to me, on balance, a plus. So thank you.

  • @brianmumma151
    @brianmumma151 Місяць тому

    Nice presentation more work to be done. Exciting times

  • @mrhassell
    @mrhassell Місяць тому

    The masslessness of the photon, compared to the massive nature of the Higgs particle, is indeed a fundamental aspect of particle physics that raises intriguing questions. Photons are massless because they are gauge bosons associated with the electromagnetic force, described by a gauge theory with a symmetry called U(1) symmetry. This symmetry dictates that the photon must be massless to preserve the gauge symmetry of the theory. On the other hand, the Higgs particle's role in providing mass to other elementary particles is tied to the mechanism of electroweak symmetry breaking in the Standard Model. The Higgs field interacts differently with particles that have different electric charges, resulting in varying masses for these particles. This interaction explains why particles like electrons, quarks, and W and Z bosons have mass while the photon remains massless. The profound nature of this relationship extends to the quantum vacuum and condensed matter systems. The Higgs mechanism plays a role in particle physics and understanding phenomena like superconductivity, where particles acquire effective masses due to interactions with collective excitations in the condensed matter system. Exploring these connections further can lead to deeper insights into the fundamental principles of nature and the interplay between particle physics and condensed matter physics. The distinction between truly massless particles like the photon and extremely light particles like the pion is important in understanding the fundamental properties of particles and their interactions within the framework of particle physics.

    • @mrhassell
      @mrhassell Місяць тому

      Studying the couplings of the Higgs boson is essential for verifying the predictions of the Standard Model and exploring possible extensions or deviations from it. Experimental measurements at particle colliders like the Large Hadron Collider (LHC) play a crucial role in studying these couplings and probing the properties of the Higgs boson in detail. [A1]. Direct Detection of Dark Matter: The direct detection and interaction cross-sections of dark matter particles, particularly in the context of WIMP (Weakly Interacting Massive Particle) models, are very small. Experimental efforts, including those at the LHC and direct detection experiments, have not yet observed dark matter particles. Simple WIMP models are not ruled out by current null results, but they require future colliders with higher energy capabilities to probe these models effectively. [A2]. Physics Beyond the Standard Model: The discussion extends to scenarios beyond the Standard Model, such as supersymmetry (Suzy) and other theoretical frameworks. The LHC's null results have prompted reevaluation and refinement of these models, leading to the exploration of variants and alternative theories. Some of these theories predict particles at energies higher than those accessible by the LHC, necessitating future colliders with greater reach. [A3]. Evolution of Theoretical Ideas: Theoretical ideas in particle physics have evolved over time, with ongoing reassessment based on experimental data and theoretical constraints. The landscape of potential new particles and phenomena continues to be explored, with a focus on both the Higgs boson and the search for new particles beyond the Standard Model. [A4]. Importance of Future Accelerators: Future accelerators are seen as essential not only for further studying the Higgs boson but also for potentially discovering new particles that may be beyond the reach of current experiments. There are reasons to anticipate the discovery of new physics beyond the Higgs. The dynamic interplay between theory and experiment in particle physics drives ongoing research and exploration, with the hope of uncovering new fundamental aspects of the universe!

