Murthy’s Interpretation
on Different Types of Scattering
All interactions in nature are field interactions. Charged
particles in nature, due to their very nature of charge, have an electric field
around them. As they move in space the field around the charged particle
changes. The change in the electric field results in magnetic field, as the magnetic
field is a symbiotic and conjoined twin of the changing electric field, except
that the electric field and the magnetic field change in orthogonal
relationship with each other. When the electric charge moves along a path or
locus, the electric charge field increases from zero from its front, which is the
direction of its movement, to a peak and reduce to zero at its tail point.
Being orthogonal to the electric field, the magnetic field is zero when and at
the point of the peak of the electric field, and goes to a peak when and at the
same point when the electric field has gone from peak to zero. It is a push –
pull relationship between the electric and magnetic fields.
This relationship explanation is true not only to the
moving electric charge, and also to the light transmission. However, the
charges particle may move much slower than the speed of light. If and when a
charged particle moved faster and faster approaching the speed of light and
ultimately reach the limit, it would have transformed into light.
The electron in an atom, orbiting around the nucleus,
can gain a quantum of energy as it interacts with a ray of light incident on
it. This quantum of energy results in an increased momentum in the electron.
With this increased quantum of energy, in its resulting increased momentum pushes
it to the higher orbit or a higher state of energy. It is important to
understand that the interaction between the electromagnetic form of light and
the electron is a field interaction. In this particular case, the field
interaction happens at the intra-atomic scale or inside the atom. The light and
the electron “do not touch each other”.
The different forms of scattering are only a result of
this basic and fundamental field interaction. The different scattering and
effects of light matter interactions are all effects of the light – electron interaction.
Based on what the electron is doing in an atom, molecule, in solid, liquid, gas
and their combinations in the matter the light - electron field interactions
vary, and especially the quantum of energy donated by the light to the electron
vary. For example, in a molecule made up of multiple atoms, the energy bond
between the atoms is created by a shared electron between them. The shared
electron has field relationship with the multiple atoms’ nucleus and the other
non-shared electrons. The field relationship of the shared electron in its extended
combined multiple atom family results in this energy bond. The quantum of
energy required to alter this bond relationship status quo depends on the
different atomic and molecular configuration in the matter, be it a solid,
liquid or gas; be it a multi-phase like a colloidal mixture; be it a chain of molecules
like a polymeric chain; be it a crystal; be it a metal; be it a nanowire or
nano dot. It also depends on the temperature and pressure. The various
semicolon separated I have given in the preceding sentence are only few of many
possibilities. When the appropriate quantum of energy is donated by the
incident light to the electron in this example, not only the electron receives
this specific quantum of energy, the increased energy may have effect not only
on the electron, but also its extended family relationship with other
electrons, nuclei, the different atoms in the molecule, and also other
molecules in the multiple molecules chain bigger family; the response and the
result of the original light – electron field interaction is not only by the
electron, but the whole extended family or even the bigger family of multiple
entangled molecules. Not only the electron is entangled with in its atom host,
it is entangled with other atoms sharing this electron, and the extended entanglement
with the molecule or bigger family of multiple molecules.
Depending on the actual details of the primary,
secondary and tertiary entanglement, different effects were discovered by
various scientists in the last two to three centuries. The list of effects is
very long. Therefore, I am listing only few here in this document, but will
extend this list in the next few days.
Importance of KRS Murthy’s Contribution
While many discoveries have been made for the
interaction of light with matter in different forms, and respective discoveries
interpreted by various other scientists, further test variations and resulting corollary
discoveries presented, none of the scientists have provided a unified approach
to the large list of discoveries, from the basics of field interactions and the
basic and fundamental interactions between the electron and incident
electromagnetic radiation, like light, and the full spectrum of electromagnetic
radiation.
My interpretation is that in all of nature all
scattering and related effects, in all forms of matter, including the multi-phase,
arise from the basic and fundamental nature of field interactions between the
fundamental and elementary particles in the nature.
- Rayleigh
Scattering
- Raman
Scattering
- Mei
Scattering
- Tyndall
Scattering
- Brillouin
Scattering
- Dynamic
and Static Scattering
- Elastic
and Inelastic Scattering
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