Electron phenomenological spectroscopy

Electron phenomenological spectroscopy (EPS) is based on the correlations between integral optical characteristics and properties of substance as a single whole quantum continuum: spectrum-properties and color-properties. According to these laws the physicochemical properties of substance solutions in ultraviolet (UV), visible light and near infrared (IR) regions of the electromagnetic spectrum are in proportion to the quantity of radiation absorbed. Such aspects of electron spectroscopy have been shown in the works of Mikhail Yu Dolomatov and has been named electron phenomenological spectroscopy because the integral characteristics of the system are studied. Qualitatively, new laws appear on the integral level. Unlike conventional spectroscopic methods, the EPS studies substances as a comprehensive quantum continuum without separating the spectrum of the substance into characteristic spectral bands on certain frequencies or wavelengths of individual functional groups or components.

New physical phenomena appear in consideration of the integral systems which absorb radiation. For example, EPS is based on the regularities of the correlation of physico-chemical properties and integral spectral characteristics for UV or (and) visible regions of the electromagnetic spectrum (so-called law spectrum-properties). Color is also an integral characteristic of a visible spectrum. Therefore, the consequence of this is so-called law color-properties.[1][2][3][4] All this allow the use of EPS methods for studying individual and complex multicomponent substances.

Methods of EPS were developed after 1988 by the group of Mikhail Yu Dolomatov.[5][6][7][8][9][10]

The EPS methods belong to number of new effective techniques of monitoring and control and can be used in petroleum and petrochemical industries,[11][12] environmental monitoring, electronics,[13][14] biophysics, medicine, criminalistics, space exploration and other fields.

## References

1. ↑ Dolomatov, M. Yu; Yarmukhametova, G. U. (May 2008). "Correlation of color characteristics with Conradson carbon residue and molecular weight of complex hydrocarbon media". Journal of Applied Spectroscopy 75 (3): 433–438. doi:10.1007/s10812-008-9064-z. Bibcode: 2008JApSp..75..433D.
2. ↑ Dolomatov, M. Yu.; Yarmukhametova, G. U. (July 2009). "Determining the mean molecular mass for crude oil and oil residues from color characteristics". Chemistry and Technology of Fuels and Oils 45 (4): 288–293. doi:10.1007/s10553-009-0139-1.
3. ↑ Kalashchenko, N. V. (March 2006). "Normal and pathological color characteristics of human blood components". Journal of Applied Spectroscopy 73 (2): 245–250. doi:10.1007/s10812-006-0065-5. Bibcode: 2006JApSp..73..245K.
4. ↑ "Fenomen of paramagnetic shift of color characteristics in multicomponent hydrocarbon systems". International Journal of Theoretical and Applied Physics. June 2013. http://www.ascent-journals.com/ijtap_contents_Vol3No1.html.
5. ↑ Dolomatov, M. Yu.; Domatov, L. V. (April 1988). "Rapid determination of carbon residue of heavy products from thermal breakdown". Chemistry and Technology of Fuels and Oils 24 (4): 180–181. doi:10.1007/BF00725196.
6. ↑ Dolomatov, M. Yu.; Khashper, L. M.; Kuz'Mina, Z. F. (July 1991). "Spectroscopic method for determination of the average molecular weight". Chemistry and Technology of Fuels and Oils 27 (7): 401–403. doi:10.1007/BF00725388.
7. ↑ Dolomatov, M. Yu.; Kuz'Mina, Z. F.; Lomakin, S. P.; Khashper, L. M. (September 1991). "Rapid determination of relative density of petroleum fractions". Chemistry and Technology of Fuels and Oils 27 (9): 518–519. doi:10.1007/BF00718802. .
8. ↑ Dolomatov, M. Yu.; Amirova, S. I.; Kuz'Mina, Z. F.; Lomakin, S. P. (October 1991). "Determination of the coking capacity of mixtures of high-molecular-weight organic compounds". Chemistry and Technology of Fuels and Oils 27 (10): 580–582. doi:10.1007/BF00724546.
9. ↑ Dolomatov, M. Yu. (January 1995). "Application of electronic phenomenological spectroscopy in the identification and investigation of complex organic systems". Chemistry and Technology of Fuels and Oils 31: 42–47. doi:10.1007/BF00727664.
10. ↑ Mukaeva, G. R. (May–June 1998). "Spectroscopic control of the properties of organic substances and materials by the property-absorption coefficient correlations". Journal of Applied Spectroscopy 65 (3): 456–458. doi:10.1007/BF02675469. Bibcode: 1998JApSp..65..456M.
11. ↑ Dolomatov, M. Yu.; Shulyakovskaya, D. O. (April 2013). "Determination of Physicochemical Properties of Multicomponent Hydrocarbon Systems Based on Integral Characteristics of Electronic Absorption Spectra". Chemistry and Technology of Fuels and Oils 49 (2): 175–179. doi:10.1007/s10553-013-0428-6.
12. ↑ Dolomatov, M. Yu.; Shulyakovskaya, D. O.; Yarmukhametova, G. U.; Mukaeva, G. R. (June 2013). "Evaluation of physico-chemical properties of hydrocarbon systems based on spectrum-property and color-property correlations". Chemistry and Technology of Fuels and Oils 49 (3): 273–280. doi:10.1007/s10553-013-0441-9.
13. ↑ Dolomatov, Mikhail Yurievich; Shulyakovskaya, Darya Olegovna; Mukaeva, Guzel Ragipovna; Paymurzina, Natalya Khalitovna (August 2012). "Testing amorphous, multi-component, organic dielectrics according to their electronic spectrums and color characteristics". Applied Physics Research 4 (3). doi:10.5539/apr.v4n3p83. http://www.ccsenet.org/journal/index.php/apr/article/view/16342.
14. ↑ "Simple definition methods of electron structures of materials and molecules for nanoelectronics". Nanotech Europe 2009. September 2009. http://www.nanotech.net/content/conference/abstract-submission/simple-definition-methods-electron-structures-materials-and-m.

