Course Identification

Planetary formation and interior structure
20192212

Lecturers and Teaching Assistants

Prof. Morris Podolak, Prof. Oded Aharonson
Dr. Eran Vos

Course Schedule and Location

2019
Second Semester
Tuesday, 09:15 - 11:00, Sussman, Magaritz Rm
Thursday, 09:15 - 11:00, Sussman, Magaritz Rm
26/03/2019

Field of Study, Course Type and Credit Points

Chemical Sciences: Lecture; Elective; Core; 4.00 points

Comments

N/A

Prerequisites

No

Restrictions

30

Language of Instruction

English

Attendance and participation

Obligatory

Grade Type

Numerical (out of 100)

Grade Breakdown (in %)

10%
50%
40%

Evaluation Type

Examination

Scheduled date 1

01/08/2019
FGS, Rm C
1000-1300
N/A

Scheduled date 2

14/08/2019
FGS, Rm B
1000-1300
N/A

Estimated Weekly Independent Workload (in hours)

3

Syllabus

Planetary Formation and Interior Structure

Description

This course will present the physical ideas underlying models of planetary interiors.  We will use these ideas to understand current views of the structure and composition of solar system planets.  This will provide a framework for setting up a theory of planet formation in a protoplanetary disk.  We will then consider some exoplanets as tests of the aforementioned theory.

The course will consist of two lectures a week. Students will be required to complete biweekly assignments, and a final exam.

Instructors

Prof. Morris Podolak (TAU)

Prof. Oded Aharonson (WIS)

Syllabus

  1. How do we infer the structure and composition of planets?
    1. Equations of planetary structure
    2. Equations of state
      1. Experimental techniques for measuring the equation of state
      2. Theoretical techniques
        1. Elasticity theory, elastic constants, finite strain equation of state
        2. Thermal contribution, Einstein model, Debye model, adiabat, melting
        3. Non-ideal gases, virial coefficients, van der Waals gas
        4. High pressure equations of state, Wigner-Seitz model, Thomas Fermi model
  2. How do we fit the model to observational parameters?
    1. Gravitational and rotational potential
    2. Practical example - constant density disk
    3. Rotating bodies
      1. Claraut's equation
      2. Radau approximation
      3. Mulitpole representation of the gravity field
  3. Heat transport
    1. Conductive solutions to the heat transport equation
    2. Radiative heat transport
      1. Opacities, Mie scattering
      2. Equation of radiative transport
    3. Convective heat transport
  4. Current state of planetary models - results and difficulties.
  5. Protoplanetary disks
    1. Minimum mass nebula
    2. Basic disk structure
    3. Spectral energy distribution
    4. Stability
  6. Planet formation
    1. Grain motion in the gas
    2. Grain growth
    3. Pebbles
    4. Gravitational focusing, Safronov parameter
    5. Runaway accretion
    6. Giant planet formation
    7. Migration
  7.  How does this fit with observations of exoplanets?

 

 

Learning Outcomes

Students completing this course will have an understanding of the fundamental aspects of plane formation and the physical principles governing their interior structures.

Reading List

N/A

Website