Course Catalog 2014-2015
Basic

Basic Pori International Postgraduate Open University

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Course Catalog 2014-2015

FYS-4096 Computational Physics, 5 cr

Additional information

Suitable for postgraduate studies

Person responsible

Jaakko Akola

Lessons

Study type P1 P2 P3 P4 Summer Implementations Lecture times and places
Lectures
Excercises


 


 
 24 h/per
 24 h/week
+12 h/per
+12 h/week


 
FYS-4096 2014-01 Wednesday 10 - 12 , SG312
Monday 14 - 15 , SJ212A

Requirements

No final exam. Weekly exercise assignments.

Learning Outcomes

The students will gain basic knowledge in computational physics which will enable them to continue research projects on more specific themes. The students have to be able to perform numerical work independently, analyse the results critically, and visualise them in an appropriate manner.

Content

Content Core content Complementary knowledge Specialist knowledge
1. Classical mechanics  Projectile motion Pendulum and chaos Electrostatic fields Wave motion   
2. Random phenomena  Random numbers Monte Carlo methods Ising model Diffusion   
3. Quantum mechanics  Time-independent and time-dependent Schrödinger equations   

Instructions for students on how to achieve the learning outcomes

The only way to learn the topics of the course is to do the (compulsory) weekly exercises.

Assessment scale:

Numerical evaluation scale (1-5) will be used on the course

Study material

Type Name Author ISBN URL Edition, availability, ... Examination material Language
Book   Computational Physics   Giordano and Nakanishi         No    Suomi  
Book   Monte Carlo Methods   Newman and Barkema         No    Suomi  

Prerequisite relations (Requires logging in to POP)



Correspondence of content

Course Corresponds course  Description 
FYS-4096 Computational Physics, 5 cr FYS-4090 Computational Physics, 5 cr  

More precise information per implementation

Implementation Description Methods of instruction Implementation
FYS-4096 2014-01 Course introduces computational (numerical) approaches for solving physical problems. The contents include projectile motion, celestial mechanics, pendulum and chaos, fields, waves, random systems, Monte Carlo simulations (Ising model) and solving quantum mechanical problems (Schrödinger equation). The course comprises 12 individual exercises for each week and there will be no final exam.       Contact teaching: 50 %
Distance learning: 0 %
Self-directed learning: 50 %  

Last modified15.12.2014