JPS628100A - Method and device for forming element - Google Patents
Method and device for forming elementInfo
- Publication number
- JPS628100A JPS628100A JP14736185A JP14736185A JPS628100A JP S628100 A JPS628100 A JP S628100A JP 14736185 A JP14736185 A JP 14736185A JP 14736185 A JP14736185 A JP 14736185A JP S628100 A JPS628100 A JP S628100A
- Authority
- JP
- Japan
- Prior art keywords
- reactively
- generate
- bonding
- combined
- producing
- Prior art date
- Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
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Abstract
(57)【要約】本公報は電子出願前の出願データであるた
め要約のデータは記録されません。(57) [Summary] This bulletin contains application data before electronic filing, so abstract data is not recorded.
Description
【発明の詳細な説明】
この発明は元素の生成理論に関するものである。必要な
元素を必要な時に必要な量を入手できるようにすること
を目的とする。DETAILED DESCRIPTION OF THE INVENTION This invention relates to the theory of formation of elements. The purpose is to make it possible to obtain the necessary elements at the required time and in the required amount.
この発明の理論的基盤は万物一元素生成理論による。そ
の一元素とは水素Ｈである。The theoretical foundation of this invention is based on the theory of the creation of all elements. One such element is hydrogen H.
Ｈは中性子を伴なっておらずＨｅになってはじめて中性
子を伴ない、そして原子量はＨの４倍となっている。こ
のことからＨは陽子にも中性子にもなると考えられる。H is not accompanied by neutrons, and does not become accompanied by neutrons until it becomes He, and its atomic weight is four times that of H. From this, it is thought that H can be both a proton and a neutron.
Ｈが４つ反応結合した時に２つは陽子的になり２つが中
性子的になったと考えられるのである。It is thought that when four H atoms react and bond, two become protons and two become neutrons.
それは原子量の計算が合うこと、そしてＨは中性子を伴
なっていなことからである。Ｈが中性子を伴なっていな
いということはＨは１つで３つの役割を果していると考
えられるのである。Ｈは時間的経過とともに陽子的であ
ったり中性子的であったり電子的であったりしていると
考えられるのである。それでＨは中性子を伴なっていな
いと考えるのである。不確定性原理がここで働くと考え
る。計測の段階では１つの元素が陽子的になったり中性
子的になったり電子的になるので確定できず、ただ陽子
は計測しやすいもので陽子としての反応が出たので陽子
と決めたものと考える。ここに水素の三変態性理論が成
り立つのである。Ｈは陽子となり中性子となり電子にな
るということである。化学的に見ると酸性となり中性と
なり塩基性となることであり、形態的に見ると金属とな
り半導体となり非金属となるということである。This is because the atomic weight calculations are correct and H does not involve neutrons. The fact that H is not accompanied by neutrons means that H is thought to play three roles. It is thought that H becomes proton-like, neutron-like, or electronic-like over time. Therefore, we think that H is not accompanied by neutrons. I think the uncertainty principle is at work here. At the measurement stage, one element can become proton-like, neutron-like, or electronic-like, so it cannot be determined, but protons are easy to measure, and since a reaction occurred as a proton, it was decided that it was a proton. . This is where the three-transformation theory of hydrogen comes into existence. This means that H becomes a proton, a neutron, and an electron. Chemically, it becomes acidic, neutral, and basic, and morphologically, it becomes a metal, a semiconductor, and a nonmetal.
不確定性原理もこのＨの三変態性をずばりと当ていると
見ることが出来る。Ｈ４個でＨｅが生成され、Ｈｅ５個
でＮｅが生成され、Ｎｅ１個とＨｅ４個でＡｒが生成さ
れ、Ａｒ２個でＫｒが生成され、Ｋｒ１個とＡｒ１個か
らＸｅが生成され、Ｘｅ１個とＡｒ１個とＮｅ１個とＨ
ｅ２個からＲｎが生成されて、Ｈ、Ｈｅ、Ｎｅ、Ａｒ、
Ｋｒ、Ｘｅ、Ｒｎが基本元素となって万物を作り出して
いると考える。The Uncertainty Principle can also be seen to be a direct application of the three metamorphoses of H. He is generated from 4 H, Ne is generated from 5 He, Ar is generated from 1 Ne and 4 He, Kr is generated from 2 Ar, Xe is generated from 1 Kr and 1 Ar, and 1 Xe and Ar1. piece, Ne1 piece and H
Rn is generated from two e pieces, H, He, Ne, Ar,
I believe that Kr, Xe, and Rn are the basic elements that create all things.
