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Please note - Swinburne University of Technology

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SPI 209<br />

Physics<br />

10.0 credit points per semester<br />

No. <strong>of</strong> hours per week: five hours for two<br />

semesters<br />

Assessment: practical work, assignments and<br />

examination<br />

A first-year subject taken by students majoring in medical<br />

biophysics and instrumentation.<br />

Subject description<br />

Motion and forces: relativistic kinematics and dynamics,<br />

rotational kinematics and dynamics, gravitation.<br />

Electricity and magnetism: electric fields, DC circuits,<br />

magnetic fields, electromagnetism, AC circuits.<br />

Atomic physics: photoelectric effect, x-rays, Compton effect,<br />

photon-electron interactions, Bohr model, de Broglie matter<br />

3 waves.<br />

n<br />

Nuclear physics: binding energy, nuclear forces, radioactivity,<br />

alpha, beta, gamma decay, nuclear reactions, radiation<br />

detectors.<br />

8 Vibrations, waves and sound.<br />

Optics: optical instruments, interference and diffraction,<br />

polarization, optical communication.<br />

V,<br />

2.<br />

Thermal physics: temperature and heat, gas laws and<br />

thermodynamics.<br />

ID<br />

SPI 210 Introduction to Scientific<br />

Instrumentation<br />

10.0 credit points per semester<br />

No. <strong>of</strong> hours per week: four hours<br />

Instruction: lectures, laboratory work and tutorials<br />

Assessment: examination, workshop reports and<br />

laboratory computer testing<br />

A first-year subject for students majoring in instrumentation.<br />

Subject description<br />

An introdudion to fundamentals <strong>of</strong> digital logic and<br />

applications. Advanced digital circuits. Basic analog electronic<br />

concepts, basic concepts <strong>of</strong> instrumentation and transducers.<br />

AC concepts and circuits, Power supplies. Case studies in<br />

digital and analog electronics.<br />

Textbooks<br />

Isrnail, Rooney and Victor, M. Digital Concepts and Applications,<br />

Philadelphia, PA.: Saunders College Publishing, 1990.<br />

Hazen. Mark E. Fundamentals <strong>of</strong> DC and AC circuits, Philadelphia,<br />

P.A.: Saunders College Publishing, 1990<br />

SPI 224 Introductory Biophysics<br />

5.0 credit points qr semester<br />

No. <strong>of</strong> hours per week: two hours for two<br />

semesters<br />

Assessment: examination, assignments and<br />

laboratory reports<br />

A first-year subject for students majoring in medical<br />

biophysics and instrumentation.<br />

Subject description<br />

Application <strong>of</strong> physics to clinical problems.<br />

Biomechanics: anatomy <strong>of</strong> bones, joints, spinal cord,<br />

kinesiological measurement.<br />

Control systems: homeostasis, feedback in biological systems,<br />

specific application to the endocrine and reproductive<br />

systems.<br />

Bioenergetics: metabolic measurement, food and physical<br />

activity, gastro-intestinal function.<br />

SP3400 Physics 2<br />

10.0 credit points per semester<br />

No. <strong>of</strong> hours per week: four hours for two<br />

semesters<br />

Assessment: examination<br />

A second-year subject for students majoring in computing<br />

and instrumentation.<br />

Subject description<br />

Structure and properties <strong>of</strong> matter.<br />

Classical mechanics: Newton's Laws, the two body problem,<br />

orbital mechanici, vibrations, normal modes, resonance, rigid<br />

body dynamics, angular momentum, inertial tensor, Euler's<br />

equations, Lagrangian formulation <strong>of</strong> classical mechanics,<br />

introduction to statistical mechanics.<br />

Quantum mechanics: statistical interpretation, Schroedinger's<br />

equation - basic solutions, operators, eigenfundions and<br />

eigenvalues. Uncertainty principle, radiation selection rules,<br />

many body quantum mechanics, Pauli exclusion principle,<br />

lasers and holography.<br />

Nuclear physics: nuclear models - liquid drop model, Fermi<br />

gas model, shell model, collective model. Nuclear decay and<br />

nuclear reactions.<br />

Electromagnetism: Maxwell's equations: continuity equation,<br />

scalar and vector ootentials. macroscooic fields. oolarisation.<br />

magnetisation, constitutive .relations. axw well's' iquations in.<br />

'macroscopic form': dielectrics, conductors, boundary<br />

conditions, electromagnetic waves in conducting and non-<br />

conductinq media, reflection and transmission. cavities and<br />

waveguid&., sources <strong>of</strong> radiation.<br />

Optics: wave theory <strong>of</strong> light, scalar wave approximation,<br />

Kirch<strong>of</strong>f diffraction integral. Fresnel and Fraunh<strong>of</strong>fer<br />

diffraction patterns. Absorption, scattering and dispersion <strong>of</strong><br />

light. Electromagnetic waves. Selected topics from modern<br />

optics.<br />

Solid state physics: Sommerfield theory <strong>of</strong> electronic<br />

behaviour in crystals. Kronig-Penny model, band theory, PN<br />

junctions.<br />

~~3409 Physics 3-4<br />

10.0 credit points per semester<br />

No. <strong>of</strong> hours per week: four hours for two<br />

semesters<br />

Assessment: examination<br />

A second-year subject for students majoring in medical<br />

biophysics and instrumentation.<br />

Subject description<br />

Structure and properties <strong>of</strong> matter.<br />

Classical mechanics: Newton's Laws, the two body problem,<br />

orbital mechanics, vibrations, normal modes, resonance, rigid<br />

body dynamics, angular momentum, inertial tensor, Euler's<br />

equations, Lagrangian formulation <strong>of</strong> classical mechanics,<br />

introduction to statistical mechanics.<br />

Quantum mechanics: statistical interpretation, Schroedinger's<br />

equation - basic solutions, operators, eigenfunctions and<br />

eigenvalues. Uncertainty principle, radiation selection rules,<br />

many body quantum mechanics. Pauli exclusion principle,<br />

lasers and holography.<br />

Nuclear physics: nuclear models - liquid drop model, Fermi<br />

gas model, shell model, collective model. Nuclear decay and<br />

nuclear reactions.<br />

Electromagnetism: Maxwell's equations: continuity equation,<br />

scalar and vector potentials, macroscopic fields, polarisation.<br />

magnetisation, constitutive relations. Maxwell's equations in<br />

'macroscopic form': dielectrics, conductors, boundary

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