ADVANCED ELECTRODYNAMICS

PHY5EPA

2020

Credit points: 15

Subject outline

In this subject you will explore advanced electrodynamics theory and applications and solve research related problems. The concepts and theory related to electrodynamics and plasma physics will be developed in a rigorous manner using the mathematics of vector analysis. Topics that you will encounter include electrostatics, magnetostatics, electromagnetic fields in a medium, Maxwell's equations, electromagnetic waves, and electromagnetic radiation. This subject is available to postgraduate students as part of a group of electives that deepen your knowledge of physics and introduce research-related skills.

School: Molecular Sciences (Pre 2022)

Credit points: 15

Subject Co-ordinator: Andrew McDonald

Available to Study Abroad/Exchange Students: Yes

Subject year level: Year Level 5 - Masters

Available as Elective: No

Learning Activities: N/A

Capstone subject: No

Subject particulars

Subject rules

Prerequisites: Must be admitted in one of the following courses: SMNT or PSMSC or SZHSMN

Co-requisites: N/A

Incompatible subjects: PHY3EPP

Equivalent subjects: N/A

Quota Management Strategy: N/A

Quota-conditions or rules: N/A

Special conditions: N/A

Minimum credit point requirement: N/A

Assumed knowledge: N/A

Learning resources

Introduction to Electrodynamics

Resource Type: Book

Resource Requirement: Prescribed

Author: Griffiths, D. J.

Year: 2013

Edition/Volume: 4th ed

Publisher: Pearson

ISBN: N/A

Chapter/article title: N/A

Chapter/issue: N/A

URL: N/A

Other description: N/A

Source location: N/A

Classical Electrodynamics

Resource Type: Book

Resource Requirement: Recommended

Author: Jackson, J. D.

Year: 1998

Edition/Volume: 3rd ed

Publisher: Wiley

ISBN: N/A

Chapter/article title: N/A

Chapter/issue: N/A

URL: N/A

Other description: N/A

Source location: N/A

Introduction to Plasma Physics and Controlled Fusion

Resource Type: Book

Resource Requirement: Recommended

Author: Chen, F. F.

Year: 1984

Edition/Volume: N/A

Publisher: Plenum Press

ISBN: N/A

Chapter/article title: N/A

Chapter/issue: N/A

URL: N/A

Other description: N/A

Source location: N/A

Career Ready

Career-focused: No

Work-based learning: No

Self sourced or Uni sourced: N/A

Entire subject or partial subject: N/A

Total hours/days required: N/A

Location of WBL activity (region): N/A

WBL addtional requirements: N/A

Graduate capabilities & intended learning outcomes

Graduate Capabilities

Intended Learning Outcomes

01. Visualise and analyse conceptual and mathematical problems related to electrostatics, magnetostatics and behaviour of dielectric materials, electrodynamics and plasma physics.
02. Structure and write solutions to problems, which draw on the theories of electrodynamics and plasma physics to concisely and professionally communicate important results.
03. Analyse and solve a research problem related to electrodynamics.
04. Use standard technical software to implement computational solutions to problems too complex for analytical mathematical solutions.

Melbourne (Bundoora), 2020, Semester 2, Day

Overview

Online enrolment: Yes

Maximum enrolment size: N/A

Subject Instance Co-ordinator: Andrew McDonald

Class requirements

LectureWeek: 31 - 43
One 2.00 hours lecture per week on weekdays during the day from week 31 to week 43 and delivered via face-to-face.

TutorialWeek: 31 - 43
One 1.00 hour tutorial per week on weekdays during the day from week 31 to week 43 and delivered via face-to-face.

WorkShopWeek: 32 - 43
Six 3.00 hours workshop per study period on weekdays during the day from week 32 to week 43 and delivered via blended.

Assessments

Assessment elementCommentsCategoryContributionHurdle%ILO*

One 2-hour end of semester exam (2,000-words equivalent)

N/AN/AN/ANo40SILO1, SILO2

Five individual written assignments (2,500-words, total)Solutions to short essay questions comprising both analytical and numerical (computational) solutions.

N/AN/AN/ANo40SILO1, SILO2

One written report on a research problem (2,000-words)

N/AN/AN/ANo20SILO3, SILO4