この理論は次の２つの事実から導きだしたものである。This theory is derived from the following two facts.
その１つはラザフォードの行なった
からであ
る。もう１つはオットー・ハーンとフリッツ・ストラス
マンの行なったＵからＢａが生成された事実である。こ
れらと自論のｏ族中性元素理論が基盤となっている。Ｎ
は３つのＨｅと１つのＨから出来ており、そこへＨｅが
投入されたので軽いＨが飛び出し４つのＨｅの結合とな
ったと考えられ、４つのＨｅの結合はＯであり計算は合
うのである。また、ＵはＸｅ１個とＫｒ１個とＨｅ１個
から出来ており、そこへ放射線の照射により、まずＨｅ
が飛び出し、次に軽いＫｒが飛び出さされてＸｅが１つ
残ったと考えられ、そこへ放射線の中の１つであるＨｅ
がＸｅと結合しＢａが生成されたと考えたのである。こ
こでも計算は合うのである。One of them is because Rutherford did it. Another is the fact that Otto Hahn and Fritz Strassmann created Ba from U. These and my own theory of O-group neutral elements form the basis. N
is made up of three He and one H, and since He was injected into it, the light H jumped out and became a bond of four He, and the bond of the four He is O, so the calculation is correct. . In addition, U is made up of one Xe, one Kr, and one He, and by irradiating it with radiation, it is first converted into He.
It is thought that the light Kr was ejected, leaving one Xe, and one of the radiations, He, was ejected.
He thought that Ba was produced by combining with Xe. The calculations are correct here as well.
なお、Ｎの原子量の１３は、ＨｅＸ３は原子量で見ると
Ｈｅは４となるので４×３＝１２であり、それにＨの１
を足すと１３になるという計算方法である。また、反応
結合とは核同士の結合を言う。計測原子量とこの規定原
子量ともいえるものとの差は付加原子量と考えている。Note that the atomic weight of N, 13, is 4 x 3 = 12, since HeX3 has an atomic weight of 4, and 1 of H.
The calculation method is to add up to 13. In addition, reactive bonding refers to bonding between nuclei. The difference between the measured atomic weight and this standard atomic weight is considered to be the additional atomic weight.
原子番号が大きくなる程、付加原子量は多くなるのであ
る。また、自然放射線が強いのはＰｕどまりであるが、
それはＰｕがＸｅ１個とＫｒ１個及びＨｅ２個から出来
ており、Ｘｅは５４とＫｒは３６と大きい元素を含んで
いるためと考える、ＵはＸｅ１個とＫｒ１個とＨｅ１個
で出来ており、ＴｈはＸｅ１個とＫｒ１個から出来てお
り、それぞれ大きな元素を２つ持っている。Ｐａ，Ｎｐ
、ＡｍはＨを含んでいるので、Ｈの三変態性のため弱く
なっていると考える。The larger the atomic number, the larger the amount of additional atoms. Also, only Pu has strong natural radiation,
I think this is because Pu is made up of 1 Xe, 1 Kr, and 2 He, and contains large elements such as 54 for Xe and 36 for Kr. U is made of 1 Xe, 1 Kr, and 1 He, and Th is made up of one Xe and one Kr, each having two large elements. Pa,Np
, Am contains H, so it is thought that it is weakened due to the trimorphism of H.
