Seuraava
Simulating and understanding phase change | Guest video by Vilas Winstein 42 min 
Inside Albuquerque - What’s It Really Like 56 min 
Abandoned - Stitch's Great Escape 25 min 
My Daughter DRIVES for the FIRST TIME 31 min 
George’s Balloon 🎈 #shorts #peppapig 1 min 
Gloria Steinem's Final Message To The World | Famous Last Words | Netflix 2 min 
Cyclops (2027) Kit Connor & Samara Weaving 9 min 
Inside the Off-Grid Earthship Community in New Mexico 64 min 
Abandoned - Blue Horizon Casino Cruise Ship 19 min ![THE BLOOD OF DAWNWALKER Gameplay Walkthrough Part 1 FULL GAME [4K 60FPS PS5 PRO] - No Commentary](https://adm.6-9.space/storage/films/posters/yt_the-blood-of-dawnwalker-gameplay-walkthrough-part-1-full-game-4k-60fps-ps5-pro-no-commentary_1788822067.jpg)
THE BLOOD OF DAWNWALKER Gameplay Walkthrough Part 1 FULL GAME [4K 60FPS PS5 PRO] - No Commentary 256 min 
Inside Memphis - What the Media Won’t Show You 78 min 
productive summer days 🧺🧸 | packing for the move, workout routine, brand deal reshoots & errands! 38 min 
Ultimate High-Calorie Food Compilation🍔🔥Every Bite Is Rich Indulgent & Delicious! | That Little Puff 9 min 
Phantom Blade Zero arrives October 29 on PS5. 1 min 
Mr Puffeatables #thatlittlepuff #mrbeast 1 min 
Anywhere in the galaxy can be home when you deploy your prefab Elevated Cabin! #starfield 1 min 
The Blood of Dawnwalker: 8 Things You Need to Know Before Starting 8 min 
🐱The Most Creative Videos of April 2026 | That Little Puff 10 min 
Visit Anchorpoint, meet new allies, and more in Starfield's Free Lanes update on April 7! 1 min 
The Atlas Airship: Charting the Old World Nations | AI 4K — Retrofutura 8 min 
30 Most Useful Life Hacks You Need to Know 🔥 | That Little Puff 21 min 
What Is a Digital Librarian AI Agent? Connecting SQL & Vector Database 6 min 
Taken 4 (2027) Liam Neeson & Maggie Grace 9 min 
Ads in Video Games 20 min 
Lynxie - Nothing Left To Lose | House | NCS - Copyright Free Music 3 min 
Skills vs MCP vs RAG vs Memory: What AI Agents Need to Know 10 min 
tour my $10 million workshop 30 min 
Can Mr Bean's Mini Beat Declan's Fancy SUV? 🚗 | Mr Bean Animated Season 3 | Funny Clips | Mr Bean 24 min 
There’s something wrong with Hallmark’s youtube channel 19 min 
Someone Finally Made a Wireless Podcast Mic! 17 min 
Hollyland Lark A2: Best Budget Mic of 2026? 11 min 
They Call It A "Drowning Machine" | Fascinating Horror Shorts 1 min 
New AI attack reality💥 2 min 
After ten years, it's time to stop weekly videos. 9 min 
What Is Legacy Code? How AI Is Modernizing Legacy Systems 10 min 
To help fire this trebuchet, I climbed inside it 23 min 
THIS levels up your Pocket 4 1 min 
Hackers Don’t Take Coffee Breaks ☕ 1 min 
Is there a Priest Hole in Your House? | Fascinating Horror Shorts 1 min 
AI Agents vs Business Rules: Which Should Make Decisions? 11 min 
Stop Expecting AI Perfection ❌ 1 min 
The Solar Powered Aptera EV 👀 2 min 
PROOF the Trifold is Awesome! 1 min 
Void II 3 min 
POV: You locked in for 3 months 1 min 
Is Yvonne Happy with Her New Laptop? 12 min 
Bretagne 3 min 
LORN - NEGATIVE JUMPSUIT 4 min 
The Truth About the "Whoop Killer" 18 min 
Sea Wall 10 min 
Joi 4 min Deriving the Boltzmann formula, defining temperature, and simulating liquid/vapor. @SpectralCollective has the second part: https://youtu.be/yEcysu5xZH0 You can play with a simulation of this model here: https://vilas.us/simulations/liquidvapor/ These lessons are funded directly by viewers: https://3b1b.co/support Home page: https://www.3blue1brown.com Notes from Vilas: 1) This open problem is to prove the ergodicity of the deterministic dynamical systems that are used to model the molecule-level physics. A good example of such a dynamical system is the box with particles evolving according to Newton's laws with elastic collisions, like in the video. 