Transcript · English → Chinese
Understanding UVB Light and Mitochondria
UVB光能生成维生素D。 维生素D受体位于哪里？
在线粒体内膜上？
位于复合体三和四之间。 那这意味着什么？
它会中断电子流。
嗯。
那UVB光的作用是什么？
实际上是减少通过的 电子数量。
换句话说， 就是清除瓶颈。
前端是什么清除了瓶颈？ NAD、UVA光。
那是光合作用光，而且 如果你看一下，你会迫使
像David Sinclair这样的人去 搞一台EPR仪器，还有
一台，呃，光谱仪。 你知道会发现什么吗？
NAD是一种荧光团蛋白，340
纳米光。那是UVA光。 现在明白为什么这个
Marcus反转理论如此重要了吗？
因为你的非视觉光感受器 会与你的线粒体协同工作
这告诉你，这不仅仅是 近红外光如此复杂的问题
四个故事。这就是像 Fosbury、
Shiholt 这样的人—— 他们让所有人相信这是个
红、红、红光的故事。
如何清除车祸？ 你得有 UVA 光。
嗯哼。
你得有 380 纳米光。
两者必须结合在一起。
你得有 UVB 来阻止电子
轰击 ATPase。所以 当你观察
内线粒体膜的
接线图时， 它全都是光合的
End of transcript · 209 words · machine translated
Original transcript (English)
UVB light makes vitamin D. Where's the vitamin D receptor on the inner mitochondrial membrane? Between complex three and four. So what does that mean? It interrupts electron flow. Mm-hmm.
So what's the purpose of UVB light? It's actually to decrease the amount of electrons that go through. So in other words, it's to clear the bottleneck. What clears the bottleneck on the front end? NAD, UVA light. That's the photosynthetic light, and if you look at it, you force
guys like David Sinclair to go in and get an EPR machine and, and, uh, a spectrum machine. You know what you find out? That NAD is a fluorophore protein, 340 nanometer light. It's UVA light. Do you understand now why this Marcus inversion story is a big deal?
'Cause your non-visual photoreceptor that works with your mitochondria tells you that it's not just about near-infrared light that's this complex four story. That's what guys like Fosbury, Shiholt, the- they've got everybody believing it's a red, red, red light story.
How do you clear the car crash? You gotta have UVA light. Mm-hmm. You gotta have 380 nanometer light. You have to have them both together. You have to be that UVB to stop electrons
from bombarding the ATPase. So when you look at the wiring diagram of the inner mitochondrial membrane, it's all photosynthetic
