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  • Produktbild: Optical Properties of Metals and Intermolecular Interactions / Opticheskie Svoistva Metallov / Mezhmolekulyarnoe Vzaimodeistvie / /
  • Produktbild: Optical Properties of Metals and Intermolecular Interactions / Opticheskie Svoistva Metallov / Mezhmolekulyarnoe Vzaimodeistvie / /
Band 55

Optical Properties of Metals and Intermolecular Interactions / Opticheskie Svoistva Metallov / Mezhmolekulyarnoe Vzaimodeistvie / /

Aus der Reihe The Lebedev Physics Institute Series Band 55

48,99 €

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Lieferung nach Hause

Beschreibung

Details

Einband

Taschenbuch

Erscheinungsdatum

30.04.2012

Herausgeber

D. V. Skobel tsyn

Verlag

Springer Us

Seitenzahl

227

Maße (L/B/H)

27,9/21/1,4 cm

Gewicht

596 g

Auflage

1973 edition

Sprache

Englisch

ISBN

978-1-4684-8374-1

Beschreibung

Details

Einband

Taschenbuch

Erscheinungsdatum

30.04.2012

Herausgeber

D. V. Skobel tsyn

Verlag

Springer Us

Seitenzahl

227

Maße (L/B/H)

27,9/21/1,4 cm

Gewicht

596 g

Auflage

1973 edition

Sprache

Englisch

ISBN

978-1-4684-8374-1

Herstelleradresse

Libri GmbH
Europaallee 1
36244 Bad Hersfeld
DE

Email: gpsr@libri.de

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  • Produktbild: Optical Properties of Metals and Intermolecular Interactions / Opticheskie Svoistva Metallov / Mezhmolekulyarnoe Vzaimodeistvie / /
  • Produktbild: Optical Properties of Metals and Intermolecular Interactions / Opticheskie Svoistva Metallov / Mezhmolekulyarnoe Vzaimodeistvie / /
  • Optical Properties of Nontransition Metals.- I. Method of the Kinetic Equation in Metal Optics.-
    1. Kinetic equation for the infrared part of the spectrum.-
    2. Anomalous skin effect.-
    3. Normal skin effect.-
    4. Weakly anomalous skin effect.- II. Effect of the Periodic Potential of the Lattice on the Optical Properties of Metals.-
    1. Use of the pseudopotential concept.-
    2. Effect of one Bragg plane on the energy and velocity of an electron and on the shape of the Fermi surface.-
    3. Influence of the Fourier components of the pseudopotential on N, SF‹VF›, and (dY/dE)F.-
    4. Face-centered cubic lattice.-
    5. Body-centered cubic lattice.-
    6. Cubic lattice of the diamond type.-
    7. Some metals with a tetragonal lattice.-
    8. Interband transitions associated with the Bragg energy splitting, without allowing for relaxation processes.-
    9. Interband transitions associated with the Bragg energy splitting, allowing for relaxation.-
    10. Temperature dependence of the conduction-electron concentration.- III. Measuring Methods and Experimental Apparatus.-
    1. Methods of measuring the optical constants of metals.-
    2. First apparatus.-
    3. Second apparatus.-
    4. Measurements in the visible part of the spectrum.-
    5. Sequence of measurements.-
    6. Characteristics of individual parts of systems 1 and 2.-
    7. Preparation of the mirror layers to be studied.-
    8. Measurement of the static characteristics of the metal layers under examination.- IV. Experimental Results.-
    1. Indium.-
    2. Aluminum.-
    3. Lead.-
    4. Tin.-
    5. Gold.- V. Analysis of the Results of the Measurements in the Long-Wave Part of the Spectral Range Studied.-
    1. Analysis of the experimental values of n and ? in the infrared region for metals with different types of skin effect.-
    2. Application of the foregoing scheme of analyzing the experimental values of n and ? for the weakly anomalous skin effect to the optical constants of the metals studied in the present investigation.-
    3. Results of the analysis of the experimental data in the infrared region.- VI. Analysis of Experimental Results in the Short-Wave Part of the Spectral Range Studied.-
    1. Determination of the Fourier components of pseudopotential from optical measurements.-
    2. Application of the scheme for analyzing the optical constants in the short-wave region to the metals of present interest.-
    3. Indium.-
    4. Aluminum.-
    5. Lead.-
    6. Tin.- VII. Discussion of the Results Obtained.-
    1. Characteristics of the conduction electrons of metals obtained from measurements in the long-wave region.-
    2. Determination of the Fourier components of pseudopotential from optical measurements.-
    3. Shape of the bands of interband conductivity and absolute values of $${{\tilde \sigma }_g}$$.-
    4. Effective collision frequencies of the conduction electrons and electrons taking part in interband transitions.-
    5. Comparison of the values of N obtained from measurements in the long-wave region with those calculated from the Fourier components of the pseudopotential.-
    6. Temperature dependence of the concentration of conduction electrons in metals.-
    7. Area of the Fermi surface and mean velocity of the electrons on the latter.-
    8. Density of states of the electrons on the Fermi surface.-
    9. Temperature dependence of the electron—photon collision frequency.-
    10. Indirect interband transitions of electrons in lead.-
    11. Effect of the periodic lattice potential on the optical properties and Hall constant of gold.- Conclusions.- Literature Cited.- Experimental Studies of Intermolecular Forces by Spectroscopic Methods and the Development of Spectral Apparatus.- I. Study of the Hydrogen Bond by Spectroscopic Methods.-
    1. Determination of the energy of the hydrogen bond by the spectroscopic method.-
    2. Study of the effects of the steric factor.-
    3. Study of the intramolecular hydrogen bond in substances with molecules containing two hydroxyl groups.-
    4. Study of the hydrogen bond near the critical point.-
    5. Role of the hydrogen bond in the broadening of the rotational lines in gas mixtures.-
    6. Study of the true absorption of water in the drop phase (in a water cloud).-
    7. Study of the hydrogen bond in hydrogen halides.- II. Manifestation of Ordinary Intermolecular Interactions — Van der Waals Forces.-
    1. Dependence of the width of the rotational components of the P, R, and Q branches of the methane molecule on the pressure and the nature of the extraneous gas.-
    2. Dependence of the parameters of the infrared absorption bands on viscosity.-
    3. Broadening of the emission lines of thallium atoms by molecular hydrogen.- III. Development of Spectral Apparatus.-
    1. Double-beam automatic infrared spectrophotometer.-
    2. A double-beam vacuum diffraction spectrophotometer for the infrared region.-
    3. Vacuum spectrophotometer for the far infrared part of the spectrum.-
    4. Use of the echelette at large diffraction angles.-
    5. Methods of increasing the linear dispersion of prismatic spectral instruments.- Literature Cited.