English → Chinese transcript
世界卫生组织、生物电磁算法、谷歌 学术的参考资料，和
事实上只有一页，上面我告诉你，你 得相信
电子战，而且你必须接受我们使用广 域
体域网，也就是 BAN，就在这里，超出纳米级别。
6G 低频 PAN 就在那里，你的个人域网，正如你从这些圆圈看到的，
6G 低频 PAN 覆盖了 BAN，也就是你的身体。
你看，没人相信这事，他们不知道发 生了什么，我就说——他们
告诉你他们建了隐形轰炸机吗？
他们征求你的许可了吗？
没有。
为什么会这样？
我们来看看。
应用研究与开发，那是机密吗？
哦，我们没有那个。
这是一个不仅仅是战略层面的问题， 更是一个实实在在的产业问题。
哦，不，不。
当我们进行高级研究项目时，我们会 把情况告诉所有人，并征求你们的许可
事先。
等一下，让我查查历史，看看能否在 任何地方找到——按公司、
政府，或者学术界中为争夺资源而竞 争的人。
哦，好的。
所以这意味着DARPA会先去做那些事 情，然后再告诉我们。
就像企业一样，也像学术界一样。
哦，好的。
又回到这里了。
所以这是你的intra- BAN，然后是inter-BAN，和其他计算机、设备与人通信，
然后情况就是，嗯，不过只限于医院 里。
如果真是那样，这项技术在一开始就 根本行不通——他妈的不会以
工业层面所需要的方式运作。
然后，这就是你的工业物联网。
还有，这是你的量子操控，配合生物 光子学、传感器和千兆架构。
所以当我们到了必须像给幼儿看图 一样给人们看图片的时候，
如果我不把图画书拿给你看，你就不 明白，因为你选择不去读。
那么，嗯，你能换一下语气吗？你能化 个妆吗？还能
把头发弄一下吗？还能好好说吗？
当然，没问题。
这是电气与电子工程师学会的国际 标准。
那就是IEEE的全称，上面就写着“IEEE 标准”，对吧？
嗯。
还有“协会”。
嗯嗯。
而且在里面，就在那里，IEEE，你今天 早上怎么了？
也许只有我这么觉得，但看起来真的 很模糊。
IEEE，我说 ZigBee 和 Bluetooth 802.15.4 本身就是生物传感器。
嗯。
就在那儿。
好吧？
然后你跟我说，哦，但它只在医院里， 所以我把你带到这里。
传感节点、通信链路，这里是超宽带， 这里是射频
汇聚端，按编号，以及链路。
这还不够。
因为你们仍然在跟我说他们只是查 看你的体内，他们实际上并没有
通过人体组织进行人体通信，并且他 们肯定
把它保护好，没人能看到你，我说，不， 那不是工程学的做法，
那不是工程学的运作方式，那不是身 体之间、机器之间的路由方式，或
人工智能。
那不是机器学习的工作方式，那不是 算法的工作方式，而且那是
这不是智能电网的运作方式。
所以这里我们有混合型的 IEEE 802.15.6，它就是针对身体本身的。
体域网，就在这儿。
你可以在这里去阅读相关资料。
明白吗？
请问。
体域网是什么？
它有什么作用？
我们可以用它做什么？
你在这里读到的每一项内容。
生命体征、残障辅助、肌肉张力监测、 呼吸监测、言语
障碍，等等。自1995年起用于测试，而 且 FCC 要求在你住院时使用的医疗体域网
是从什么时候开始？
2014年。
然后我会告诉你，这是无线给药、AI 精准医疗、纳米诊疗一体化，和
电疗药物，不过在无法非侵入性地观 察你体内光子的情况下，
非侵入地观测，我们也没有那种能力 来为生命领域的 IEEE 执行那些服务。
科学。
那些是在你身体部位内的电子与电 气工程师，带着某种
被称为生物物理学的东西。
那么我们要如何运用物理学？
剪切应力、温度和机械运动。
是的，在纳米尺度的细胞结构内部。
毫米级别。
就像他们在越南那边练过的一样。
没错。
所以这是你的国家卫生研究院，我们 在频道上关于
这一页的说法，来自2007年，上面写着 ：用于细胞与组织诊断的生物光子学工具，采用无线方式。
哦，他们不会真的为一个马桶座支付 四万五千美元。
不，他们当然不会。
但相反，他们有不同类型的光学相干 断层扫描技术，而就在这里
在同一篇文章中，我们谈到以多种方 式用无线电对你的DNA进行改变
窄频带。
那是你的医疗植入物通信系统，还有 新的“人体通信”。
下一页，人体通信处于物理计算机网 络层，使用我们的
全新的极化子和等离子体，或者我总 是念错，叫plasmatrons，这正是
我一直在想的。
这是你的太赫兹纳米级表面重塑，石 墨烯只有一个原子厚，然后
光，进出你体内的光子，以及环绕你 的那些光子，
在那种工业物联网— —无处不在、普遍存在的环境计算中，
例如。
换句话说，体域网（body area network）就能触发它。
你可能会吸入它。
我们在你的皮肤上使用不同的传播 载体，而且这不仅仅是可穿戴设备的事。
不，不，是体内的生物传感器由DNA分 析物的衍生物和不同类型
的细胞构成，然后那些生物传感器便 由此自行生成。
打扰一下。
那么，如果我们不喜欢你体内的东西 ，我们就用一层原子
厚的石墨烯重新覆盖你的细胞结构。
欢迎来到纳米物联网，人体物联网。
而且只是为了说明，因为太多人不了 解，归功于它能够
在太赫兹频段支持表面等离子体和p olaritin波。
从生物到数字、从数字到生物意味着 我们可以引发生物学上的改变。
欢迎来到你的太赫兹频段。
那会以电学方式改变体内的物理细 胞，因为你的身体具有电性。
而那种polaritin的变化，我们昨晚在 大学里学过，与——
等离激元学，然后我给大家放了一段 关于Odyssey的影片，我当时想，哦，看，我们
可以改变电磁场。
没问题。
生物电磁学。
那是给算法用的。
End of transcript · 1,136 words · machine translated
Original transcript (English)
The World Health Organization, bioelectromagnetic algorithms, Google Scholar references, and there's literally only one page in which I tell you that you're going to have to believe in electronic warfare, and you're going to have to deal with the fact that we use wide body area networks, and that would be BAN right here, past the nano. The 6G low PAN is right there, your personal area network, and as you can see by the circles,
the 6G low PAN encompasses the BAN, which is your body. And see, nobody believed this, they didn't know what was going on, and I said, did they tell you they built the stealth bomber? Did they ask your permission? No.
