# Table 1: Nanoscience and Technology

Unit of study |
Credit points |
A: Assumed knowledge P: Prerequisites C: Corequisites N: Prohibition |
Session |
---|---|---|---|

## Nanoscience and Technology |
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A major in Nanoscience and Technology requires 24 credit points of study at senior level taken from the following: | |||

- Materials Chemistry (CHEM3112/3912) | |||

- Membranes, Self-Assembly & Surfaces (CHEM3116/3916) | |||

- PHYS3034/3094 and (PHYS3035/3935 OR PHYS3036/3936) | |||

- Mechanics of Solids 2 (MECH3361) | |||

- Materials 2 (MECH3362) | |||

CHEM3112Materials Chemistry |
6 | P (CHEM2401 or CHEM2911 or CHEM2915) and (CHEM2402 or CHEM2912 or CHEM2916) N CHEM3912 |
Semester 1 |

CHEM3912Materials Chemistry (Adv) |
6 | P WAM of 65 or greater and (Credit or better in (CHEM2401 or CHEM2911 or CHEM2915)) and (Credit or better in (CHEM2402 or CHEM2912 or CHEM2916)) N CHEM3112 |
Semester 1 |

CHEM3116Membranes, Self Assembly and Surfaces |
6 | P (CHEM2401 or CHEM2911 or CHEM2915) and (CHEM2402 or CHEM2912 or CHEM2916) N CHEM3916 |
Semester 2 |

CHEM3916Membranes, Self Assembly and Surfaces(Adv) |
6 | P WAM of 65 or greater and (Credit or better in (CHEM2401 or CHEM2911 or CHEM2915)) and (Credit or better in (CHEM2402 or CHEM2912 or CHEM2916)) N CHEM3116 |
Semester 2 |

PHYS3034Quantum, Statistical and Comp Physics |
6 | A (MATH2021 OR MATH2921 OR MATH2061 OR MATH2961 OR MATH2067) P (PHYS2011 OR PHYS2911 OR PHYS2921) AND (PHYS2012 OR PHYS2912 OR PHYS2922) N PHYS3934 or PHYS3039 or PHYS3939 or PHYS3042 or PHYS3942 or PHYS3043 or PHYS3943 or PHYS3044 or PHYS3944 or PHYS3090 or PHYS3990 or PHYS3991 or PHYS3999 or PHYS3099 |
Semester 1 |

PHYS3934Quantum, Statistical and Comp Phys (Adv) |
6 | A (MATH2021 OR MATH2921 OR MATH2061 OR MATH2961 OR MATH2067) P Average of 70 or above in [(PHYS2011 OR PHYS2911 OR PHYS2921) AND (PHYS2012 OR PHYS2912 OR PHYS2922)] N PHYS3034 or PHYS3039 or PHYS3939 or PHYS3042 or PHYS3942 or PHYS3043 or PHYS3943 or PHYS3044 or PHYS3944 or PHYS3090 or PHYS3990 or PHYS3991 or PHYS3999 or PHYS3099 |
Semester 1 |

PHYS3035Electrodynamics and Optics |
6 | A (MATH2021 OR MATH2921 OR MATH2061 OR MATH2961 OR MATH2067) P (PHYS2011 OR PHYS2911 OR PHYS2921) AND (PHYS2012 OR PHYS2912 OR PHYS2922) N PHYS3935 or PHYS3040 or PHYS3940 or PHYS3941 or PHYS3068 or PHYS3968 or PHYS3069 or PHYS3969 or PHYS3080 or PHYS3980 |
Semester 2 |

PHYS3935Electrodynamics and Optics (Advanced) |
6 | A (MATH2021 OR MATH2921 OR MATH2061 OR MATH2961 OR MATH2067) P Average of 70 or above in [(PHYS2011 OR PHYS2911 OR PHYS2921) AND (PHYS2012 OR PHYS2912 OR PHYS2922)] N PHYS3035 or PHYS3040 or PHYS3940 or PHYS3941 or PHYS3068 or PHYS3968 or PHYS3069 or PHYS3969 or PHYS3080 or PHYS3980 |
Semester 2 |

