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#澳洲的麗莎要做氮甘斯
#第150次知識尋求

凱史:是澳洲的麗莎嗎?

⋯⋯

麗莎:沒錯

凱史:早安,麗莎(2:24:54)

麗莎:早安,凱史先生,可否請你幫我澄清一下。我正忙著做氮氣的甘斯。我想做一些不同款的甘斯。

我想要好好理解...如果我加了苛鹼,因為我手邊還有尿素,亞硝酸鹽的備料。 顯然是一種結晶狀態,是加了苛鹼的一種液體,我不確定是否能做出氮的甘斯或只是來自肥料填料的甘斯?

凱史:啊......做出來的甘斯是黑色的嗎?

麗莎:不是

凱史:是什麼顏色的?

麗莎:全都是非常片狀的白色,我想加一些鈣跟亞硝酸鹽,一些尿素,一些尿素的混合物,出來的都是一種白色蓬鬆的甘斯

凱史:我們做法不同,我們用的是硝酸銀(silver nitrite),出來的(甘斯)是黑色的。

#橘子的生命之杯
最簡單的方法之一就是用亞硝酸鹽,如果你要做成甘斯。回想一下『橘子的生命之杯』所做的。做些二氧化碳甘斯,把亞硝酸鹽放在二氧化碳甘斯之上,二氧化碳甘斯帶有氮的能量,通常有用(147:02)

你也可以用花果植蔬去做,如果能找到含有高亞硝酸鹽的植物蔬菜,就可如法炮製。

麗莎:我也用我們生態幫浦系統的水來嘗試,很難在亞硝酸鹽的層級。是的,我有做出甘斯,只是作為一種設置,不知道是否確實是氮的一部分.(147:27)

#碰到問題時隨時回去看如何做二氧化碳甘斯的教學
凱史:如果你在做這些東西碰到問題,很簡單,回去最早的教學。如果你要做什麼做不出來,回去看以前的教學說明如何做二氧化碳甘斯。

兩塊金屬板的選擇,當中產生碳的磁引力場,現在你看,你做不出氮本身的甘斯,會是它的氧化物。

#選最輕的金屬板子做奈米塗層
所以找兩塊金屬板,奈米塗層最輕的那一個,不要奈米塗層最重的那一塊。如果你看鋅和銅,鋅比銅重很多,所以我永遠選銅做奈米塗層,產生它的場域。

所以好比,你拿一塊金屬板子,是鋁,或金屬的磁引力質量相較於其他金屬是14。

奈米塗層最輕的金屬板塊放到鹽水,得到氮氧化物。因為你在液體中產生氮的磁引力場,這是最簡單的方式確保得到你要的東西(2:29:25)

麗莎:所以鋁是14?14加13是27

凱史:OK,現在你需要再加14。就變成41,42,
看鉀,或看誰在41或42之後。只是個例子。可以了解嗎?所以選,你可以用鉀。會有很多火花。

所以這是你在兩者之間產生引力質量的方式,並且希望有些材料在裡頭有個場域的漸層頻譜。兩者之間能產生氮的磁力。你創造一個氫氧化氮NOH的環境,底部會是純的氧化氮。(2:30:54)

麗莎:數字怎麼來的?到14

凱史:你有20%的遊戲空間,不管哪一種方式,所以會有同位素的存在。兩者之間的某處有26,或24,然後另一塊金屬板的某處到44,45/39,38,所以兩者之間永遠有兩塊板子任一個的分子結構的漸層頻譜,在兩者之間產生你要的氮。(2:31;39)

麗莎:謝謝你,我在找14,氧氣自己冒出來。

凱史:呃......不會自己冒出來。你在氫氧化氮的鹽環境處理,你也奈米塗層了,進到鹽有水的環境,是鹽的能量進來。

氮還有另一個小撇步。氮氣,如果裡頭有不同材料的漸層頻譜,頻譜的漸層帶選擇也夠多時,你會在某些當中找到空隙產生氮,以及它不同的強度。
氮是14。
氧是16。
碳是12

所以當你玩這類的頻譜漸層帶,不只會生出氮,還會產生氧。一個較低階、一個較高階之間的某些原子結構就在氧16的階級。(2:32:48)

所以氧化氮部分的奈米甘斯狀態在它自身的系統內產生,因為你用的不同材料不同的強度的混和形成一個組合。

不必往鐵走去,因為14要跟它相加,把它看成物質,有14加到鋅,或從鋅拿掉14,這個當中允許有上下20%的差異,比例大約在30%左右。

為什麼要奈米塗層代表要創造環境,也就是兩者的奈米塗層。

麗莎:謝謝。凱史先生

凱史:非常感謝。我們試著了解一些軟性的東西,

了解轉換至關重要。這是教學的一部分,教到醫學應用的部分也會提到。

當你看醫療的應用時,要了解死亡,當中每樣東西都有個漸層頻譜光譜。能用得到。如何用?會變得非常非常困難。在科學理解上,每樣東西開始變得模糊。

#轉換的重要性
我們必須能夠轉譯資料與知識,才能達到一個程度,能夠保有穩住系統的要做到的性能。(2:35:42)

很多方面,我們要學的是複製它,或找到一個平行的方式。試著新增知識,到一個深度能解釋很多事情。
材料的轉換,
身體是如何轉換?
轉換的原因是什麼?
怎樣能轉換達成另一個的功能?