また安定も悪い。ＴｈからＡｍはＸｅとＲｎ系との２つ
の計算方法があるが元素数の少ない方を自然に選択して
いるようである。原子番号はＨとＨｅの１と２の二進法
をとっているようである。そのため原子量は１増と３増
のくりかえしとなっている。反応炉は融合炉と違いあら
ゆる条件を作りだし、その元素の生成に適した状態を作
る必要がある。元素の生成表は本論による反応元素の種
類と数をまとめたものであり、想定される元素表は未に
発見されていないのか、あるいは自然界には存在しない
のか、あるいは地球上には無くて宇宙にはあるのか、あ
るいは人工元素となるかの反応元素の種類と数をまとめ
たものである。この方法により必要な元素は作ることが
出来ると考える。It also has poor stability. There are two calculation methods for Am from Th: Xe and Rn systems, but it seems that the one with the smaller number of elements is naturally selected. The atomic number seems to be in the binary system of 1 and 2 for H and He. Therefore, the atomic weight increases by 1 and 3 repeatedly. Unlike a fusion reactor, a reactor requires creating all kinds of conditions to create conditions suitable for the production of the element. The elemental production table is a summary of the types and numbers of reaction elements according to this theory, and the assumed elemental table has not been discovered yet, does not exist in nature, or does not exist on earth and is in the universe. This is a summary of the types and numbers of reactive elements that exist in the world or are artificial elements. We believe that the necessary elements can be created using this method.
第１図は反応炉の側面透視図である。第２図は平面図で
ある。左側より反応元素を投入し各段階で回収していく
ことになる。
第２図はコイルの巻き方を説明している。
１・・・放射線発射装置
２・・・耐食容器
３・・・コイル
４・・・磁界調節器
５・・・電位コントローラー
６・・・コンプレッサー
７・・・分離膜又は板
８・・・電気放電器
９・・・冷却器
１０・・・加熱器
１１・・・耐圧容器
１２・・・磁気の流れ
１３・・・電流の流れる方向FIG. 1 is a side perspective view of the reactor. FIG. 2 is a plan view. Reactive elements are introduced from the left side and collected at each stage. Figure 2 explains how to wind the coil. 1... Radiation emitting device 2... Corrosion resistant container 3... Coil 4... Magnetic field regulator 5... Potential controller 6... Compressor 7... Separation membrane or plate 8... Electric discharge Electric appliance 9...Cooler 10...Heater 11...Pressure container 12...Magnetic flow 13...Direction of current flow
Claims (1)
法。 ３ Ｈｅ２個を反応結合させＢｅを生成する方法。 ４ Ｈｅ２個とＨ１個を反応結合させＢを生成する方法
。 ５ Ｈｅ３個を反応結合させＣを生成する方法。 ６ Ｈｅ３個とＨ１個を反応結合させＮを生成する方法
。 ７ Ｈｅ４個を反応結合させてＯを生成する方法。 ８ Ｈｅ４個とＨ１個を反応結合させＦを生成する方法
。 ９ Ｈｅ５個を反応結合させＮｅを生成する方法。 １０ Ｎｅ１個とＨ１個とを反応結合させＮａを生成す
る方法。 １１ Ｎｅ１個とＨｅ１個を反応結合させＭｇを生成す
る方法。 １２ Ｎｅ１個とＨｅ１個及びＨ１個をＡｌを生成する
方法。 １３ Ｎｅ１個とＨｅ２個を反応結合させＳｉを生成す
る方法。 １４ Ｎｅ１個とＨｅ２個及びＨ１個を反応結合させＰ
を生成する方法。 １５ Ｎｅ１個とＨｅ３個を反応結合させＳを生成する
方法。 １６ Ｎｅ１個とＨｅ３個及びＨ１個を反応結合させＣ
ｌを生成する方法。 １７ Ｎｅ１個とＨｅ４個を反応結合させＡｒを生成す
る方法。 １８ Ａｒ１個とＨ１個を反応結合させＫを生成する方
法。 １９ ＡｒとＨｅを１個ずつ反応結合させＣａを生成す
る方法。 ２０ ＡｒとＨｅとＨをそれぞれ１個ずつ反応結合させ
Ｓｃを生成する方法。 ２１ Ａｒ１個とＨｅ２個を反応結合させＴｉを生成す
る方法。 ２２ Ａｒ１個とＨｅ２個及びＨ１個を反応結合させＶ
を生成する方法。 ２３ Ａｒ１個とＨｅ３個を反応結合させＣｒを生成す
る方法。 ２４ Ａｒ１個とＨｅ３個及びＨ１個を反応結合させＭ