    • @mrhassell
      @mrhassell Місяць тому

      Nima Arkani-Hamed's (IAS) discussion regarding Higgs factories, muon colliders, and the physics involved is incredibly detailed and showcases your deep understanding of particle physics. Here are some key points, from Nima's discussion. [B1]. Higgs Factories with E plus, E minus Collisions: Building Higgs factories with electron-positron (E plus, E minus) collisions, initially at around 240 GeV and potentially higher energies, can maximize the production of Higgs bosons. This approach offers precision in measuring the Higgs boson's properties and couplings. [B2]. Proton-Proton Colliders at 100 TeV: High-energy proton-proton colliders, such as those operating at 100 TeV, can produce millions of Higgs bosons and provide insights into Higgs self-interactions, WIMP dark matter models, and vacuum fluctuations at higher energy scales. [B3]. Muon Colliders: Muon colliders offer a unique combination of precision (comparable to E plus, E minus colliders) and high energy (comparable to proton-proton colliders). The muon's point-like nature enables clean collisions, and the rich initial state allows for a variety of physics studies, including classical electroweak radiation and exploration of vector boson interactions. [B4]. Electroweak Symmetry and Radiation: Muon colliders at energies around 10 TeV can effectively produce classical electroweak radiation, revealing aspects of electroweak symmetry and the behaviour of vector bosons (W and Z bosons) similar to photon radiation in electromagnetic interactions. [B5]. Muon Collider as a Vector Boson Collider: The muon collider can be viewed as an electroweak vector boson collider, emphasizing its potential to study electroweak interactions comprehensively, similar to how the LHC is often seen as a gluon collider due to strong interaction studies.

    • @mrhassell
      @mrhassell Місяць тому

      Nima's insights into the capabilities and physics potentials of different collider configurations demonstrate a nuanced understanding of particle physics research and the quest to unravel fundamental aspects of the universe. He covers a lot of ground regarding muon colliders and the challenges, involved in their operation. Key points from this discussion: [C1]. Muon Production and Cooling: Muons are produced by colliding protons into graphite, generating pions that decay into muons. These muons initially have low energy and a spread in momentum. To achieve high luminosities, the muons must be tightly focused and cooled, which involves reducing their spread in momentum by a factor of about a million. Cooling is a non-conservative process that involves passing muons through materials like lithium hydride to lose energy without thermalizing the system. [C2]. Challenges in Phase Space Reduction: The challenge lies in reducing the six-dimensional phase space (X, Y, Z, momentum X, momentum Y, momentum Z) occupied by the muons. This reduction is necessary to make the collider efficient and worthwhile. Achieving such a reduction involves innovative cooling techniques and precision control over muon trajectories. [C3]. Demonstrated Cooling Progress: While historically, cooling muons was deemed impossible, recent advancements have shown promising progress. Although full cooling to the desired factor hasn't been achieved yet, initial results demonstrate the feasibility of cooling muons significantly, with discussions centred on repeated cooling passes to achieve the desired reduction. [C4]. Neutrino Radiation Concerns: Neutrino radiation is another aspect of muon colliders that has been a topic of discussion. The production of muons also results in the production of neutrinos, which presents challenges and considerations in collider design and operation. [C5]. Excitement and Potential: Despite the challenges, the potential of muon colliders is immense. They offer the ability to study fundamental particles, such as the Higgs boson, with unprecedented precision and energy reach. The excitement stems from pushing the boundaries of what was previously thought possible in collider technology.

    • @mrhassell
      @mrhassell Місяць тому

      Thanks to Nima's detailed explanation, which sheds light on the varied technical complexities and many potentially exciting breakthroughs presented in muon collider development. This highlights both the excitement and remaining challenges in this field. During this UC Santa Barbara, KITP (Kavli Institute for Theoretical Physics), Blackboard Talk provided by Nima Arkani-Hamed (IAS), he has touched on some of the additional challenges and considerations regarding muon colliders, including neutrino radiation, beam-induced background, and the need for innovative solutions to mitigate these issues. Here's a summary of these points, raised in the conclusion and his closing remarks made, during his speech: [D1]. Neutrino Radiation: Muons decay into high-energy neutrinos in colliders, which can lead to concerns about radiation exposure, particularly in specific directions where the neutrino flux is concentrated. Solutions like wiggling the beam or tilting the machine are proposed to mitigate this radiation impact. [D2]. Beam-Induced Background: Muons constantly decay, leading to beam-induced background effects as their decay products interact with the surrounding material. This presents both challenges and potential opportunities that require careful management and innovative approaches. [D3]. Question of Insanity: Despite these challenges, the overall consensus is that the muon collider concept is not insane. While there are criticisms and scepticism, there are no glaring showstoppers, and the excitement and potential of such a project are widely recognized. [D4]. Excitement and Timing: The excitement for muon colliders stems from their novelty, innovative technology, and potential breakthroughs in particle physics. The timing for serious consideration and action on such projects is emphasized, as current expertise and enthusiasm may not persist indefinitely. Nima's profound insights, serve to highlight the depth of his understanding and insight to our complex and multidimensional world, existing as aspects worth your attention, demand a considered if not more complete form of contemplation, we need to be exhaustive and thorough in our understanding, to possess even partial, near anything a complete appreciation, potential values we know and findings which continue to grow, mechanisms and reasons beyond its mere existence alone, found in more than one place, he is far from alone and this muon collider, might be the best project, he has yet to be proposed.

