核聚变托卡马克模拟器 FUSION CIRCUS beta

1作者: nlysses1 天前原帖
Fusion Circus 测试版 链接: https://fusion-circus-ultimate.vercel.app/ 测试阶段!(需要反馈!) Fusion Circus 是我为了自学等离子体物理而构建的核聚变托卡马克模拟器。它起初是一个视频游戏。故事是这样的: 在我成长的过程中,我对《洛克人》和他的超级炮(Mega Buster)充满了好奇——这是一种能够创造纯能量的武器。光博士的所有研究都围绕着能量的创造。由无限清洁能源驱动的机器人。一个电力不再是问题的未来。作为孩子,我认为这只是科幻小说。后来我长大了,发现了人工智能和神经网络。机器能够学习、适应、优化的想法让我感到震撼。但能量的创造在哪里呢?这点引发了我的思考。能量创造 + 智能系统?如果这不是幻想呢?如果有人真的在实现光博士的梦想呢?没错,他们是真实存在的,法国的 ITER,英国的 JET,韩国的 KSTAR。全球有数十个设施在追逐核聚变。这就是驱动太阳的能量。150百万度。比恒星还要热的等离子体。被磁场所约束。这一切都是真实的。就在现在。我必须理解它。我的背景是工业设备。我曾是一名重型机械现场服务技术员。我了解机器,了解系统,知道如何保持复杂设备的运行。但等离子体物理?那是一个全新的领域。所以我为自己搭建了一个虚拟游乐场来学习。这个游乐场变成了 Fusion Circus。一个真实的模拟(测试版),我可以在其中测试实际的物理——博世-哈勒聚变反应性、IPB98 约束缩放、在毫秒内崩溃等离子体的不稳定性。我想体验聚变操作员的感受。然后我意识到我所构建的东西。随着我学习的深入,我越来越理解阻碍聚变发展的瓶颈。劳森标准。保持等离子体在足够长的时间内保持高温和高密度,以便聚变产生净能量增益,同时保持设备/机器的完整性。这是一个巨大的挑战。这就是每个人都在努力克服的难题。因此我不断前进——最近,由于继续上大学并参加了一些数学课程,一切都更加深入地契合在一起。我开始看到材料不仅仅是物理物质,而是定义其属性的方程组。施加强烈的热量?只需将热应力、导电性变化或相变的正确公式代入,行为就会从数学中显现出来。这种视角将模拟器从一个学习工具转变为更直观、更强大的东西。 Fusion Circus 现在让我们亲身体验劳森的斗争: - 将等离子体加热到超过一亿度 - 在能量逃逸时努力保持约束 - 平衡加热功率与辐射损失 - 在不稳定性崩溃之前进行管理 - 跨越 L-H 转变进入高约束模式 - 在 ELMs 破坏你的排放器之前进行抑制 - 保持低于格林瓦尔德密度极限 - 将 beta 保持在特洛永极限以下或触发扰动 - 保护组件免受热流和中子损伤 - 形状电流轮廓以稳定撕裂模式 这就是聚变操作员每天所做的事情。 物理学经过真实实验的验证: - JET DTE1 → Q ≈ 0.67(与已发布数据匹配) - ITER 基线 → Q ≈ 8-12(与设计目标匹配) - 51 点径向等离子体剖面 - 双流体传输(离子 ≠ 电子) - KSTAR 风格的 AI 扰动预测 Fusion Circus 现在处于公开测试阶段。28 个物理模块。16 个真实托卡马克。AI 辅导。从首次等离子体到燃烧等离子体的教程。所有内容都在您的浏览器中。试试吧: https://fusion-circus-ultimate.vercel.app/ #核聚变 #等离子体物理 #洛克人 #光博士 #清洁能源 #ITER #聚变能源 #独立游戏 #科学教育 #公开构建
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Fusion Circus beta<p>Link: https:&#x2F;&#x2F;fusion-circus-ultimate.vercel.app&#x2F;<p>BETA PHASE!(NEED FEEDBACK!)<p>Fusion Circus is a nuclear fusion tokamak simulator I built to teach myself plasma physics. It started with a video game. Here’s the story Growing up, I was fascinated with Megaman and his Mega Buster — a weapon that creates pure energy. All of Dr. Light’s work revolved around energy creation. Robots powered by limitless clean energy. A future where power wasn’t a problem. As a kid, I thought it was just sci-fi. Then I got older and discovered AI and neural networks. The idea that machines could learn, adapt, optimize. But where’s the energy creation part? That sparked something. Energy creation + intelligent systems? What if that wasn’t fantasy? What if someone was actually building Dr. Light’s dream? Yupp they’re real ITER in France. JET in the UK. KSTAR in South Korea. Dozens of facilities worldwide are chasing nuclear fusion. The same energy that powers the sun. 150 million degrees. Plasma hotter than stars. Contained by magnetic fields. This is real. Right now. I had to understand it. My background is industrial equipment. I worked as a heavy machinery field service technician. I know machines. I know systems. I know what it takes to keep complex equipment running. But plasma physics? That was a new domain. So I built myself a virtual playground to learn. That playground became Fusion Circus. A real simulation(beta) where I could test actual physics — Bosch-Hale fusion reactivity, IPB98 confinement scaling, instabilities that crash plasmas in milliseconds. I wanted to feel what fusion operators feel. And then I realized what I’d built. The more I learned, the more I understood the bottlenecks holding fusion back. The Lawson criterion. Maintaining that critical state where plasma stays hot and dense long enough for fusion to generate Net Energy gain while maintaining device&#x2F;machine integrity.. It’s a lot. That’s THE challenge. That’s what everyone’s fighting. So I kept going — and recently, since continuing college and taking some math classes, everything clicked even deeper. I started to see materials not just as physical stuff, but as bundles of equations defining their properties. Applying intense heat? Just plug in the right formula for thermal stress, conductivity shifts, or phase changes, and the behavior emerges from the math. That perspective turned the simulator from a learning tool into something even more intuitive and powerful. Fusion Circus now lets us experience the Lawson struggle firsthand: Heat plasma to 100+ million degrees Fight to maintain confinement as energy escapes Balance heating power against radiation losses Manage instabilities before they crash everything Cross the L-H transition into high confinement mode Suppress ELMs before they destroy your divertor Stay below Greenwald density limit Keep beta under Troyon limit or trigger disruption Protect components from heat flux and neutron damage Shape current profiles to stabilize tearing modes This is what fusion operators do daily. The physics is validated against real experiments: JET DTE1 → Q ≈ 0.67 (matches published data) ITER baseline → Q ≈ 8-12 (matches design target) 51-point radial plasma profiles Two-fluid transport (ions ≠ electrons) KSTAR-style AI disruption prediction Fusion Circus is now in public beta. 28 physics modules. 16 real tokamaks. AI coaching. Tutorials from first plasma to burning plasma. All in your browser. Try it: https:&#x2F;&#x2F;fusion-circus-ultimate.vercel.app&#x2F; #NuclearFusion #PlasmaPhysics #Megaman #DrLight #CleanEnergy #ITER #FusionEnergy #IndieGame #ScienceEducation #BuildInPublic