ｎを生成する方法。 ２５ Ａｒ１個とＨｅ４個を反応結合させＦｅを生成す
る方法。 ２６ Ａｒ１個とＨｅ４個及びＨ１個を反応結合させＣ
ｏを生成する方法。 ２７ Ａｒ１個とＮｅ１個を反応結合させＮｉを生成す
る方法。 ２８ ＡｒとＮｅとＨを各１個ずつ反応結合してＣｕを
生成する方法。 ２９ ＡｒとＮｅとＨｅを各１個ずつ反応結合させＺｎ
を生成する方法。 ３０ ＡｒとＮｅとＨｅとＨを各１個ずつ計４個を反応
結合させＧａを生成する方法。 ３１ ＡｒとＮｅを１個ずつＨｅを２個で反応結合させ
Ｇａを生成する方法。 ３２ ＡｒとＮｅを１個ずつＨｅを２個そしてＨを１個
を反応結合してＡｓを生成する方法。 ３３ ＡｒとＮｅを各１個とＨｅ３個を反応結合してＳ
ｅを生成する方法。 ３４ ＡｒとＮｅを各１個とＨｅを３個そしてＨを１個
を反応結合してＢｒを生成する方法。 ３５ Ａｒ２個を反応結合してＫｒを生成する方法。 ３６ ＫｒとＨの各１個を反応結合してＲｂを生成する
方法。 ３７ ＫｒとＨｅの各１個を反応結合してＳｒを生成す
る方法。 ３８ ＫｒとＨｅとＨを各１個ずつを反応結合させＹを
生成する方法。 ３９ Ｋｒ１個とＨｅ２個を反応結合させＺｒを生成す
る方法。 ４０ Ｋｒ１個とＨｅ２個とＨ１個を反応結合してＮｂ
を生成する方法。 ４１ Ｋｒ１個とＨｅ３個を反応結合させＭｏを生成さ
せる方法。 ４２ Ｋｒ１個とＨｅ３個とＨ１個を反応結合させＴｃ
を生成させる方法。 ４３ Ｋｒ１個とＨｅ４個を反応結合させＲｕを生成さ
せる方法。 ４４ Ｋｒ１個とＨｅ４個とＨ１個を反応結合させＲｈ
を生成させる方法。 ４５ Ｋｒ１個とＮｅ１個を反応結合させＰｄを生成す
る方法。 ４６ ＫｒとＮｅとＨの各１個を反応結合してＡｇを生
成させる方法。 ４７ ＫｒとＮｅとＨｅの各１個を反応結合してＣｄを
生成させる方法。 ４８ ＫｒとＮｅとＨｅとＨを各１個にて反応結合させ
てＩｎを生成する方法。 ４９ ＫｒとＮｅを各１個Ｈｅを２個を反応結合させて
Ｓｎを生成する方法。 ５０ ＫｒとＮｅを各１個とＨｅ２個とＨ１個とを反応
結合してＳｂを生成させる方法。 ５１ ＫｒとＮｅを各１個とＨｅを３個で反応結合させ
てＴｅを生成させる方法。 ５２ ＫｒとＮｅを各１個とＨｅ３個とＨ１個を反応結
合させてＩを生成させる方法。 ５３ ＫｒとＡｒを各１個で反応結合させＸｅを生成さ
せる方法。 ５４ ＸｅとＨを各１個で反応結合させＣｓを生成させ
る方法。 ５５ ＸｅとＨｅ各１個を反応結合させＢａを生成する
方法。 ５６ ＸｅとＨｅとＨ各１個を反応結合させＬａを生成
する方法。 ５７ Ｘｅ１個Ｈｅ２個で反応結合させＣｅを生成させ
る方法。 ５８ Ｘｅ１個とＨｅ２個とＨ１個で反応結合させＰｒ
を生成させる方法。 ５９ Ｘｅ１個とＨｅ３個で反応結合させＮｄを生成さ
せる方法。 ６０ Ｘｅ１個とＨｅ３個とＨ１個で反応結合させＰｍ
を生成させる方法。 ６１ Ｘｅ１個とＨｅ４個で反応結合させＳｍを生成さ
せる方法。 ６２ Ｘｅ１個とＨｅ４個とＨ１個で反応結合させてＥ
ｕを生成させる方法。 ６３ Ｘｅ１個とＮｅ１個で反応結合させＧｄを生成さ
せる方法。 ６４ Ｘｅ１個とＮｅ１個とＨ１個で反応結合させＴｂ
を生成させる方法。 ６５ Ｘｅ１個とＮｅ１個Ｈｅ１個で反応結合させＤｙ
を生成させる方法。 ６６ Ｘｅ１個とＮｅ１個とＨｅ１個とＨ１個で反応結
合させＨｏを生成させる方法。 ６７ Ｘｅ１個とＮｅ１個とＨｅ２個の割り合いて反応
結合させＥｒを生成させる方法。 ６８ Ｘｅ１個とＮｅ１個とＨｅ２個とＨ１個で反応結
合させＴｍを生成させる方法。 ６９ Ｘｅ１個とＮｅ１個とＨｅ３個で反応結合させＹ
ｂを生成させる方法。 ７０ ＸｅとＮｅを各１個とＨｅ３個とＨ１個で反応結
合させてＬｕを生成させる方法。 ７１ Ｘｅ１個とＡｒ１個で反応結合させＨｆを生成さ
せる方法。 ７２ Ｘｅ１個とＡｒ１個とＨ１個で反応結合させＴａ
を生成させる方法。 ７３ Ｘｅ１個とＡｒ１個とＨｅ１個で反応結合させＷ
を生成させる方法。 ７４ Ｘｅ１個とＡｒ１個とＨｅ１個とＨ１個で反応結
合させＲｅを生成させる方法。 ７５ Ｘｅ１個とＡｒ１個とＨｅ２個との割合で反応結
合させＯｓを生成させる方法。 ７６ Ｘｅ１個とＡｒ１個とＨｅ２個とＨ１個で反応結
合させＩｒを生成させる方法。 ７７ Ｘｅ１個とＡｒ１個とＨｅ３個で反応結合させＰ
ｔを生成させる方法。 ７８ Ｘｅ１個とＡｒ１個とＨｅ３個とＨ１個で反応結
合させＡｕを生成させる方法。 ７９ Ｘｅ１個とＡｒ１個とＨｅ４個で反応結合させＨ
ｇを生成させる方法。 ８０ Ｘｅ１個とＡｒ１個とＨｅ４個とＨ１個で反応結
合させＴｌを生成させる方法。 ８１ Ｘｅ１個とＡｒ１個とＮｅ１個で反応結合させＰ
ｂを生成させる方法。 ８２ Ｘｅ１個とＡｒ１個とＮｅ１個とＨ１個で反応結
合させてＢｉを生成させる方法。 ８３ Ｘｅ１個とＡｒ１個とＮｅ１個とＨｅ１個で反応
結合させてＰｏを生成させる方法。 ８４ Ｘｅ１個とＡｒ１個とＮｅ１個とＨｅ１個とＨ１
個で反応結合させＡｔを生成させる方法。 ８５ Ｘｅ１個とＡｒ１個とＮｅ１個とＨｅ２個で反応
結合させＲｎを生成させる方法。 ８６ Ｒｎ１個とＨ１個で反応結合させＦｒを生成させ
る方法。 ８７ Ｒｎ１個とＨｅ１個で反応結合させＲａを生成さ
せる方法。 ８８ Ｒｎ１個とＨｅ１個とＨ１個で反応結合させＡｃ
を生成させる方法。 ８９ Ｘｅ１個とＫｒ１個で反応結合させＴｈを生成さ
せる方法。 ９０ Ｘｅ１個とＫｒ１個とＨ１個で反応結合させＰａ
を生成させる方法。 ９１ Ｘｅ１個とＫｒ１個とＨｅ１個で反応結合させＵ
を生成させる方法。 ９２ Ｘｅ１個とＫｒ１個とＨｅ１個とＨ１個で反応結
合させＮｐを生成させる方法。 ９３ Ｘｅ１個とＫｒ１個とＨｅ２個で反応結合させＰ
ｕを生成させる方法。 ９４ Ｘｅ１個とＫｒ１個とＨｅ２個とＨ１個で反応結
合させＡｍを生成させる方法。 ９５ Ｒｎ１個とＮｅ１個で反応結合させＣｍを生成さ
せる方法。 ９６ Ｒｎ１個とＮｅ１個とＨ１個で反応結合させＢｋ
を生成させる方法。 ９７ Ｒｎ１個とＮｅ１個とＨｅ１個で反応結合させＣ