PHYS3036Condensed Matter and Particle Physics |
6 | A Students will need to have some knowledge of special relativity, for example from prior study of PHYS2013 or PHYS2913, or from studying Chapter 12 of Introduction to Electrodynamics by D.J. Griffith. (MATH2021 OR MATH2921 OR MATH2061 OR MATH2961 OR MATH2067) P (PHYS2011 OR PHYS2911 OR PHYS2921) AND (PHYS2012 OR PHYS2912 OR PHYS2922) C PHYS3034 OR PHYS3934 OR [(PHYS3042 OR PHYS3942 OR PHYS3043 OR PHYS3943 OR PHYS3044 OR PHYS3944) AND (PHYS3090 OR PHYS3990 OR PHYS3991)] N PHYS3099 or PHYS3999 or PHYS3936 or PHYS3068 or PHYS3968 or PHYS3069 or PHYS3969 or PHYS3074 or PHYS3974 or PHYS3080 or PHYS3980 |
Semester 1 |

PHYS3936Condensed Matter and Particle Phys (Adv) |
6 | A Students will need to have some knowledge of special relativity, for example from prior study of PHYS2013 or PHYS2913, or from studying Chapter 12 of Introduction to Electrodynamics by D.J. Griffith. (MATH2021 OR MATH2921 OR MATH2061 OR MATH2961 OR MATH2067) P Average of 70 or above in [(PHYS2011 OR PHYS2911 OR PHYS2921) AND (PHYS2012 OR PHYS2912 OR PHYS2922)] C PHYS3034 OR PHYS3934 OR [(PHYS3042 OR PHYS3942 OR PHYS3043 OR PHYS3943 OR PHYS3044 OR PHYS3944) AND (PHYS3090 OR PHYS3990 OR PHYS3991) N PHYS3099 or PHYS3999 or PHYS3036 or PHYS3068 or PHYS3968 or PHYS3069 or PHYS3969 or PHYS3074 or PHYS3974 or PHYS3080 or PHYS3980 |
Semester 1 |

MECH3361Mechanics of Solids 2 |
6 | P AMME2301 AND (AMME1362 OR AMME2302 OR CIVL2110) |
Semester 2 |

MECH3362Materials 2 |
6 | A (1) A good understanding of basic knowledge and principles of material science and engineering from Materials I and mechanics of solids for simple structural elements (in tension, bending, torsion); (2) Reasonable mathematical skills in calculation of stresses and strains in simple structural elements. P AMME2301 AND (AMME2302 OR AMME1362 OR CIVL2110) |
Semester 1 |

### Nanoscience and Technology

A major in Nanoscience and Technology requires 24 credit points of study at senior level taken from the following:

- Materials Chemistry (CHEM3112/3912)

- Membranes, Self-Assembly & Surfaces (CHEM3116/3916)

- PHYS3034/3094 and (PHYS3035/3935 OR PHYS3036/3936)

- Mechanics of Solids 2 (MECH3361)

- Materials 2 (MECH3362)

**CHEM3112 Materials Chemistry**

Credit points: 6 Session: Semester 1 Classes: Two 1-hour lectures per week and two 4-hour practicals per week for half of semester. Prerequisites: (CHEM2401 or CHEM2911 or CHEM2915) and (CHEM2402 or CHEM2912 or CHEM2916) Prohibitions: CHEM3912 Assessment: Assignment, prac reports and oral, final examination (100%) Campus: Camperdown/Darlington, Sydney Mode of delivery: Normal (lecture/lab/tutorial) day

This course concerns the inorganic chemistry of solid-state materials: compounds that possess 'infinite' bonding networks. The extended structure of solid materials gives rise to a wide range of important chemical, mechanical, electrical, magnetic and optical properties. Consequently such materials are of enormous technological significance as well as fundamental curiosity. In this course you will learn how chemistry can be used to design and synthesise novel materials with desirable properties. The course will start with familiar molecules such as C60 and examine their solid states to understand how the nature of chemical bonding changes in the solid state, leading to new properties such as electronic conduction. This will be the basis for a broader examination of how chemistry is related to structure, and how structure is related to properties such as catalytic activity, mechanical strength, magnetism, and superconductivity. The symmetry of solids will be used explain how their structures are classified, how they can transform between related structures when external conditions such as temperature, pressure and electric field are changed, and how this can be exploited in technological applications such as sensors and switches. Key techniques used to characterise solid-state materials will be covered, particularly X-ray diffraction, microscopy, and physical property measurements.

