QUASAR ABSORPTION LINES
Volume 2 Lecture Slides
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Volume 2 treats the theory and analysis of absorption lines, including the physics of atomic transitions, gas and ionization physics, the cosmological model, radiative transfer, spectrograph design, analysis of spectra, and multi-component, multiphase chemical-ionization modeling. Pragmatic approaches to conducting and assessing absorber counts in large absorption line surveys is presented. Throughout, objective analysis methods are emphasized and presented for clarity of practical application.
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Lecture slides are being added as they are created. I am starting with Volume 2 and will then proceed to Volume 1.
SOME LECTURE SLIDES FOR VOLUME 2 ARE CURRENTLY AVAILABLE (see below)
A Note to Students/Learners
The lecture slides provide abridged versions of the chapter content. They are designed to be useful as personal study guides and supplements to the book chapters. Think of them as the TL;DR for each chapter.
A Note to Instructors
The lecture slides should be suitable for 30-45 minute lectures. Each focuses on the main takeaways from each chapter, skipping the larger portion of the derivations and minor points.
PART4: IONS AND PHOTONS IN THE COSMOS
Chapter 20 Review Questions
Topics: Bohr and Schrödinger models, dipole selection rules, Dirac spinors, fine structure, QED corrections, Lamb shift, Grotrian diagrams, isotope shifts, hyperfine structure, continuum states
Topics: Bohr and Schrödinger models, dipole selection rules, Dirac spinors, fine structure, QED corrections, Lamb shift, Grotrian diagrams, isotope shifts, hyperfine structure, continuum states
Chapter 21 Review Questions
Topics: Einstein coefficients, oscillator strengths, radial overlap integrals, fine structure oscillator strengths, the hydrogen spectrum, natural line broadening function, emission power, bound-bound absorption cross sections, bound-free absorption cross sections
Topics: Einstein coefficients, oscillator strengths, radial overlap integrals, fine structure oscillator strengths, the hydrogen spectrum, natural line broadening function, emission power, bound-bound absorption cross sections, bound-free absorption cross sections
Chapter 22 Review Questions
Topics: Hartree-Fock method, Hund’s rule, Pauli Exclusion principle, Lande interval, L-S coupling, Russell-Saunders symbols, j-j coupling, fine structure oscillator strengths, term-averaged transitions, fine-structure selection rules
Topics: Hartree-Fock method, Hund’s rule, Pauli Exclusion principle, Lande interval, L-S coupling, Russell-Saunders symbols, j-j coupling, fine structure oscillator strengths, term-averaged transitions, fine-structure selection rules
Chapter 23 Review Questions
Topics: Ground state Russell-Saunders symbols, periodic table, iso-electronic sequences, ionization potentials, groups of elements, Group 1A Alkali metals, lithium-like and sodium-like ions, Grotrian diagrams, common quasar absorption line transitions
Topics: Ground state Russell-Saunders symbols, periodic table, iso-electronic sequences, ionization potentials, groups of elements, Group 1A Alkali metals, lithium-like and sodium-like ions, Grotrian diagrams, common quasar absorption line transitions
Chapter 24 Review Questions
Topics: Robertson-Walker metric, expansion parameter, Friedmann equations, Einstein field equations, Hubble parameter, Hubble–Lemaître Law, cosmological parameters, Einstein-de Sitter cosmology, LCDM cosmology, evolution of cosmological parameters
Topics: Robertson-Walker metric, expansion parameter, Friedmann equations, Einstein field equations, Hubble parameter, Hubble–Lemaître Law, cosmological parameters, Einstein-de Sitter cosmology, LCDM cosmology, evolution of cosmological parameters
Chapter 25 Review Questions
Topics: Cosmological redshift, redshift-expansion dynamics, cosmic time-redshift relation, cosmic distances and transverse separations, proper coordinates, co-moving coordinates, angular diameter distance, gravitational lenses, redshift path density, peculiar and recession velocities
Topics: Cosmological redshift, redshift-expansion dynamics, cosmic time-redshift relation, cosmic distances and transverse separations, proper coordinates, co-moving coordinates, angular diameter distance, gravitational lenses, redshift path density, peculiar and recession velocities
Chapter 26 Review Questions
Topics: Specific intensity, solid angle, observed flux, equation of radiative transfer, optical depth, mean free path, cosmic intervening absorbers, partial covering, column density, absorption cross section
Topics: Specific intensity, solid angle, observed flux, equation of radiative transfer, optical depth, mean free path, cosmic intervening absorbers, partial covering, column density, absorption cross section
PART 5: ANALYZING QUASAR SPECTRA
Chapter 27 Review Questions
Topics: spectrograph design, grating equation, blaze function, long slit spectrographs, echelle spectrographs, spectral resolution, line spread function, flux to counts, flux calibration, integrated field spectroscopy
Topics: spectrograph design, grating equation, blaze function, long slit spectrographs, echelle spectrographs, spectral resolution, line spread function, flux to counts, flux calibration, integrated field spectroscopy
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PART 6: MODELING ABSORBERS
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Volume 1: Introduction, Discoveries, and Methods Order @ Cambridge University Press | Amazon
Volume 2: Astrophysics, Analysis, and Modeling Order @ Cambridge University Press | Amazon
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