ｆを生成させる方法。 ９８ Ｒｎ１個とＮｅ１個とＨｅ１個とＨ１個で反応結
合させＥｓを生成させる方法。 ９９ Ｒｎ１個とＮｅ１個とＨｅ２個で反応結合させＦ
ｍを生成させる方法。 １００ Ｒｎ１個とＮｅ１個とＨｅ２個とＨ１個で反応
結合させＭｄを生成させる方法。 １０１ Ｒｎ１個とＮｅ１個とＨｅ３で反応結合させＮ
ｏを生成させる方法。 １０２ Ｒｎ１個とＮｅ１個とＨｅ３個とＨ１個で反応
結合させＬｒを生成させる方法。 １０３ Ｈ、Ｈｅ、Ｎｅ、Ａｒ、Ｋｒ、Ｘｅ、Ｒｎの基
本７元素のいろいろな反応結合あるいは反応分離 によって、それなりの元素を生成させる方 法。 １０４ 反応結合あるいは反応分離の装置において磁気
拘束、磁気泳動、電位、磁界、放射 線、電気放電、高圧、負圧、高温、低温、 等の創出機能とその調節装置からなる反応 炉の方法。 １０５ 特許請求の範囲１０４の方法による反応炉にお
いて磁気拘束、磁気泳動、電位、磁 界、放射線、電気放電、高圧、負圧、高温、低温、等の
創出機能とその調節装置から なる反応炉の装置。[Claims] A method for producing He by reactively bonding four 1 H atoms. 2. A method of generating Li by reacting and bonding one He and one H. 3 A method to generate Be by reactively combining two He. 4 A method of producing B by reacting and bonding two He and one H. 5 A method to generate C by reacting and combining three He. 6 A method of generating N by reacting and bonding 3 He and 1 H. 7 A method to generate O by reactively combining four He. 8 A method of producing F by reacting and bonding 4 He and 1 H. 9 A method to generate Ne by reactively combining 5 He. 10 A method of generating Na by reacting and bonding one Ne and one H. 11 A method of producing Mg by reactively combining one Ne and one He. 12 A method of generating Al from 1 Ne, 1 He, and 1 H. 13 A method of producing Si by reacting and bonding one Ne and two He. 14 Reactively combine 1 Ne, 2 He, and 1 H to P
How to generate. 15 A method of generating S by reacting and bonding one Ne and three He. 16 Reactively combine 1 Ne with 3 He and 1 H to form C
How to generate l. 17 A method of generating Ar by reacting and bonding 1 Ne and 4 He. 18 A method of producing K by reactively bonding one Ar and one H. 19 A method of generating Ca by reacting and bonding Ar and He one by one. 20 A method of generating Sc by reactively bonding one each of Ar, He, and H. 21 A method of producing Ti by reactively bonding one Ar and two He. 22 By reacting and bonding 1 Ar, 2 He and 1 H, V
How to generate. 23 A method of producing Cr by reacting and bonding one Ar and three He. 24 By reacting and bonding 1 Ar, 3 He and 1 H, M
How to generate n. 25 A method of producing Fe by reactively combining one Ar and four He. 26 By reacting and bonding 1 Ar, 4 He and 1 H, C
How to generate o. 27 A method of producing Ni by reactively bonding one Ar and one Ne. 28 A method of producing Cu by reactively bonding one each of Ar, Ne, and H. 29 Reactively bond one each of Ar, Ne, and He to Zn
How to generate. 30 A method to generate Ga by reacting and bonding a total of four elements, one each of Ar, Ne, He, and H. 31 A method of generating Ga by reacting and bonding Ar and Ne with one He and two He. 32 A method of producing As by reactively combining Ar and Ne, two He, and one H. 33 Reactively combine one each of Ar and Ne with three He to form S
