Fundamentals of Spectroscopy the complete guide

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About Course

Fundamentals of Spectroscopy.

Spectroscopy is the study of the interaction of light (electromagnetic radiation) with matter. Electromagnetic radiation covers a wide range of frequencies from gamma rays to radio frequencies. Depending on the frequency of radiation interacting with the matter, one can have different forms of spectroscopy.

These spectroscopic techniques allow us to monitor the structural properties of matter. For example, information on the moment of inertia (and hence bond length) can be obtained from the rotational spectrum. Similarly, the vibrational spectrum provides information on the force constant, i.e.

the strength of a chemical bond. Besides providing information on molecular structure, spectroscopic techniques can also be used for quantitative estimation of a substance making spectroscopy an important analytical tool. Further, a spectroscopic transition is characterized by a definite timescale and this can provide information on molecular dynamics. In this course, the fundamental principles of the different forms of spectroscopy will be elaborated in a unified way from both theoretical and experimental viewpoints.

The application of these different spectroscopic methods for the elucidation of molecular structure will also be discussed. The structural and dynamic aspects of spectroscopic are fundamental to physics, chemistry, and biology. Thus, this course will provide a thorough conceptual understanding of these branches of science.

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What Will You Learn?

  • Week 1: Interaction between Light and Matter
  • Week 2: Different Forms of Spectroscopy
  • Week 3: Rotational Spectroscopy
  • Week 4: Rotational Spectroscopy
  • Week 5: Vibrational Spectroscopy
  • Week 6: Vibrational Spectroscopy
  • Week 7: Raman Spectroscopy
  • Week 8: Raman Spectroscopy
  • Week 9: Electronic Spectroscopy
  • Week 10: Electronic Spectroscopy
  • Week 11: Electronic Spectroscopy
  • Week 12: Combination of different spectroscopic methods to solve complex problems

Course Content

Fundamentals of Spectroscopy

  • mod12lec61-Electronic Spectroscopy – 5
    00:00
  • Resonance Spectroscopy – Introduction 1
    00:00
  • Polarization Effects and Numericals
    00:00
  • Vibrational Raman Spectroscopy
    00:00
  • Raman Activity of Vibrations
    00:00
  • Polarizability and Polarizability Ellipsoid
    00:00
  • Nuclear Spin Statistics
    00:00
  • Rotational Raman Spectroscopy
    00:00
  • Quantum theory of Raman effect
    00:00
  • Introduction to Raman Spectroscopy
    00:00
  • Normal Mode Coordinates
    00:00
  • Vibration of Polyatomic Molecules III
    00:00
  • Vibration of Polyatomic Molecules III
    00:00
  • Vibration of Polyatomic Molecules II
    00:00
  • Resonance Spectroscopy – Introduction 2
    00:00
  • mod10lec47-NMR Spectroscopy – 1
    00:00
  • mod12lec60-Electronic Spectroscopy – 4
    00:00
  • mod12lec59-Electronic Spectroscopy – 3
    00:00
  • mod12lec58-Electronic Spectroscopy – 2
    00:00
  • mod12lec57-Electronic Spectroscopy – 1
    00:00
  • mod11lec56-ESR Spectroscopy – 4
    00:00
  • mod11lec55-ESR Spectroscopy – 3
    00:00
  • mod11lec54-ESR Spectroscopy – 2
    00:00
  • mod11lec53-ESR Spectroscopy – 1
    00:00
  • mod11lec52-NMR Spectroscopy – 6
    00:00
  • mod10lec51-NMR Spectroscopy – 5
    00:00
  • mod10lec50-NMR Spectroscopy – 4
    00:00
  • mod10lec49-NMR Spectroscopy – 3
    00:00
  • mod10lec48-NMR Spectroscopy – 2
    00:00
  • Vibration of Polyatomic Molecules I
    00:00
  • Ro-vibrational Spectrum – III
    00:00
  • Vibration of a Diatomic Molecule and Derivation of the Vibrational Selection Rule
    00:00
  • Selection Rules & Rotational Spectrum
    00:00
  • Diatomic Rigid Rotor
    00:00
  • Correspondence between Linear Motion and Rotational Motion
    00:00
  • Spectroscopic Timescales
    00:00
  • Different Forms of Spectroscopy
    00:00
  • Lineshape Analysis
    00:00
  • Comparision between Chemical Reactions and Spectroscopic Transitions
    00:00
  • Intensity of a Transtion Depends on the Transition Dipole Moment – II
    00:00
  • Intensity of a Transtion Depends on the Transition Dipole Moment – I
    00:00
  • Spectroscopic Transitions
    00:00
  • A Simple Quantum Mechanical System: Particle in a one Dimensional Box
    00:00
  • Introduction to Quantum Mechanics – II
    00:00
  • Introduction to Quantum Mechanics – I
    00:00
  • Isotope effect
    00:00
  • Degeneracy
    00:00
  • Harmonic Oscillator Eigenvalues and Eigenfunctions – II
    00:00
  • Harmonic Oscillator Eigenvalues and Eigenfunctions – I
    00:00
  • Ro-vibrational Spectrum – II
    00:00
  • Ro-vibrational Spectrum – I
    00:00
  • Effects of Anharmonicity
    00:00
  • Anharmonicity
    00:00
  • Selection Rules
    00:00
  • Energy Levels
    00:00
  • Simple Harmonic Oscillator
    00:00
  • Origin of the Rotational Selection Rule
    00:00
  • Polyatomic Molecules II and Numericals
    00:00
  • Polyatomic Molecules I
    00:00
  • Non Rigid Rotor
    00:00
  • Introduction to Spectroscopy
    00:00

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