Textbooks

See http://sydney.edu.au/science/chemistry/studying-chemistry/undergraduate/senior-chemistry.shtml

**CHEM3912 Materials Chemistry (Adv)**

Credit points: 6 Session: Semester 1 Classes: Two 1-hour lectures per week, one 1-hour seminar per week, and two 4-hour practicals per week for half of semester. Prerequisites: WAM of 65 or greater and (Credit or better in (CHEM2401 or CHEM2911 or CHEM2915)) and (Credit or better in (CHEM2402 or CHEM2912 or CHEM2916)) Prohibitions: CHEM3112 Assessment: Assignments, prac reports and oral, final examination (100%) Campus: Camperdown/Darlington, Sydney Mode of delivery: Normal (lecture/lab/tutorial) day

This course concerns the inorganic chemistry of solid-state materials: compounds that possess 'infinite' bonding networks. The extended structure of solid materials gives rise to a wide range of important chemical, mechanical, electrical, magnetic and optical properties. Consequently, such materials are of enormous technological significance as well as fundamental curiosity. In this course you will learn how chemistry can be used to design and synthesize novel materials with desirable properties. The course will start with familiar molecules such as C60 and examine their solid states to understand how the nature of chemical bonding changes in the solid state, leading to new properties such as electronic conduction. This will be the basis for a broader examination of how chemistry is related to structure, and how structure is related to properties such as catalytic activity, mechanical strength, magnetism, and superconductivity. The symmetry of solids will be used explain how their structures are classified, how they can transform between related structures when external conditions such as temperature, pressure and electric field are changed, and how this can be exploited in technological applications such as sensors and switches. Key techniques used to characterise solid-state materials will be covered, particularly X-ray diffraction, microscopy, and physical property measurements. CHEM3912 students attend the same lectures as CHEM3112 students, but attend an additional advanced seminar series comprising one lecture a week for 12 weeks.

Textbooks

See http://sydney.edu.au/science/chemistry/studying-chemistry/undergraduate/senior-chemistry.shtml

**CHEM3116 Membranes, Self Assembly and Surfaces**

Credit points: 6 Session: Semester 2 Classes: Two 1-hour lectures per week and two 4-hour practicals per week for half of semester. Prerequisites: (CHEM2401 or CHEM2911 or CHEM2915) and (CHEM2402 or CHEM2912 or CHEM2916) Prohibitions: CHEM3916 Assessment: Assignment, prac reports and oral, final examination (100%) Campus: Camperdown/Darlington, Sydney Mode of delivery: Normal (lecture/lab/tutorial) day

Away from the covalent and ionic interactions that hold molecules and solids together is the world of fragile objects - folded polymers, membranes, surface adsorption and stable molecular aggregates - held together by weak forces such as van der Waals and the hydrophobic effect. The use of molecules rather than atoms as building blocks means that there are an enormous number of possibilities for stable aggregates with interesting chemical, physical and biological properties, many of which still wait to be explored. In this course we will examine the molecular interactions that drive self assembly and the consequences of these interactions in supramolecular assembly, lipid membrane formations and properties, microemulsions, polymer conformation and dynamics and range of fundamental surface properties including adhesion, wetting and colloidal stability.

Textbooks

See http://sydney.edu.au/science/chemistry/studying-chemistry/undergraduate/senior-chemistry.shtml

**CHEM3916 Membranes, Self Assembly and Surfaces(Adv)**

Credit points: 6 Session: Semester 2 Classes: Two 1-hour lectures per week, one 1-hour seminar per week, and two 4-hour practicals per week for half of semester. Prerequisites: WAM of 65 or greater and (Credit or better in (CHEM2401 or CHEM2911 or CHEM2915)) and (Credit or better in (CHEM2402 or CHEM2912 or CHEM2916)) Prohibitions: CHEM3116 Assessment: Assignments, prac reports and oral, final examination (100%) Campus: Camperdown/Darlington, Sydney Mode of delivery: Normal (lecture/lab/tutorial) day

Away from the covalent and ionic interactions that hold molecules and solids together is the world of fragile objects - folded polymers, membranes, surface adsorption and stable molecular aggregates - held together by weak forces such as van der Waals and the hydrophobic effect. The use of molecules rather than atoms as building blocks means that there are an enormous number of possibilities for stable aggregates with interesting chemical, physical and biological properties, many of which still wait to be explored. In this course we examine the molecular interactions that drive self assembly and the consequences of these interactions in supramolecular assembly, lipid membrane formations and properties, microemulsions, polymer conformation and dynamics and range of fundamental surface properties including adhesion, wetting and colloidal stability. CHEM3916 students attend the same lectures as CHEM3916 students, but attend an additional advanced seminar series comprising one lecture a week for 12 weeks.

