INTRODUCTION TO NUMERICAL HYDRODYNAMICS AND RADIATIVE TRANSFER

 

PhD/Master course,  10 hsp

 

Start: November 3rd, 2009 at 10:15

 

 

Teachers: Nikolai Piskunov & Susanne Höfner,  Dept. of Physics and Astronomy

 

email: Nikolai.Piskunov-at-fysast.uu.se, Susanne.Hoefner-at-fysast.uu.se

 

 

 

Goals: Get a consistent picture of radiative energy transfer through complex dynamical media using as examples typical astrophysical environment (stars, stellar winds etc.), learn numerical methods and approximations, understand the advantages and limitations of different techniques. Students will also obtain the experience in using advanced programs and state-of-the-art computers.

 

 

Structure: The course consists of 2 parts: radiative transfer and hydrodynamics. Each part will include lectures and a small number of not-too-simple exercises.

 

 

Grading: In order to complete the course students would have to attend most of the lectures, do the home work and successfully complete the exercises. This will result in 10 points.

 

 

Schedule: We hope to finish all the lectures before mid January. The initial part that includes background material, refreshing of the relevant math and numerical methods and it will be very intense: 2 lectures per week on Tuesdays and Fridays.

  

RADIATIVE TRANSFER (Lecture notes and exercises)

 

Lecture 1 (Tuesday November 3rd) Total Recall. Radiation and Math, Part 1

Lecture 2 (Friday November 6th) Total Recall. Math, Part 2  (home work #1)

Lecture 3 (Tuesday November 10th) Microphysics of the radiative transfer

Lecture 4 (Friday November 13th) Intensity, chemistry and opacity

Lecture 5 (Tuesday November 17th) Formal solvers of the RT equation  (home work #3 can be found here)

Lecture 6 (Tuesday November 24th) Self-consistency of the RT solutions THIS LECTURE WILL START AT 14:15!

Lecture 7 (Tuesday December 1st) Time-dependent Radiative Transfer in multi-dimensions THIS LECTURE WILL START AT 9:15!

 

NUMERICAL HYDRODYNAMICS (Lecture Notes and Exercises)

 

 

NUMERICAL HYDRODYNAMICS (Lecture Notes and Exercises from 2007)