And why is that? Let's see. Applied research and development, that's secret? Oh, we don't have that. As a matter of, not just strategy, but actual industry.
Oh, no, no. When we're doing an advanced research project, we just tell everybody, we ask your permission first. Hang on, let me look through history, let me see if I can find that, anywhere, by corporation, government, people competing for things in academia.
Oh, okay. So that means that DARPA will go ahead and do stuff, and then they'll let us know later. Just like a corporation, just like academia. Oh, okay. Here we are again.
So there's your intra-BAN, and then your inter-BAN, talking to other computers, equipment, people, and then it becomes, yeah, but only in the hospital. That were the case, the tech wouldn't have worked in the first fucking place in the way that it needs to at the industrial level. And then, here's your industrial Internet of Things.
And this is your quantum steering, with biophotonics, sensors, gig architecture. So when we get to the point that we have to show people pictures like toddlers, because if I don't show you a picture book, then you don't understand, because you choose not to read. Then, well, could you change your tone of voice, and could you put makeup on, and could you do your hair, and could you say it nicely?
Sure, no problem. This is the International Standards for Electrical and Electronics Engineers. That's what the IEEE stands for, it says right there, IEEE standards, right? Yeah. And association.
Mm-hmm. And inside, right there, IEEE, what is wrong with you this morning? Maybe it's just me, but it looks really hazy. The IEEE, and I said ZigBee and Bluetooth 802.15.4 are the biosensors themselves. Mm-hmm.
Right there. Okay? And then you tell me, oh, but it's only in the hospital, so I take you right here. Sensor nodes, communication link, there's the ultra-wideband, and here's the radio frequency sink, and by number, and the link.
That's not enough. Because you're still telling me that they're only looking inside of you, they're not actually using human body communication through human tissue, and that they're certainly having it secured, and nobody else can see you, and I said, no, that's not how the engineering works, that's not how the routing works in between the bodies, or the machines, or the
AI. That's not how the machine learning works, that's not how the algorithms work, and that's not how the smart grid works. So here we have hybrid IEEE 802.15.6, which is the body itself. Body area network, there it is.
Here's where you can go read about it. Okay? Excuse me. What is a body area network? What does it do?
What can we do with it? Every single thing that you read right here. Vital signs, disability assistance, muscle tension monitor, respiration monitoring, speech disability, et cetera, since 1995 for testing, and FCC mandated medical body area network meeting when you're in the hospital, since when?
2014. Then I tell you it's wireless drugging, AI precision healthcare, nanotheranostics, and electroceuticals, well, without being able to look at the photons inside of your body noninvasively, and we don't have that capacity to execute those services for the IEEE of life sciences.
Those are your electronics and electrical engineers inside your body parts, with something called biophysics, biological physics. Now what do we do with physics? Sheer stress, temperature, and mechanical motion. Yeah, inside your cell structure at the nano level.
The millimeter level. Like they've been practicing back in Vietnam. Right. So here's your National Institute of Health, and what we say here on the channel about this page, it's from 2007, there, biophotonic tools in cell and tissue diagnostics, wirelessly.
Oh, they don't really pay 45 grand for a toilet seat. No, they do not. But instead, they have different types of optical coherence tomography, and here's where in the same article, we talk about changing your DNA in multiple ways, on and with radio frequency narrow band.
There's your medical implant communication system, and the new human body communication. Next page, human body communication at the physical computer network layer, with our brand new polaritons and plasma, or I always say that wrong, plasmatrons, this is what I keep thinking. This is your terahertz nano resurfacing at one atom thick with the graphene, and then
the light, the photons coming in and out of you, as well as the ones coming around you, in that industrial internet of things, ubiquitous, pervasive, ambient computing, for example. In other words, a body area network can set it off. You could be breathing it in.
We have different vectors that we use on your skin, and that's not just a wearable thing. No, no, it's the biosensors that are in you by DNA analyte derivatives, different types of cells, and then the biosensors create themselves from there. Excuse me. So then, if we don't like what's in you, we resurface your cellular structure one atom
thick with the graphene. Welcome to the internet of nano things, the internet of bodies. And just to make sure, because too many people don't know about, thanks to its ability to support surface plasma and polaritin waves in the terahertz band. Biological to digital and digital to biological means that we can make a biological change.
Welcome to your terahertz band. That changes physical cells in the body electrically, because your body is electrical. And that polaritin change, we were learning about this last night at the university with plasmonics, and I took everybody to a video on the Odyssey, and I'm like, oh look, we can change the electromagnetism.
No problem. Bioelectromagnetics. That's for algorithms.