Textbooks

See http://sydney.edu.au/science/chemistry/studying-chemistry/undergraduate/senior-chemistry.shtml

**PHYS3034 Quantum, Statistical and Comp Physics**

Credit points: 6 Teacher/Coordinator: A/Prof Boris Kuhlmey Session: Semester 1 Classes: Lecture 3h/week, tutorial 1h/week, computational lab 2h/week Prerequisites: (PHYS2011 OR PHYS2911 OR PHYS2921) AND (PHYS2012 OR PHYS2912 OR PHYS2922) Prohibitions: PHYS3934 or PHYS3039 or PHYS3939 or PHYS3042 or PHYS3942 or PHYS3043 or PHYS3943 or PHYS3044 or PHYS3944 or PHYS3090 or PHYS3990 or PHYS3991 or PHYS3999 or PHYS3099 Assumed knowledge: (MATH2021 OR MATH2921 OR MATH2061 OR MATH2961 OR MATH2067) Assessment: 5x in-class quizzes (11%), 7x computer labs (14%), 3x topical assignments (15%), overarching problem assignment (10%), final exam (50%) Campus: Camperdown/Darlington, Sydney Mode of delivery: Normal (lecture/lab/tutorial) day

Quantum statistical physics has revolutionized the world we live in- providing a profound understanding of the microscopic world and driving the technological revolution of the last few decades. Modern physics increasingly relies on solving equations using computational techniques, for modelling anything from the big bang to quantum dot lasers. Building on 2000-level physics, this unit will develop the full formalism for deriving properties of individual atoms and large collections of atoms, and introduce advanced numerical techniques. You will start from Schroedinger's equation and derive the full properties of hydrogen atoms, and systems of particles. You will study perturbation techniques qualitatively, including for the interaction of radiation with atoms. You will study the theoretical foundation of statistical mechanics, including both classical and quantum distributions. You will apply a variety of numerical schemes for solving ordinary and partial differential equations, learn about the suitability of particular methods to particular problems, and their accuracy and stability. The module includes computational lab sessions, in which you will actively solve a range of physics problems. In completing this unit you will gain understanding of the foundations of modern physics and develop skills that will enable you to numerically solve complex problems in physics and beyond.

**PHYS3934 Quantum, Statistical and Comp Phys (Adv)**

Credit points: 6 Teacher/Coordinator: A/Prof Boris Kuhlmey Session: Semester 1 Classes: Lecture 3h/week, tutorial 1h/week, computational lab 2h/week Prerequisites: Average of 70 or above in [(PHYS2011 OR PHYS2911 OR PHYS2921) AND (PHYS2012 OR PHYS2912 OR PHYS2922)] Prohibitions: PHYS3034 or PHYS3039 or PHYS3939 or PHYS3042 or PHYS3942 or PHYS3043 or PHYS3943 or PHYS3044 or PHYS3944 or PHYS3090 or PHYS3990 or PHYS3991 or PHYS3999 or PHYS3099 Assumed knowledge: (MATH2021 OR MATH2921 OR MATH2061 OR MATH2961 OR MATH2067) Assessment: 5x in-class quizzes (11%), 7x computer labs (14%), 3x topical assignments (15%), overarching problem assignment (10%), final exam (50%) Campus: Camperdown/Darlington, Sydney Mode of delivery: Normal (lecture/lab/tutorial) day

Quantum statistical physics has revolutionized the world we live in - providing a profound understanding of the microscopic world and driving the technological revolution of the last few decades. Modern physics increasingly relies on solving equations using computational techniques, for modelling anything from the big bang to quantum dot lasers. The advanced unit covers the same overall concepts as PHYS3034 but with a greater level of challenge and academic rigour, largely in separate lectures. You will study techniques of quantum mechanics to predict the energy-level structure of electrons in atoms, introducing techniques useful in the broad field of quantum physics, with applications e. g. in atomic clocks. You will study the theoretical foundation of statistical mechanics, including both classical and quantum distributions. You will apply a variety of numerical schemes for solving ordinary and partial differential equations, learn about the suitability of particular methods to particular problems, and their accuracy and stability. The module includes computational lab sessions, in which you will actively solve a range of physics problems. In completing this unit you will gain understanding of the foundations of modern physics and develop skills that will enable you to numerically solve complex problems in physics and beyond.