Lisa from Australia would like to make gans of nitrogen
 
Keshe: is that Lisa from Australia?
⋯⋯
Lisa: that’s right
Keshe: Good morning, Lisa (2:24:54)
Lisa: Good morning, Mr. Keshe, and I wonder if you please help me better clarify. I’m busy trying to do the gans of nitrogen. I’m trying a few of different types.
 
and I'd like to get a better understanding on… if I add the caustic, because I've got urea and I've got nitrite. And obviously in a sort of a crystalline form, which are of a liquid of adding the caustic, i'm not sure if I'm creating the gans of the nitrogen or just making the gans of the fillers that come with fertilizer (2:25: 58 )
 
Keshe: Ah…is it the material black?
Lisa: no
Keshe: what color is it?
Lisa: all of them all are sort of very flaky whitish and I've tried to put a little calcium and nitrate, and tried with the urea, I've tried with a mixture of urea and they all just come out a very sort of a whitish fluffy top gans
 
keshe: we do in a different way, we use silver nitrate, and we see black.
 
One of the easiest way to do is nitrite, if you want to do it as a gans. is go back to what you did with orange. Create a CO2 and place the nitrite on top of the CO2, that Co2 carries the energy of nitrogen, and that usually works (2:27:08)
 
but you can do it with the vegetation, if you can find vegetation with high nitrates, or do the same. Lisa: and i've also tried it with the water from our eco-pump system could be very hard try on nitrite level. yes I've got gans actually, but as a setup, doesn’t know if it's actually part of nitrogen.147:27 - 147:32
 
Keshe; if you have a problem with these things, very simply, go back to the original Teaching, if you ever have a problem to produce something you cannot produce , yea? Go back the teaching of how you makes the CO2.
 
Look at the choice of the two metals that it created gravitational-and-magnetical field of carbon, so now you look this way, you cannot make nitrogen on its own , it's got to be oxide of it.
 
nano coat the lightest one
So, choose two plates, nano coat the lightest one, don’t nano-coat the heaviest one. If you look the zinc and copper, zinc is much heavier than copper, this is how I always choose the material for nano coating, and creating the fields of it. So, let’s say, you take a metal, what is aluminum, or look at a metal with the gravitational-and-magnetical mass is 14, in respect to other metal.
 
Nano coat the lightest ones. Put it in the salt water, you have nitrogen oxide. Because you create the gravitational-and-magnetical field of the nitrogen in the liquid, this is one of the easiest way to make sure you have what you're looking for (2:29:25)
 
Lisa: so the aluminum is 14? 14 plus 13, 27,
 
Keshe: ok, now you need to add 14 to it. It’s 41, 42, Look at the potassium, or look at one after 41, or 42. That’s an example. You understand? So choose, you can use potassium. There is lot of sparks and fireworks.
 
So this is the way you create the gravitational mass between the two, and hopefully some of the materials has that spectrum of the fields inside it. Now between the two, you’ve created the magnetical of nitrogen. You have created an environment of NOH, now what you get at the bottom is pure nitrogen oxide. (2:30:54)
 
Lisa: how come the numbers have to be? To the 14
Keshe: you have 20% play time, either way, that’s why you have isotope. Somewhere in between you go to 26, 24, and somewhere on the next metal ,you go to 44, 45, 39, 38, so…between the two, there is always the spectrum of molecular structure, in one or the other, which creates that between the two. What you are looking for a nitrogen. (2:31;39)
 
Lisa: thank you, I’m just looking for 14. Oxygen, just pop up on its own.
 
Keshe: uh…you won’t pop up. and you are doing in salt environment of NOH, and you have nano-coated now, you are going into salt with water, is the energy of the salt which is coming.
 
But there is another trick with the nitrogen. Nitrogen, if you have a spectrum of different materials in it, and the bandwidth is about near enough, as you found the gap between some to create nitrogen, and different spectrum of strength of it. Nitrogen is 14. Oxygen is 16. Carbon is 12 So, when you play with these kinds of bandwidth, you create not only nitrogen, you create some oxygen, too. Some of the atomic structures between one lower and higher, is the level of oxygen of 16. (2:32:48)
 
So partially the nano-gans state of nitrogen oxide is created inside the system itself, due to the composite, mixture of the different strengths of the materials of what you used.
 
You don’t have to go to the iron, as 14 to it. See it as a matter to it, sits the zinc as 14 to it, or take 14 away from zinc, you look at this allows 20% of plus or minus. At that ratio is about 30%. Nano coating means to create the environment of, it’s making things easier, that’s the nano-coating of the two.
 
Lisa: Thank you. Mr. Keshe
Keshe: Thank you very much. We tried to understand softely things, the understanding of the conversion is important.
 
This brings to us as part of teaching, which is we were touching in this respect with the medical application. When you look at the medical applications, you allow the death of the understanding, in that, everything has a spectrum. You can use it. And how you can use it? It makes it very very difficult. Everything started to be ambiguity in understanding of the science.
 
The important of the conversion
We need to be able to translate the information, the knowledge in the way that we need to do, to reach the point of being able to maintain and hold on to what is expected from our system. (2:35:42)
 
In so many ways, what we have to learn is find the replication of it, or find parallel to it. Try to add to the knowledge, in the depth that explains a lot of things. The conversion of the materials,
how is the body converted?
what’s the reason for conversion?
How does it come to the material behaves like the other one?

 

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