* v
* t
* e

Spectroscopy

Vibrational|

* FT-IR
* Raman
* Resonance Raman
* Rotational
* Rotational–vibrational
* Vibrational
* Vibrational circular dichroism

UV–Vis–NIR|

* Ultraviolet–visible
* Fluorescence
* Vibronic
* Near-infrared
* Resonance-enhanced multiphoton ionization (REMPI)
* Raman optical activity spectroscopy
* Raman spectroscopy
* Laser-induced

X-ray and
photoelectron|

* Energy-dispersive X-ray spectroscopy
* Photoelectron
* Atomic
* Emission
* X-ray photoelectron spectroscopy
* EXAFS

Nucleon|

* Gamma
* Mössbauer

Radiowave|

* NMR
* Terahertz
* ESR/EPR
* Ferromagnetic resonance

Others|

* Acoustic resonance spectroscopy
* Auger spectroscopy
* Astronomical spectroscopy
* Cavity ring-down spectroscopy
* Circular dichroism spectroscopy
* Coherent anti-Stokes Raman spectroscopy
* Cold vapour atomic fluorescence spectroscopy
* Conversion electron Mössbauer spectroscopy
* Correlation spectroscopy
* Deep-level transient spectroscopy
* Dual-polarization interferometry
* Electron phenomenological spectroscopy
* EPR spectroscopy
* Force spectroscopy
* Fourier-transform spectroscopy
* Glow-discharge optical emission spectroscopy
* Hadron spectroscopy
* Hyperspectral imaging
* Inelastic electron tunneling spectroscopy
* Inelastic neutron scattering
* Laser-induced breakdown spectroscopy
* Mössbauer spectroscopy
* Neutron spin echo
* Photoacoustic spectroscopy
* Photoemission spectroscopy
* Photothermal spectroscopy
* Pump–probe spectroscopy
* Saturated spectroscopy
* Scanning tunneling spectroscopy
* Spectrophotometry
* Time-resolved spectroscopy
* Time-stretch
* Thermal infrared spectroscopy
* Video spectroscopy
* Vibrational spectroscopy of linear molecules

0.00

(0 votes)

Original source: https://en.wikipedia.org/wiki/Electron phenomenological spectroscopy. Read more

|

Retrieved from "https://handwiki.org/wiki/index.php?title=Physics:Electron_phenomenological_spectroscopy&oldid=404264"
*[v]: View this template
*[t]: Discuss this template
*[e]: Edit this template