**PHYS3035 Electrodynamics and Optics**

Credit points: 6 Teacher/Coordinator: A/Prof Boris Kuhlmey Session: Semester 2 Classes: Lecture 3h/week, tutorial 1h/week, experimental lab 18h/semester Prerequisites: (PHYS2011 OR PHYS2911 OR PHYS2921) AND (PHYS2012 OR PHYS2912 OR PHYS2922) Prohibitions: PHYS3935 or PHYS3040 or PHYS3940 or PHYS3941 or PHYS3068 or PHYS3968 or PHYS3069 or PHYS3969 or PHYS3080 or PHYS3980 Assumed knowledge: (MATH2021 OR MATH2921 OR MATH2061 OR MATH2961 OR MATH2067) Assessment: quiz x 4 (15%), 2x topical assignments (10%), 1x overarching problem assignment (10%), experimental physics logbook (15%), experimental physics oral presentation (10%), final exam (40%) Campus: Camperdown/Darlington, Sydney Mode of delivery: Normal (lecture/lab/tutorial) day

The development of electrodynamic field theory laid the foundation on which all of modern physics is built, from relativity to quantum field theory. Its application to electromagnetic waves and optics underpins all of modern telecommunications, but also some of the most delicate physics experiments, from gravitational wave detection to quantum computing. This is a core unit in the physics major, which has three components: electrodynamics lectures, optics lectures, and experimental lab. In electrodynamics you will learn to manipulate Maxwell's equations in their differential form. You will apply the formalism to deriving properties of electromagnetic waves, including the interaction of waves with matter through reflection and absorption. This will lead to optics lectures in which you will investigate aspects of modern optics, using the laser to illustrate the topics covered, in combination with a discussion of the basic optical properties of materials, including the Lorentz model. You will investigate spontaneous and stimulated emission of light, laser rate equations, diffraction, Gaussian beam propagation, anisotropic media and nonlinear optics. You will carry out in-depth experimental investigations into key aspects of electrodynamics, optics, as well as other topics in physics, with expert tutoring.

**PHYS3935 Electrodynamics and Optics (Advanced)**

Credit points: 6 Teacher/Coordinator: A/Prof Boris Kuhlmey Session: Semester 2 Classes: Lecture 3h/week, tutorial 1h/week, experimental lab 18h/semester Prerequisites: Average of 70 or above in [(PHYS2011 OR PHYS2911 OR PHYS2921) AND (PHYS2012 OR PHYS2912 OR PHYS2922)] Prohibitions: PHYS3035 or PHYS3040 or PHYS3940 or PHYS3941 or PHYS3068 or PHYS3968 or PHYS3069 or PHYS3969 or PHYS3080 or PHYS3980 Assumed knowledge: (MATH2021 OR MATH2921 OR MATH2061 OR MATH2961 OR MATH2067) Assessment: quiz x 4 (15%), 2x topical assignments (10%), 1x overarching problem assignment (10%), experimental physics logbook (15%), experimental physics oral presentation (10%), final exam (40%) Campus: Camperdown/Darlington, Sydney Mode of delivery: Normal (lecture/lab/tutorial) day

The development of electrodynamic field theory laid the foundation on which all of modern physics is built, from relativity to quantum field theory. Its application to electromagnetic waves and optics underpins all of modern telecommunications, but also some of the most delicate physics experiments, from gravitational wave detection to quantum computing. This is a core unit in the physics major, which has three components: electrodynamics lectures, optics lectures, and experimental lab. The advanced unit covers the same concepts as PHYS3035 but with a greater level of challenge and academic rigour, largely in separate lectures. You will apply Mawell's equations to derive properties of electromagnetic waves, the interaction of waves with matter, waveguides, radiation and Gauge transformations. This will lead to optics lectures in which you will investigate aspects of modern optics, using the laser to illustrate the topics covered, in combination with a discussion of the basic optical properties of materials, including the Lorentz model. You will investigate spontaneous and stimulated emission of light, laser rate equations, diffraction, Gaussian beam propagation, anisotropic media and nonlinear optics. You will design your own in-depth experimental investigations into key aspects of electrodynamics, optics, as well as other topics in physics, with expert tutoring.

