Caltech - The Science of the Solar System
- Offered byCoursera
The Science of the Solar System at Coursera Overview
Duration | 30 hours |
Start from | Start Now |
Total fee | Free |
Mode of learning | Online |
Official Website | Explore Free Course |
Credential | Certificate |
The Science of the Solar System at Coursera Highlights
- 25% got a tangible career benefit from this course.
- Earn a shareable certificate upon completion.
The Science of the Solar System at Coursera Course details
- Learn about the science behind the current exploration of the solar system in this free class. Use principles from physics, chemistry, biology, and geology to understand the latest from Mars, comprehend the outer solar system, ponder planets outside our solar system, and search for habitability in our neighborhood and beyond. This course is generally taught at an advanced level assuming a prior knowledge of undergraduate math and physics, but the majority of the concepts and lectures can be understood without these prerequisites. The quizzes and final exam are designed to make you think critically about the material you have learned rather than to simply make you memorize facts. The class is expected to be challenging but rewarding.
The Science of the Solar System at Coursera Curriculum
Unit 1: Water on Mars (week 1)
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
Note on the next lecture
Quiz 1
Unit 1: Water on Mars (week 2)
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
Quiz 2
Unit 1: Water on Mars (week 3)
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?
Note on the next lectures
Quiz 3
Unit 2: The insides of giant planets (week 1)
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
Note on the next section
Quiz 4
Unit 2: The insides of giant planets (week 2)
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
Quiz 5
Unit 3: Big questions from small bodies (week 1)
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
Quiz 6
Unit 3: Big questions from small bodies (week 2)
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
Quiz 7
Unit 4: Life in the solar system (week 1)
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
Quiz 8
Unit 4: Life in the solar system and beyond (week 2)
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
Quiz 9
Final exam
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
Bonus material
Final exam