PHYSICS OF QUANTUM MATTER

PHY3PQM

2021

Credit points: 15

Subject outline

In this subject you will explore fundamental quantum physics and apply it to solve problems involving the electronic and thermal properties of matter. You will further develop concepts in classical and modern physics previously considered in PHY2CLP and PHY2MOD. This subject is one of four such subjects at third year level that together constitute the physics major in the Bachelor of Science.

SchoolMolecular Sciences

Credit points15

Subject Co-ordinatorAlex Schenk

Available to Study Abroad/Exchange StudentsYes

Subject year levelYear Level 3 - UG

Available as ElectiveNo

Learning ActivitiesN/A

Capstone subjectNo

Subject particulars

Subject rules

PrerequisitesMAT2LAL AND MAT2VCA AND PHY2CLP

Co-requisitesN/A

Incompatible subjectsPHY5PQA

Equivalent subjectsN/A

Quota Management StrategyN/A

Quota-conditions or rulesN/A

Special conditionsN/A

Minimum credit point requirementN/A

Assumed knowledgeN/A

Readings

Elements of Quantum Optics

Resource TypePrescribed

Resource RequirementN/A

AuthorMeystre, Pierre, Sargent, Murray

YearN/A

Edition/VolumeN/A

PublisherSpringer Berlin Heidelberg

ISBNN/A

Chapter/article titleN/A

Chapter/issueN/A

URLN/A

Other descriptionN/A

Source locationN/A

Introductory Quantum Optics

Resource TypePrescribed

Resource RequirementN/A

AuthorChristopher Gerry and Peter Knight

YearN/A

Edition/VolumeN/A

PublisherCambridge University Press

ISBNN/A

Chapter/article titleN/A

Chapter/issueN/A

URLN/A

Other descriptionN/A

Source locationN/A

Introduction to the Structure of Matter: A Course in Modern Physics

Resource TypePrescribed

Resource RequirementN/A

AuthorJohn J. Brehm and William J. Mullin

Year1985

Edition/VolumeN/A

PublisherJohn Wiley & Sons

ISBNN/A

Chapter/article titleN/A

Chapter/issueN/A

URLN/A

Other descriptionN/A

Source locationN/A

Career Ready

Career-focusedNo

Work-based learningNo

Self sourced or Uni sourcedN/A

Entire subject or partial subjectN/A

Total hours/days requiredN/A

Location of WBL activity (region)N/A

WBL addtional requirementsN/A

Graduate capabilities & intended learning outcomes

Graduate Capabilities

Intended Learning Outcomes

01. Correctly use the mathematical formalism of quantum mechanics in the context of atomic systems including the use of operators and the Hamiltonian to derive the Schrodinger equation.
02. Appropriately apply the tools of quantum mechanics to predict the fundamental electronic properties of crystalline systems through the application of the tools of quantum mechanics to systems of condensed matter.
03. Use standard technical software to implement computational solutions to problems too complex for analytical mathematical solutions.
04. Design solutions to complex problems in solid state physics integrating diverse aspects of quantum mechanics.

Subject options

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Start date between: and    Key dates

Bendigo, 2021, Semester 1, Day

Overview

Online enrolmentYes

Maximum enrolment sizeN/A

Subject Instance Co-ordinatorRussell Anderson

Class requirements

LectureWeek: 10 - 22
Two 1.00 h lecture per week on weekdays during the day from week 10 to week 22 and delivered via face-to-face.

TutorialWeek: 10 - 22
One 1.00 h tutorial per week on weekdays during the day from week 10 to week 22 and delivered via face-to-face.

WorkShopWeek: 10 - 22
Six 3.00 h workshop per study period on weekdays during the day from week 10 to week 22 and delivered via face-to-face.

Assessments

Assessment elementCommentsCategoryContributionHurdle% ILO*
2-hour end of semester written exam (2000 word equivN/AN/AN/ANo50 SILO1, SILO2
Four written assignments (1800 word equiv) Solutions to short essay questions including mathematical analysis.N/AN/AN/ANo40 SILO1, SILO2, SILO4
One computational assignment (700 word equiv) Marks will be awarded for both the appropriateness of the program design and quality of in-line documentation.N/AN/AN/ANo10 SILO3

Melbourne (Bundoora), 2021, Semester 1, Day

Overview

Online enrolmentYes

Maximum enrolment sizeN/A

Subject Instance Co-ordinatorAlex Schenk

Class requirements

LectureWeek: 10 - 22
Two 1.00 h lecture per week on weekdays during the day from week 10 to week 22 and delivered via face-to-face.

TutorialWeek: 11 - 22
One 1.00 h tutorial per week on weekdays during the day from week 11 to week 22 and delivered via face-to-face.

WorkShopWeek: 10 - 22
Six 3.00 h workshop per study period on weekdays during the day from week 10 to week 22 and delivered via face-to-face.

Assessments

Assessment elementCommentsCategoryContributionHurdle% ILO*
2-hour end of semester written exam (2000 word equivN/AN/AN/ANo50 SILO1, SILO2
Four written assignments (1800 word equiv) Solutions to short essay questions including mathematical analysis.N/AN/AN/ANo40 SILO1, SILO2, SILO4
One computational assignment (700 word equiv) Marks will be awarded for both the appropriateness of the program design and quality of in-line documentation.N/AN/AN/ANo10 SILO3