How to generate e. 34 A method of producing Br by reactively bonding one each of Ar and Ne, three He and one H. 35 A method of producing Kr by reactively bonding two Ar. 36 A method of producing Rb by reactively combining one each of Kr and H. 37 A method of producing Sr by reactively combining one each of Kr and He. 38 A method of producing Y by reacting and bonding one each of Kr, He, and H. 39 A method of producing Zr by reactively combining one Kr and two He. 40 Reactively combine 1 Kr, 2 He, and 1 H to form Nb
How to generate. 41 A method of generating Mo by reacting and bonding one Kr and three He. 42 1 Kr, 3 He and 1 H are combined by reaction to form Tc
How to generate. 43 A method of producing Ru by reactively combining one Kr and four He. 44 Rh by reacting and bonding 1 Kr, 4 He, and 1 H
How to generate. 45 A method of generating Pd by reacting and bonding one Kr and one Ne. 46 A method in which one each of Kr, Ne, and H are reactively combined to produce Ag. 47 A method of generating Cd by reactively combining Kr, Ne, and He. 48 A method of producing In by reacting and combining Kr, Ne, He, and H. 49 A method of producing Sn by reactively combining one each of Kr and Ne and two He. 50 A method of producing Sb by reactively combining one each of Kr and Ne, two He and one H. 51 A method of producing Te by reacting and combining one each of Kr and Ne with three He. 52 A method in which I is produced by reactively combining one each of Kr and Ne, three He, and one H. 53 A method of producing Xe by reactively combining one Kr and one Ar. 54 A method in which one each of Xe and H are reactively combined to produce Cs. 55 A method of producing Ba by reactively combining one each of Xe and He. 56 A method of generating La by reacting and bonding one each of Xe, He, and H. 57 A method in which one Xe and two He are reactively combined to produce Ce. 58 1 Xe, 2 He and 1 H are combined to form a Pr
How to generate. 59 A method in which one Xe and three He are reactively combined to generate Nd. 60 Reactively combine 1 Xe, 3 He, and 1 H to create Pm
How to generate. 61 A method in which one Xe and four He are reactively combined to generate Sm. 62 Reactively combine 1 Xe, 4 He, and 1 H to form E
How to generate u. 63 A method in which one Xe and one Ne are reactively combined to generate Gd. 64 Reactively combine 1 Xe, 1 Ne, and 1 H to form Tb
How to generate. 65 Reactively combine 1 Xe, 1 Ne, and 1 He to form Dy
