Fundamentals and Applications of Coordination Chemistry | Book Publisher International

Coordination chemistry is currently a center of interest due to the study of the active sites of metalloproteins and metalloenzymes, their applications in catalysis and the emergence of new electronic components.

 

That’s why we have been interested for several years in the synthesis of new complexes of transition metals and lanthanides. These complexes can be mono, homo and heterobinuclear. The ligands used are organic compounds, generally Schiff bases, mainly having oxygen, nitrogen and sulfur as donor atoms. These ligands have the possibility of encapsulating one or more metal ions, and/or of forming polynuclear complexes with interactions between the different metal centers so as to generate new properties.

 

To study these complexes it was first necessary to go through the chemical bonds, then give the different geometries of compounds encountered, then review the coordination complexes finally use crystal field theory, spectroscopic terms and magnetism of the complexes. Several applications have been given to illustrate the fundamental principles developed.

 

Author (s) Details

Moussa DIENG
Chemistry Department, UFR Applied Sciences and Information and Communication Technologies, Alioune Diop University, BP 30 Bambey, Senegal.

 

Please see the book here:- https://doi.org/10.9734/bpi/mono/978-93-48388-67-4

The Emergence of Spin Magnetic Moment of Electron Inside a Photon | Chapter 4 | Current Perspective to Physical Science Research Vol. 3

 The purpose concerning this work is to explain the viability of a basically novel approach to the definition of the spin drawing moment of the power.  In contrast to previous formulations of the spin drawing moment that elucidated the interaction of the energized matter with the material vacuum, it is showed in this study that the Bohr magneton, that makes up the most of the moment, is a characteristic of photons.A "transfer" of the attractive moment from the photon to the arising electron-positron pair happens when a photon decays into an electron and positron. This is corresponding, for example, to the "transfer" of the spin from a photon to the arising electron and positron pair. The supposed radiative correction to the basic component of the electron spin drawing moment is again demonstrated in this place work, and it can be determined from the magnetic importance of virtual photons that the power generated in the real vacuum. The characteristics of virtual photons were comparable to those of photons performing the diffusion of the electromagnetic oscillations as well.

Author(s) Details:

Liudmila B. Boldyreva,
State University of Management, Moscow, Russia.

Please see the link here: https://stm.bookpi.org/CPPSR-V3/article/view/12584

Theory of Compressible Oscillating Ether| Book Publisher International

 In the monograph, an endeavor is made to prove the presence of the world etheric medium, from the situations of which the fundamental regulations and conditions of old style hypothetical physical science, the conditions of rudimentary primary units of issue, the essential properties of nuclear cores and molecules of synthetic components, are completely numerically determined. Such an ethereal medium, not just completing all cooperations of material articles, yet in addition producing the whole material world, ought to, as it ended up, be a compressible, universally stationary, yet locally swaying medium. Estimations made by the recipes given in the monograph, with an exactness of parts of a percent, harmonized with the trial information in any event, for such actual amounts, the upsides of which are thought of "irregular" according to the perspective of current actual science in view of the hypothesis of relativity and quantum mechanics.

The book is planned for specialists, graduate understudies, senior understudies and everybody keen on the issues of the construction of the universe and questioning in the legitimacy of the advanced actual image of the world.

Author(s) Details:

N. A. Magnitskii,
Federal Research Center “Computer Science and Control”, Russian Academy of Sciences, Russia.

Please see the link here: https://stm.bookpi.org/TOCOE/issue/view/775

With 'Gill's Electronic Theory of Magnetism 1964' | Book Publisher International

 Discussion of the merits of Gill's electronic theory of magnetism (1964) over Maxwell's dipole theory of magnetism (1873) in Chapter 1. The asymmetry problem is resolved and Faraday's iron ring experiment from 1831 is once again explained. The cross-products of Henrik Lorentz 1893 are not necessary for any computations; merely dot-products can be used instead.

Meissner experiment from 1933 is revisited in Chapter 2. According to "Gill's electronic theory of magnetism 1964," when a magnet is cooled, the magnetic force/flux can only be discharged laterally from the magnet's two ends. The temperature-dependent phases of magnetization are a product of Pierre Curies' high temperature experiments and the extremely cold Meissner experiment.

Chapter 3: Bullet train physics in might be clarified and made more practical.

Chapter 4: The Sun's Message In order to decrease the usage of petroleum products, it is time to double the mild electrical energy that already reaches the Earth through the "coil effect" as described in 1859.

Chapter 5: "Gill's electronic theory of magnetism 1964" is used to determine "Hypothesis non-fingo 1713." Mathematical explanations are provided for why objects lose mass with height to become satellites and why the pendulum accelerates most near the Earth's magnetic poles and least at its equator.

As stated in the "Message from the SUN" essay, we must harness a tremendous quantity of solar electric energy via the "coil effect" in order to satisfy our planet's needs.

With "Gill's electronic theory of magnetism 1964," bullet train physics is made simpler, more practical, and easier to operate satellites.

Maxwell's dipole theory of magnetism from 1873 should be replaced with Gill's electronic theory of magnetism from 1964. The computations in all the relevant chapters can be completed using only dot products. No need for the cross products from 1893 by Henrik Lorentz.

Author(s) Details:

Avtar Singh Gill MD,
Maimonides Medical Center, Brooklyn, New York,USA.

View Book: https://stm.bookpi.org/WGETM/article/view/7200

Faraday’s Iron Ring Experiment 1831’ Explained Better with ‘Gill’s Electronic Theory of Magnetism after 1964| Chapter 5 | Innovations in Science and Technology Vol.8

Why should 'Gill's electronic theory of magnetism 1964' and its dot product equations be used instead of 'Maxwell's dipole theory of magnetism 1873' and its cross-product equations?

With the help of 'Gill's electronic theory of magnetism 1964,' the following topics linked to Maxwell's equations will be revisited and explained:

With the help of 'Gill's electronic theory of magnetism 1964,' Faraday's law of induction [1] will be explained, and Faraday's iron ring experiment of 1831 will take us to the workings of a transformer.

'Gill's electronic theory of magnetism 1964' will be integrated with Ampere's law and Ampere's right-hand rule.

'Gill's electronic theory of magnetism 1964' will replace magnetic Gauss' law.

The law of electric Gauss will be changed.

'Gill's electronic theory of magnetism 1964' demonstrates how the magnetic force has longitudinal, positive, and negative torque components, as well as how the opposing forces from two ends of a magnet entwine to form a single magnetic force B.

The electron (-e) based negative force and the proton (+e) based positive force will be combined to form the electrical force E.

It will be discussed and computed how a copper wire in the centre of an electric coil can create an enhanced electron (-e) based electric current that rotates around the central axis of the coil (Coil effect)n and should be used as a renewable energy source derived from the SUN.

Finally, it will be demonstrated that the travelling force as a wave is a combination of the negative electron (-e) dependant force and the positive proton (+e) dependant force as they entwine while heading for each other, rather than a combination of the electrical and electromagnetic (or magnetic) forces.

Author(s) Details:

Avtar Singh Gill,
Maimonides Medical Center, Brooklyn, New York, Malaysia.

Please see the link here: https://stm.bookpi.org/IST-V8/article/view/6246