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Overview

In this subject, you will explore two of the most important concepts in modern physics; special relativity and quantum mechanics. Special relativity considers the consequences of Einstein's postulates of the finite speed of light and its' constancy in different frames of reference including simultaneity, mass-energy equivalence (E = mc^2), causality … For more content click the Read more button below.

Portfolio

Office of the Provost

School

Computing, Engineering and Mathematical Sciences

Subject coordinator

Andrew McDonald

Subject type

Undergraduate

Year level

Year Level 2 - UG

AQF level

Level 6 - Advanced Diploma

Available as elective

No

Available to study abroad / exchange students

Yes

Capstone subject

No

Academic progress review - Schedule A subject

No

Subject instances

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Learning resources

Prescribed - Book - Modern Physics

Career ready

Work based learning (placement):No

Graduate capabilities

DISCIPLINE KNOWLEDGE AND SKILLS
INQUIRY AND ANALYSIS - Creativity and Innovation
INQUIRY AND ANALYSIS - Critical Thinking and Problem Solving
INQUIRY AND ANALYSIS - Research and Evidence-Based Inquiry
PERSONAL AND PROFESSIONAL - Adaptability and Self-Management
PERSONAL AND PROFESSIONAL - Ethical and Social Responsibility
PERSONAL AND PROFESSIONAL - Leadership and Teamwork

Subject intended learning outcomes

On successful completion you will be able to:
1.
Predict the outcomes of observations of systems moving at speeds approaching the speed of light using the framework of special relativity.
2.
Analyse quantum mechanical systems, whose length scales approach that of the hydrogen atom to determine their mechanical properties and consider how they differ from those described by classical theory.
3.
Verify the relationships described in the theoretical section of the subject through performing detailed experiments.
4.
Describe and explain, in appropriate written and verbal style, the findings from laboratory experiments performed by the student. Answer verbal queries about the findings as presented in the context of modern physics.
5.
Communicate key findings from experimental investigations in the form of a detailed written report.