How to generate. 66 A method in which 1 Xe, 1 Ne, 1 He, and 1 H are combined in a reaction to generate Ho. 67 A method of reacting and combining 1 Xe, 1 Ne, and 2 He to generate Er. 68 A method in which one Xe, one Ne, two He, and one H are combined in a reaction to generate Tm. 69 Reactively combine 1 Xe, 1 Ne, and 3 He to form Y
How to generate b. 70 A method in which Lu is produced by reactively combining one each of Xe and Ne, three He, and one H. 71 A method in which one Xe and one Ar are combined in a reaction to generate Hf. 72 Reactively combine 1 Xe, 1 Ar, and 1 H to form Ta
How to generate. 73 Reactively combine 1 Xe, 1 Ar, and 1 He with W
How to generate. 74 A method in which one Xe, one Ar, one He, and one H are combined in a reaction to generate Re. 75 A method in which Os is generated by reactively combining 1 Xe, 1 Ar, and 2 He. 76 A method in which one Xe, one Ar, two He, and one H are combined in a reaction to generate Ir. 77 Reactively combine 1 Xe, 1 Ar, and 3 He to P
How to generate t. 78 A method in which one Xe, one Ar, three He, and one H are combined in a reaction to generate Au. 79 Reactively combine 1 Xe, 1 Ar, and 4 He to form H
How to generate g. 80 A method in which one Xe, one Ar, four He, and one H are combined in a reaction to generate Tl. 81 Reactively combine 1 Xe, 1 Ar, and 1 Ne to P
How to generate b. 82 A method in which 1 Xe, 1 Ar, 1 Ne, and 1 H are combined in a reaction to generate Bi. 83 A method in which one Xe, one Ar, one Ne, and one He are combined in a reaction to generate Po. 84 1 Xe, 1 Ar, 1 Ne, 1 He, and H1
A method of reacting and bonding two to produce At. 85 A method in which one Xe, one Ar, one Ne, and two He are combined to form Rn. 86 A method in which one Rn and one H are reactively combined to produce Fr. 87 A method in which one Rn and one He are reactively combined to generate Ra. 88 Reactively combine 1 Rn, 1 He, and 1 H to Ac
How to generate. 89 A method in which one Xe and one Kr are reactively combined to generate Th. 90 Reactively combine 1 Xe, 1 Kr, and 1 H to form Pa
How to generate. 91 Reactively combine 1 Xe, 1 Kr, and 1 He to form U
How to generate. 92 A method in which one Xe, one Kr, one He, and one H are combined in a reaction to generate Np. 93 Reactively combine 1 Xe, 1 Kr, and 2 He to P
How to generate u. 94 A method in which one Xe, one Kr, two He, and one H are combined to form Am. 95 A method in which one Rn and one Ne are reactively combined to generate Cm. 96 Reactively combine 1 Rn, 1 Ne, and 1 H to form Bk
How to generate. 97 Reactively combine one Rn, one Ne, and one He with C
How to generate f. 98 A method in which one Rn, one Ne, one He, and one H are combined to form Es. 99 Reactively combine one Rn, one Ne, and two He to F