  • @LaboriousCretin
    @LaboriousCretin Місяць тому

    Thank you for sharing.

  • @EdT.-xt6yv
    @EdT.-xt6yv 2 місяці тому

    4:15

  • @LuciFeric137
    @LuciFeric137 2 місяці тому

    Very interesting. Thank you

  • @LaboriousCretin
    @LaboriousCretin 2 місяці тому

    Nice talk. Thank you for sharing. Landau levels and time dilation factor. Degenerate matter reduced to plank size and quantum many body mixed shared state. Photosphere, neutrinoshpere, last possible stable orbit of an electron. Infalling particles on different paths that can collide. Some particles quantum tunneling through other particles. But it gets to a question. Probability and predictability. Particle production from quantum foam and gravitational waves and given energy density regimes. Q.F.T. +G

  • @LaboriousCretin
    @LaboriousCretin 2 місяці тому

    Thank you for sharing. Keep up the good work.

  • @LaboriousCretin
    @LaboriousCretin 2 місяці тому

    Thank you for sharing the lecture. Keep up the good work.

  • @LaboriousCretin
    @LaboriousCretin 2 місяці тому

    Thanks for sharing.

  • @LaboriousCretin
    @LaboriousCretin 2 місяці тому

    Thank you for sharing the lecture series. Keep up the good work.

  • @LaboriousCretin
    @LaboriousCretin 2 місяці тому

    Thank you for sharing the lecture.

  • @LaboriousCretin
    @LaboriousCretin 2 місяці тому

    Thank you for sharing the lecture. Keep up the good work.

  • @LaboriousCretin
    @LaboriousCretin 2 місяці тому

    Thanks for sharing.

  • @LaboriousCretin
    @LaboriousCretin 2 місяці тому

    Have you modeled a double wave propagation. One slightly slower and the other faster that catches up. Like in some supernova modeling. Thank you for sharing the lecture.

  • @thedouglasw.lippchannel5546
    @thedouglasw.lippchannel5546 2 місяці тому

    How about CIG Theory and the MTS Equation? Has that any impact on the Matrix?

  • @LaboriousCretin
    @LaboriousCretin 2 місяці тому

    Q. Have you thought about electron degeneracy from neutron stars as a quantum boundary for black holes? Or a unique neutrino superfluid? Or degenerate matter to plankian scale and photosphere quantum mixxed state? It also gets to particle production from quantum foam and gravitational waves and energy density regimes.