**PHYS3036 Condensed Matter and Particle Physics**

Credit points: 6 Teacher/Coordinator: A/Prof Boris Kuhlmey Session: Semester 1 Classes: Lecture 3h/week, tutorial 1h/week, experimental lab 18h/semester Prerequisites: (PHYS2011 OR PHYS2911 OR PHYS2921) AND (PHYS2012 OR PHYS2912 OR PHYS2922) Corequisites: PHYS3034 OR PHYS3934 OR [(PHYS3042 OR PHYS3942 OR PHYS3043 OR PHYS3943 OR PHYS3044 OR PHYS3944) AND (PHYS3090 OR PHYS3990 OR PHYS3991)] Prohibitions: PHYS3099 or PHYS3999 or PHYS3936 or PHYS3068 or PHYS3968 or PHYS3069 or PHYS3969 or PHYS3074 or PHYS3974 or PHYS3080 or PHYS3980 Assumed knowledge: Students will need to have some knowledge of special relativity, for example from prior study of PHYS2013 or PHYS2913, or from studying Chapter 12 of Introduction to Electrodynamics by D.J. Griffith. (MATH2021 OR MATH2921 OR MATH2061 OR MATH2961 OR MATH2067) Assessment: 4x topical assignments (20%), experimental physics logbook (15%), experimental physics report and peer review (10%), final exam (55%) Campus: Camperdown/Darlington, Sydney Mode of delivery: Normal (lecture/lab/tutorial) day

Condensed matter physics is the science behind semiconductors and all modern electronics, while particle physics describes the very fabric of our Universe. Surprisingly these two seemingly separate aspects of physics use in part very similar formalisms. This selective unit in the physics major will provide an introduction to both these fields, complemented with experimental labs. You will study the basic constituents of matter, such as quarks and leptons, examining their fundamental properties and interactions. You will gain understanding of extensions to the currently accepted Standard Model of particle physics, and on the relationships between high energy particle physics, cosmology and the early Universe. You will study condensed matter systems, specifically the physics that underlies the electromagnetic, thermal, and optical properties of solids. You will discuss recent discoveries and new developments in semiconductors, nanostructures, magnetism, and superconductivity. You will learn and apply new experimental and data analysis techniques by carrying out in-depth experimental investigations on selected topics in physics, with expert tutoring. In completing this unit you will gain understanding of the foundations of modern physics and develop skills in experimental physics, measurement, and data analysis.

**PHYS3936 Condensed Matter and Particle Phys (Adv)**

Credit points: 6 Teacher/Coordinator: A/Prof Boris Kuhlmey Session: Semester 1 Classes: Lecture 3h/week, tutorial 1h/week, experimental lab 18h/semester. Prerequisites: Average of 70 or above in [(PHYS2011 OR PHYS2911 OR PHYS2921) AND (PHYS2012 OR PHYS2912 OR PHYS2922)] Corequisites: PHYS3034 OR PHYS3934 OR [(PHYS3042 OR PHYS3942 OR PHYS3043 OR PHYS3943 OR PHYS3044 OR PHYS3944) AND (PHYS3090 OR PHYS3990 OR PHYS3991) Prohibitions: PHYS3099 or PHYS3999 or PHYS3036 or PHYS3068 or PHYS3968 or PHYS3069 or PHYS3969 or PHYS3074 or PHYS3974 or PHYS3080 or PHYS3980 Assumed knowledge: Students will need to have some knowledge of special relativity, for example from prior study of PHYS2013 or PHYS2913, or from studying Chapter 12 of Introduction to Electrodynamics by D.J. Griffith. (MATH2021 OR MATH2921 OR MATH2061 OR MATH2961 OR MATH2067) Assessment: 4x topical assignments (20%), experimental physics logbook (15%), experimental physics report and peer review (10%), final exam (55%) Campus: Camperdown/Darlington, Sydney Mode of delivery: Normal (lecture/lab/tutorial) day

Condensed matter physics is the science behind semiconductors and all modern electronics, while particle physics describes the very fabric of our Universe. Surprisingly these two seemingly separate aspects of physics use in part very similar formalisms. This selective unit in the physics major will provide an introduction to both these fields, complemented with experimental labs. You will study the basic constituents of matter, such as quarks and leptons, examining their fundamental properties and interactions. You will gain understanding of extensions to the currently accepted Standard Model of particle physics, and on the relationships between high energy particle physics, cosmology and the early Universe. You will study condensed matter systems, specifically the physics that underlies the electromagnetic, thermal, and optical properties of solids. You will discuss recent discoveries and new developments in semiconductors, nanostructures, magnetism, and superconductivity. The advanced stream has more open-ended experimental physics projects: You will learn and apply new experimental and data analysis techniques by designing and carrying out in-depth experimental investigations on selected topics in physics, with expert tutoring. In completing this unit you will gain understanding of the foundations of modern physics and develop skills in experimental physics, measurement, and data analysis.

