Course: The Science of the Solar System
Modules:
Introduction to Science of the Solar System, Lecture 1.01: Early views of Mars, Lecture 1.02: Mars has canals!, Lecture 1.03: Taking the temperature of Mars, Lecture 1.04: Mars DOES have water (in the atmosphere)!, Lecture 1.05: Heating and composition of the polar caps, Lecture 1.06: Let's fly to Mars, Lecture 1.07: The first missions to Mars, Lecture 1.08: Water on earth, Lecture 1.09: Mariner 9 -- Mars had FLOWING water!, Lecture 1.10: Viking and the start of modern Martian science
Lecture 1.11: Craters and surface ages, Lecture 1.12: Outflow channels, Lecture 1.13:Valley Networks, Lecture 1.14:  Climate cycles on Mars, Lecture 1.15: Was early Mars warmer and wetter?, Lecture 1.16: Atmospheric escape, Lecture 1.17 Martian topography, Lecture 1.18: Gamma ray spectroscopy and subsurface water, Lecture 1.19: Glaciers on Mars!, Lecture 1.20 Origin of low latitude ice
Lecture 1.21: Evolution of the interior, Lecture 1.22: Thermal spectroscopy and mineral identification, Lecture 1.23: Geology from the Opportunity rover, Lecture 1.24: Geochemistry from the Opportunity rover, Lecture 1.25: Introduction to guest lecturers, Lecture 1.26: Mineralogy on Mars, Part 1, Lecture 1.27: Mineralogy on Mars, Part 2, Lecture 1.28: Results from the Curiosity Rover, Part 1, lecture 1.29: Results from the Curiosity Rover, Part 2, Lecture 1.30: Where was the water on Mars?
Lecture 2.01: Introduction to Jupiter, Lecture 2.02: Measuring density, Lecture 2.03: Using density, Lecture 2.04: Hydrostatic equilibrium, Lecture 2.05: Hydrogen equation of state, Lecture 2.06: Heat transport, Lecture 2.07: Theoretical internal structure, Lecture 2.08: A core from gravity?, Lecture 2.09: Magnetic fields, Lecture 2.10: The upper atmosphere and the Galileo probe, Lecture 2.11: Picture models
Lecture 2.12: Planetesimal formation, Lecture 2.13: Core formation, Lecture 2.14: Core-collapse vs. Disk instability, Lecture 2.15: Saturn and the ice giants, Lecture 2.16: Discovering hot Jupiters, Lecture 2.17: Densities of hot Jupiters, Lecture 2.18: Inflating hot Jupiters, Lecture 2.19: Kepler and the sub-Neptunes, Lecture 2.20: Exoplanet spectroscopy, Lecture 2.21: Juno and future exploration
Lecture 3.01: Introduction to the small bodies, Lecture 3.02: The formation of small bodies, Lecture 3.03: The formation of terrestrial planets, Lecture 3.04: The surface density of the solar system, Lecture 3.05: An ode to comets, Lecture 3.06: The composition of comets, Lecture 3.07: Where do comets come from?, Lecture 3.08: The formation of the Oort cloud, Lecture 3.09: Meteorites and the beginning of the solar system, Lecture 3.10: Types of meteorites: Chondrites, Lecture 3.11: Types of meteorites: Achondrites, Lecture 3.12: Asteroids and meteorite delivery
Lecture 3.13: Asteroid compositions, Lecture 3.14 : Pictures of asteroids, Lecture 3.15: Asteroid hazards, Lecture 3.16: The Kuiper belt, Lecture 3.17: Properties of dwarf planets, Lecture 3.18: Dynamical instabilities, Lecture 3.19:The Grand Tack, Lecture 3.20: Planet Nine, Lecture 3.21: A trip to the Subaru telescope
Lecture 4.01: Introduction to life, Lecture 4.02: Photosynthesis, Lecture 4.03: Water, Lecture 4.04: Alternative energy sources, Lecture 4.05: History of life on Earth, Lecture 4.06: Mars -- The Viking experiement, Lecture 4.07: Mars -- Microbial hitchhikers, Lecture 4.08: Mars -- Methane?, Lecture 4.09: Mars -- Methane!!, Lecture 4.10: Mars -- a habitable environment
Lecture 4.11: Oceans on Europa, Lecture 4.12: Energy on Europa, Lecture 4.13: Exploring Europa, Lecture 4.14:  Enceladus, Lecture 4.15: Introduction to Titan, Lecture 4.16: Weird life on Titan, Lecture 4.17: Habitable zones, Lecture 4.18: Detecting exo-life, Lecture 4.19: Looking around M-dwarfs, Lecture 4.20: A mission to find life in the solar system, Lecture 4.21: All good things must come to an end
Bonus: The formation of the moon, Bonus: What we used to think about Sedna (before we knew about Planet Nine!), Bonus: Seasons on Titan, Bonus: Why Pluto had to die