The Analogy between Radicles and Elements

THE remarkable chemical analogy of the ammonium radicle and the alkali metals may be explained with the help of Bohr's theory of atomic structure. According to Bohr, the atom of nitrogen consists of a nucleus with a positive charge of 7 e , surrounded by two rings of electrons, the inner contai...

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Veröffentlicht in:Nature (London) 1915-08, Vol.95 (2391), p.701-701
1. Verfasser: BUCHNER, E. H.
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description THE remarkable chemical analogy of the ammonium radicle and the alkali metals may be explained with the help of Bohr's theory of atomic structure. According to Bohr, the atom of nitrogen consists of a nucleus with a positive charge of 7 e , surrounded by two rings of electrons, the inner containing 4, the outer 3 electrons. N is, therefore, represented by 7 (4, 3). Ordinary chemical compounds are supposed to be held together by rings of electrons rotating in planes perpendicular to the lines connecting the nuclei of the composing atoms; so that NH 3 may be represented by (4, 3—3). This principle leads, however, to difficulties, if applied to NH 4 ; a configuration (4, 3—4) seems impossible. It is better to suppose the nuclei and electrons to rearrange themselves within the atom. I assume, therefore, that the nuclei unite, or at least that they get quite close to each other, in the centre of the system, while the electrons arrange themselves in four rings (4, 4, 2, 1), rotating round the joined nuclei. It may seem difficult to bring the nuclei together against the repelling forces, but it must be remembered that the radicle NH 4 can only be formed by indirect methods; in no circumstances will ammonia and hydrogen unite to form NH 4 . The co-operation of another molecule containing hydrogen, like H 2 O, HCl, is absolutely necessary, an intermediate compound first being formed, from which the ammoniumion is produced by electrolytic dissociation. Once liberated, the ammonium decomposes immediately; it is extremely unstable, exactly conforming to our expectations. It is also important to remark in this connection, that, according to Coehn, electric charges are given off during the decomposition.
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H.</creator><creatorcontrib>BUCHNER, E. H.</creatorcontrib><description>THE remarkable chemical analogy of the ammonium radicle and the alkali metals may be explained with the help of Bohr's theory of atomic structure. According to Bohr, the atom of nitrogen consists of a nucleus with a positive charge of 7 e , surrounded by two rings of electrons, the inner containing 4, the outer 3 electrons. N is, therefore, represented by 7 (4, 3). Ordinary chemical compounds are supposed to be held together by rings of electrons rotating in planes perpendicular to the lines connecting the nuclei of the composing atoms; so that NH 3 may be represented by (4, 3—3). This principle leads, however, to difficulties, if applied to NH 4 ; a configuration (4, 3—4) seems impossible. It is better to suppose the nuclei and electrons to rearrange themselves within the atom. I assume, therefore, that the nuclei unite, or at least that they get quite close to each other, in the centre of the system, while the electrons arrange themselves in four rings (4, 4, 2, 1), rotating round the joined nuclei. It may seem difficult to bring the nuclei together against the repelling forces, but it must be remembered that the radicle NH 4 can only be formed by indirect methods; in no circumstances will ammonia and hydrogen unite to form NH 4 . The co-operation of another molecule containing hydrogen, like H 2 O, HCl, is absolutely necessary, an intermediate compound first being formed, from which the ammoniumion is produced by electrolytic dissociation. Once liberated, the ammonium decomposes immediately; it is extremely unstable, exactly conforming to our expectations. 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H.</creatorcontrib><title>The Analogy between Radicles and Elements</title><title>Nature (London)</title><addtitle>Nature</addtitle><description>THE remarkable chemical analogy of the ammonium radicle and the alkali metals may be explained with the help of Bohr's theory of atomic structure. According to Bohr, the atom of nitrogen consists of a nucleus with a positive charge of 7 e , surrounded by two rings of electrons, the inner containing 4, the outer 3 electrons. N is, therefore, represented by 7 (4, 3). Ordinary chemical compounds are supposed to be held together by rings of electrons rotating in planes perpendicular to the lines connecting the nuclei of the composing atoms; so that NH 3 may be represented by (4, 3—3). This principle leads, however, to difficulties, if applied to NH 4 ; a configuration (4, 3—4) seems impossible. It is better to suppose the nuclei and electrons to rearrange themselves within the atom. I assume, therefore, that the nuclei unite, or at least that they get quite close to each other, in the centre of the system, while the electrons arrange themselves in four rings (4, 4, 2, 1), rotating round the joined nuclei. It may seem difficult to bring the nuclei together against the repelling forces, but it must be remembered that the radicle NH 4 can only be formed by indirect methods; in no circumstances will ammonia and hydrogen unite to form NH 4 . The co-operation of another molecule containing hydrogen, like H 2 O, HCl, is absolutely necessary, an intermediate compound first being formed, from which the ammoniumion is produced by electrolytic dissociation. Once liberated, the ammonium decomposes immediately; it is extremely unstable, exactly conforming to our expectations. 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H.</au><format>journal</format><genre>article</genre><ristype>JOUR</ristype><atitle>The Analogy between Radicles and Elements</atitle><jtitle>Nature (London)</jtitle><stitle>Nature</stitle><date>1915-08-26</date><risdate>1915</risdate><volume>95</volume><issue>2391</issue><spage>701</spage><epage>701</epage><pages>701-701</pages><issn>0028-0836</issn><eissn>1476-4687</eissn><abstract>THE remarkable chemical analogy of the ammonium radicle and the alkali metals may be explained with the help of Bohr's theory of atomic structure. According to Bohr, the atom of nitrogen consists of a nucleus with a positive charge of 7 e , surrounded by two rings of electrons, the inner containing 4, the outer 3 electrons. N is, therefore, represented by 7 (4, 3). Ordinary chemical compounds are supposed to be held together by rings of electrons rotating in planes perpendicular to the lines connecting the nuclei of the composing atoms; so that NH 3 may be represented by (4, 3—3). This principle leads, however, to difficulties, if applied to NH 4 ; a configuration (4, 3—4) seems impossible. It is better to suppose the nuclei and electrons to rearrange themselves within the atom. I assume, therefore, that the nuclei unite, or at least that they get quite close to each other, in the centre of the system, while the electrons arrange themselves in four rings (4, 4, 2, 1), rotating round the joined nuclei. It may seem difficult to bring the nuclei together against the repelling forces, but it must be remembered that the radicle NH 4 can only be formed by indirect methods; in no circumstances will ammonia and hydrogen unite to form NH 4 . The co-operation of another molecule containing hydrogen, like H 2 O, HCl, is absolutely necessary, an intermediate compound first being formed, from which the ammoniumion is produced by electrolytic dissociation. Once liberated, the ammonium decomposes immediately; it is extremely unstable, exactly conforming to our expectations. 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title The Analogy between Radicles and Elements
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