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Elsevier eBooks

The Wave Mechanics of an Atom with a Non-Coulomb Central Field. Part II. Some Results and Discussion

Douglas Rayner Hartree

Published Jan 1, 1975• 1 citation
Publisher
DOI
10.1016/b978-0-08-017819-6.50028-9

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In two recent papers the writer has given an account of a practical method of finding the characteristic values and functions of Schrödinger's wave equations for a given non-Coulomb central field. For terms of optical spectra the method is effectively the following. We take the wave equation in the form and require the values of ɛ for the solutions which are zero at the origin and at r = ∞. We consider the result of integrating this equation outwards from P = 0 at r = 0 to a radius r0 at which the deviation from a Coulomb field is negligible, and inwards from P = 0 at r = ∞ to the same radius, with a given value of ɛ; the characteristic values are those values for which these two solutions join smoothly on to one another, i.e. for which they have the same value of η = −P′/P at this radius. For a given ɛ, the solution zero at the origin depends on the particular atom; the solution zero at infinity can be expressed in a form independent of any particular atom.

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Study of Dzarrah: Analysis of Wave Functions Potential Non Central Coulombic Rosen Morse

Cecilia Yanuarief

It has been obtained a graph of the wave function of Coulombic's non-central potential Schrodinger equation Rosen Morse which is systematically an embodiment of hydrogen atoms and their isotopes. Schrodinger's equation is solved through variable spatial techniques with each variable resolved using a different method so that the radial and angular part wave functions are visualized by Matlab-based computer programming. Visualization of the radial wave function that is formed describes the probability value of the discovery of electrons which are small parts of an atom, while the visualization of the formed angular wave function shows the movement of electrons in an energy level. The mention of the atom itself is already in the Qur'an, Allah says in surah As-Saba verse 3. According to the interpretation of Quraish Shihab the word dzarrah in Arabic refers to a very small object, the size of an ant's child or fine dust. The phrase mitsqalu dzarrah in this verse means the weight of an atom. This implies the presence of a compound whose specific gravity is lighter than an atom.

•Apr 28, 2019•0 citations
In two recent papers the writer has given an account of a practical method of finding the characteristic values and functions of Schrödinger's wave equations for a given non-Coulomb central field. For terms of optical spectra the method is effectively the following. We take the wave equation in the form and require the values of ɛ for the solutions which are zero at the origin and at r = ∞. We consider the result of integrating this equation outwards from P = 0 at r = 0 to a radius r0 at which the deviation from a Coulomb field is negligible, and inwards from P = 0 at r = ∞ to the same radius, with a given value of ɛ; the characteristic values are those values for which these two solutions join smoothly on to one another, i.e. for which they have the same value of η = −P′/P at this radius. For a given ɛ, the solution zero at the origin depends on the particular atom; the solution zero at infinity can be expressed in a form independent of any particular atom.
It has been obtained a graph of the wave function of Coulombic's non-central potential Schrodinger equation Rosen Morse which is systematically an embodiment of hydrogen atoms and their isotopes. Schrodinger's equation is solved through variable spatial techniques with each variable resolved using a different method so that the radial and angular part wave functions are visualized by Matlab-based computer programming. Visualization of the radial wave function that is formed describes the probability value of the discovery of electrons which are small parts of an atom, while the visualization of the formed angular wave function shows the movement of electrons in an energy level. The mention of the atom itself is already in the Qur'an, Allah says in surah As-Saba verse 3. According to the interpretation of Quraish Shihab the word dzarrah in Arabic refers to a very small object, the size of an ant's child or fine dust. The phrase mitsqalu dzarrah in this verse means the weight of an atom. This implies the presence of a compound whose specific gravity is lighter than an atom.