2) This video assumes that all probability distributions are discrete, which is the case in the simulations. But one can also set up this formalism for systems with continuous state spaces. Again, a good example is particles in a box, which are not restricted to a lattice, which is only used for visualization purposes in this video. 3) Strictly speaking, these "derivatives" don't make sense since in our simulations the energy can only take on a discrete set of values. But a derivative is the right way to think about this, and is the correct notion in a limiting sense. 4) The factor of -T in the definition of the chemical potential is sort of a historical leftover, but including it has the convenient side effect of allowing the same Boltzmann formula to hold, with an energy function that depends on the chemical potential as well. It should also be noted that temperature must equalize in any situation where the chemical potential equalizes, since it is impossible for systems to exchange molecules without also exchanging energy. 5) This algorithm, where we only choose one pixel at a time, is called Glauber dynamics. There are multiple ways to parallelize it, but the method chosen in this video is to only update each pixel with a low probability at each call of the compute shader, to avoid (frequently) updating two neighboring pixels simultaneously. One could also alternate between updating the even or odd pixels at each step. 6) By "zooming out," what is meant, technically, is a renormalization operation whereby each 3x3 grid of pixels is replaced by just one pixel, which has a molecule exactly when 5 or more of the pixels in the 3x3 grid have molecules. But that is somewhat tough to simulate as the size has to increase by 9 at each step, so this video cheats a bit by just zooming out on a large simulation. 7) The "interesting behavior" referenced here is the fact that the interface between the up and down sections of the picture can be rescaled (as the size of the model goes to infinity) in a way that yields a universal random curve called Schramm-Loewner evolution. This family of random curves shows up in many seemingly-unrelated places in statistical mechanics and probability. Chapter markers: 0:00 - What is phase change? 6:27 - The Boltzmann law and free energy 12:05 - A preliminary simulation 15:30 - Defining temperature 21:25 - Deriving the Boltzmann law 24:30 - Sampling with MCMC 28:30 - Chemical potential 33:20 - Interesting properties This video made use of the following Creative Commons material: https://commons.m.wikimedia.org/wiki/File:How_to_(nearly)_instantly_freeze_a_bottle_of_sparkling_water.ogv https://commons.m.wikimedia.org/wiki/File:Blue_rotating_brain_animation.mpg https://commons.m.wikimedia.org/wiki/File:7_Tesla_MRI_of_the_ex_vivo_human_brain_at_100_micron_resolution_(100_micron_MRI_acquired_FA25_coronal).webm https://commons.m.wikimedia.org/wiki/File:Axonal_nerve_fibers_in_a_brain_-_the_neural_network_that_is_us.webm
Tämän videon tekijän julkaisemat paketit.
Tämä tekijä ei ole vielä asettanut hintojaan. Lähetä pyyntö, niin välitämme sen eteenpäin — hinta sovitaan ennen kuin mitään veloitetaan.
Toistuva paikka sisällössäni. Tilaajat menevät jonoon — tai satunnaiseen arvontaan, kun tilaajia on enemmän kuin paikkoja — ja esiintyvät itse videossa, krediiteissä tai kuvauksessa.
kuukaudessa
Hinta pyynnöstä
Taattu esiintyminen vähintään 10 sekunniksi seuraavassa videossani. Hinta riippuu siitä, mihin kohtaan kestoa lisäys sijoittuu.
Hinta pyynnöstä
Taattu esiintyminen vähintään 10 sekunniksi Shortissa, joka on leikattu olemassa olevasta videostani.
kertamaksu
Hinta pyynnöstä