  • @vanikaghajanyan7760
    @vanikaghajanyan7760 2 місяці тому

    56:26 {"Giving the interval ds the size of time, we will denote it by dт: in this case, the constant k will have the dimension length divided by mass and in CGS units will be equal to 1,87*10^-27", Friedmann, "On the curvature of space". [The ds, which is assumed to have the dimension of time, we denote by dт; then the constant k has the dimension Length Mass and in CGS-units is equal to 1, 87.10^ ± 27. See Laue, Die Relativitatstheorie, Bd. II, S. 185. Braunschweig 1921.] It follows from this: μ(0)ε(0)Gi=1, which means that Gi=с^2 where i is inertial constant, i=1,346*10^28[g/cm]; or k°=1/i=7,429*10^-29[cm/g]: k(Friedmann)/k°=8π; where k°=r(pl)/m(pl).} Apparently GR was an overlooked QG: this assumption follows from the Schwarzschild solution and can be tested experimentally in the laboratory at the moment. 1.The gravitational radius (or Schwarzschild radius) is a characteristic radius defined for any physical body with mass: r(G)=2GM/c^2 Consequently: 2E(0)/r(G)=F(pl)=c^4/G=ε(pl)/r(pl): with indicating the mutual quantization of the mass (energy) and space-time: m(0)/m(pl)=r(G)/2r(pl)=n,where n-total number of quanta of the system; the tension vector flux: n=[(1/4π)(Gћc)^-½]gS ( const for all orbits of the system: n=0,1,2,3....). Moreover, the parameter r(0)=r(G)-r(pl)=(2n-1)r(pl), defining the interval of the formation of the system, at n=0, when r=r(G)=0 (for example, the state of the "universe" before the Big Bang) turns out to be a quite definite quantity: r(0)=-r(pl). In the area [(-rpl) - 0 - (+rpl)] there is an implementation of external forces, "distance": (-rpl)+(+rpl)=0 (≠2rpl). 2. On the Kruskal diagram of the hyperbole r=0 corresponds to the true Schwarzschild feature, the features V and VI are not even covered by the global (R, T)- space-time and correspond to the "absolute" vacuum; then the singular areas above and below the hyperbolas r=0 can be formally treated as the energy source (external forces). That is, the frightening "true singularity" is actually a superconducting heterotrophic "window" between the proto-universe (the source) and physical bodies*. 3. As a fundamental theory, GR has the ability with just one parameter: r(G)/r=q to predict, explain new physical effects, and amend already known ones. Photon frequency shift in gravitational field Δw/w(0)=q; the angle of deflection of a photon from a rectilinear propagation path =2q, the Newtonian orbit of the planet shifts forward in its plane: during one revolution, a certain point of the orbit is shifted by an angle =3πq, for a circular orbit (eccentricity е=0); in the case of an elliptical orbit - for example, for perihelion displacement, the last expression must be divided by (1-e^2). 4. The parameter q is not necessarily a measure of the deviation of the metric from the pseudo-Euclidean one, since in the quantized phase space q=πr/L, where L is the length of the phase path and πr^2=r(G)L. GR/QG predicts a new physical effect: w/w(pl)=q; expression for gravitational radiation from a test body. This is amenable to physical examination in laboratory conditions at present. ----------------------- *) - From this, generally, from Einstein's equations, where the constant c^4/G=F(pl), one can obtain a quantum expression (as vibration field) for the gravitational potential: ф(G)=(-1/2)[Għ/с]^½ (w)=-[h/4πm(pl)]w. Final formula:ф(G)=-[w/w(pl)]c^2/2, where ф(G) - is Newtonian gravitational potential, r(n')=nλ/π=(n+n')2r(pl)l , the corresponding orbital radius, w - the frequency of the quanta of the gravitational field (space-time); - obviously, the quanta of the field are themselves quantized: λ=(1+n'/n)λ(pl) = 2πc/w, where n'/n=M/2∆m: system gravity unpacking ratio, n'- the orbit number (n'=0,1,2,3…). a.The constant c^2 / 2w(pl) in the final formula is a quantum of the inertial flow Ф(i) = (½)S(pl)w(pl) = h/4πm(pl) (magnetic flux is quantized: = h/2e, Josephson’s const; and the mechanical and magnetic moments are proportional). b. Obviously, on the horizon [r=r(rG), n'=0] the "door" is closed, however, the quanta [λ=λ(pl)] can go out singly and form the first and all subsequent half-orbits (n'=1,2, 3 ...) during the time t(0)=r/c=2nт, where т=1/w, т=((1+n'/n)т(pl), spending part of their energy on it each time. And it is this mechanism that provides the step-by-step formation of a variable gravitational field: variably accelerated expansion of spacetime as a phase space: |a|=g=πc^2/L, where L[=πr^2/r(G)] is the length of the phase trajectory (of course, the quanta coming through the "window" are also rhythmically restored). c.The phase velocity of evolution v'/π= r(pl)w/π; m(0)=(c/2G)rv', where v'=v^2/c. The angular momentum: L(p)=|pr|=n^2ћ [const for all orbits of the system; at n=1: L(p)=ћ] and moment of power: M(F)=dL(p)/dt(0)=nћw/2=-E(G)=E*, where t(0)=r/c, E*- energy of self-action. The gravitational field is characterized by a spontaneous flow: J*=(v'/π )(1/4π) g^2/G, where v'/π- phase velocity of field evolution. d. Entropy (here: a measure of diversity/variety, not ugliness/disorder) of the system: S=πε(pl)r(t)=(n+n')k, where k is the Boltzmann constant. Obviously, on the horizon entropy=min and with fundamental irreversibility, information is preserved (+ evolves, accumulates). e. Accordingly, m=m(pl)/(1+n'/n), where m=ħw/c^2, is the quantum of the full mass: M=n'm [<m(0)]. The parameter mλ [=m(pl)λ(pl)=m(w)λ(w)=m(e)λ(e) ] cover entire spectrum of particles. Thus, m(0)=(n+n')m, where 2∆m=nm - mass defect; M/2∆m=n'/n: on the horizon m(0)=2∆m, M=0. Thus, the total energy is spent on creating a phase-quantized space-time: E=E(0)-2∆E*, where E*[=-E(G)] is the energy of self-action of physical systems (=interaction with the proto-universe). f. Can be tested experimentally in the laboratory at the moment. The experimenter needs only two parameters; the mass (gram) of the body under study m(0) and the distance from its center (centimeter) r: so the energy of the quanta of the field ε(eV) ~1.83(m/r); the radiation flux J*[erg/cm^2•sec]~7.57•10^-27(m^3/r^5). g. For example: A lead ball suspended on a strong chain from the ceiling of the laboratory can serve as a test body; at radius r=27,6 cm, ball mass is m=1т. The energy of quanta/photons of the field (photons are characterized by different parity and helicity, and it is not quite accurate to say that a photon has an integer spin equal to one) at a distance r from the center of the test body to the detector (practically on the surface of the ball) =66,3 keV. The flow: J*=4,5•10^-9 quanta/сm^2sec; this is a measurable flux for modern world-class gamma detectors. (On the Earth's surface, the frequency of the quanta of the Earth's gravitational field: w=2.57*10^34 Hz (~2.7 J); the flow: J(G)=0.3 MW/cm^2).