**MECH3361 Mechanics of Solids 2**

Credit points: 6 Teacher/Coordinator: Prof Qing Li Session: Semester 2 Classes: Lectures, Tutorials, Laboratories Prerequisites: AMME2301 AND (AMME1362 OR AMME2302 OR CIVL2110) Assessment: Through semester assessment (50%) and Final Exam (50%) Campus: Camperdown/Darlington, Sydney Mode of delivery: Normal (lecture/lab/tutorial) day

The unit of study aims to: teach the fundamentals of analysing stress and deformation in a solid under complex loading associated with the elemental structures/components in aerospace, mechanical and biomedical engineering; develop the following attributes: understand the fundamental principles of solid mechanics and basic methods for stress and deformation analysis of a solid structure/element in the above mentioned engineering areas; gain the ability to analyse problems in terms of strength and deformation in relation to the design, manufacturing and maintenance of machines, structures, devices and elements in the above mentioned engineering areas.

At the end of this unit students will have a good understanding of the following: applicability of the theories and why so; how and why to do stress analysis; why we need equations of motion/equilibrium; how and why to do strain analysis; why we need compatibility equations; why Hooke's law, why plasticity and how to do elastic and plastic analysis; how and why to do mechanics modelling; how to describe boundary conditions for complex engineering problems; why and how to solve a mechanics model based on a practical problem; why and how to use energy methods for stress and deformation analysis; why and how to do stress concentration analysis and its relation to fracture and service life of a component/structure; how and why to do fundamental plastic deformation analysis; how and why the finite element method is introduced and used for stress and deformation analysis.

The students are expected to develop the ability of solving engineering problems by comprehensively using the skills attained above. The students will get familiar with finite element analysis as a research and analysis tool for various real-life problems.

At the end of this unit students will have a good understanding of the following: applicability of the theories and why so; how and why to do stress analysis; why we need equations of motion/equilibrium; how and why to do strain analysis; why we need compatibility equations; why Hooke's law, why plasticity and how to do elastic and plastic analysis; how and why to do mechanics modelling; how to describe boundary conditions for complex engineering problems; why and how to solve a mechanics model based on a practical problem; why and how to use energy methods for stress and deformation analysis; why and how to do stress concentration analysis and its relation to fracture and service life of a component/structure; how and why to do fundamental plastic deformation analysis; how and why the finite element method is introduced and used for stress and deformation analysis.

The students are expected to develop the ability of solving engineering problems by comprehensively using the skills attained above. The students will get familiar with finite element analysis as a research and analysis tool for various real-life problems.

**MECH3362 Materials 2**

Credit points: 6 Teacher/Coordinator: Dr Li Chang Session: Semester 1 Classes: Lectures, Tutorials, Laboratories Prerequisites: AMME2301 AND (AMME2302 OR AMME1362 OR CIVL2110) Assumed knowledge: (1) A good understanding of basic knowledge and principles of material science and engineering from Materials I and mechanics of solids for simple structural elements (in tension, bending, torsion); (2) Reasonable mathematical skills in calculation of stresses and strains in simple structural elements. Assessment: Through semester assessment (45%) and Final Exam (55%) Campus: Camperdown/Darlington, Sydney Mode of delivery: Normal (lecture/lab/tutorial) day

This unit aims for students to understand the relationship between properties of materials and their microstructures and to improve mechanical design based on knowledge of mechanics and properties of materials.

At the end of this unit students should have the capability to select proper materials for simple engineering design.

Course content will include: short-term and long-term mechanical properties; introductory fracture and fatigue mechanics, dislocations; polymers and polymer composite materials; ceramics and glasses; structure-property relationships; selection of materials in mechanical design.

At the end of this unit students should have the capability to select proper materials for simple engineering design.

Course content will include: short-term and long-term mechanical properties; introductory fracture and fatigue mechanics, dislocations; polymers and polymer composite materials; ceramics and glasses; structure-property relationships; selection of materials in mechanical design.