The final exam will be based primarily on topics covered after spring break (lectures 13 to 21). I have listed below some important topics to study. However, note that this list is not exhaustive, and that the exam may also include a few topics not on this list. LCDM models of galaxy evolution - Hierarchical formation of Spirals and Ellipticals in LCDM models - Successes of LCDM-based models of galaxy evolution - Challenges/Failures of LCDM-based models of galaxy evolution Star formation tracers - Lyman Continuum Photons (Lambda<912 A; far UV) - Hydrogen Recombination Lines (Ly-alpha, Halpha, Pa-alpha, Br-gamma) - Thermal Radio continuum - Non Thermal Radio Continuum - Far-IR continuum - Mid-IR emission Criteria for onset of star formation - Toomre Criterion for gravitional instability. - Application in outer disks - Application in central region of galaxies Star formation law: Schmidt Law. Feedback from star formation and black holes Cosmic SF history and Madau plot Cosmology basics - Redshift: Cosmological redshift vs Doppler Redshift - Lookback time as a function of redshift - Angular Diameter Distance as a function of redshift Galaxy surveys through cosmic time: the empirical approach to galaxy evolution - Important criteria for a powerful galaxy survey - Latest Galaxy Surveys: GEMS, HUDF - What have we learnt from galaxy surveys at different z? Black Holes (BHs) and Galaxy Evolution - Schwarzchild radius and gravitational radius of influence of a BH - How are BH masses measured ? - Supermassive BH at center of Milky Way - Supermassive BHs in external galaxies - Angular momentum problem in fueling BHs - Energy generated by mass accretion onto a BH - Eddington Luminosity - BH Mass vs Bulge vel dispersion relation - Possible reasons for BH Mass vs Bulge vel dispersion relation - Role of AGN feedback on galaxy evolution Scaling Relations in Galaxies -Tully Fisher relation in spirals -Baryonic Tully Fisher relation in spirals -Faber Jackson in Es -Fundamental plane of Es