  • @user-jb8it3if1q
    @user-jb8it3if1q 2 місяці тому

    27:05

  • @metalhead375
    @metalhead375 2 місяці тому

    This is absolutely bananas.

  • @user-so7yp3gf9z
    @user-so7yp3gf9z 2 місяці тому

    Quite interesting for a newcomer in theoretical field to see the experimental measurements of physical quantites in space plasma turbuelence.

  • @LadySkywalkerW
    @LadySkywalkerW 2 місяці тому

    What a charming scientist ❤

  • @zhenzhang5907
    @zhenzhang5907 3 місяці тому

    great talk!

  • @EdT.-xt6yv
    @EdT.-xt6yv 3 місяці тому

    3:45 theory & observation 6:45 machine learning/simulation

  • @EdT.-xt6yv
    @EdT.-xt6yv 3 місяці тому

    12:00 min.

  • @npast1
    @npast1 3 місяці тому

    If it works and matches the experiment, will it allow to model turbulence using quantum computing algorithms?

  • @peterpriest9105
    @peterpriest9105 4 місяці тому

    An engrossing presentation. Realizing today that it is seven years old is sobering. Sitting in the back rows of the UA-cam seats, one can only wonder how much further the landscape of conclusions has been resolved.

  • @fedorshcheglov5534
    @fedorshcheglov5534 4 місяці тому

    Very cool! This was a very informative presentation.

  • @user-ys4cy6jw1v
    @user-ys4cy6jw1v 4 місяці тому

    What if there is a sort of convection process that leads dark energy out of black hole.