How to generate m. 100 A method in which one Rn, one Ne, two He, and one H are combined to form Md. 101 Reactively combine one Rn, one Ne, and He3 to form N
How to generate o. 102 A method in which one Rn, one Ne, three He, and one H are combined in a reaction to generate Lr. 103 A method of producing certain elements through various reactive combinations or reactive separations of the seven basic elements: H, He, Ne, Ar, Kr, Xe, and Rn. 104 A reaction reactor method consisting of functions for creating magnetic confinement, magnetophoresis, potential, magnetic field, radiation, electric discharge, high pressure, negative pressure, high temperature, low temperature, etc. and adjustment devices for such functions in a reaction coupling or reaction separation device. 105 A reactor device comprising functions for creating magnetic restraint, magnetophoresis, electric potential, magnetic field, radiation, electric discharge, high pressure, negative pressure, high temperature, low temperature, etc., and a regulating device thereof in a reactor according to the method of claim 104. .
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| JP14736185A JPS628100A (en) | 1985-07-04 | 1985-07-04 | Method and device for forming element |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| JP14736185A JPS628100A (en) | 1985-07-04 | 1985-07-04 | Method and device for forming element |
Publications (1)
| Publication Number | Publication Date |
|---|---|
| JPS628100A true JPS628100A (en) | 1987-01-16 |
Family
ID=15428462
Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| JP14736185A Pending JPS628100A (en) | 1985-07-04 | 1985-07-04 | Method and device for forming element |
Country Status (1)
| Country | Link |
|---|---|
| JP (1) | JPS628100A (en) |
Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| US6342433B1 (en) | 1998-02-18 | 2002-01-29 | Canon Kabushiki Kaisha | Composite member its separation method and preparation method of semiconductor substrate by utilization thereof |
-
1985
- 1985-07-04 JP JP14736185A patent/JPS628100A/en active Pending
Cited By (2)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| US6342433B1 (en) | 1998-02-18 | 2002-01-29 | Canon Kabushiki Kaisha | Composite member its separation method and preparation method of semiconductor substrate by utilization thereof |
| US6597039B2 (en) | 1998-02-18 | 2003-07-22 | Canon Kabushiki Kaisha | Composite member, its separation method, and preparation method of semiconductor substrate by utilization thereof |
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