Faculty of Mathematic Handbook,1987 - University of Newcastle
Faculty of Mathematic Handbook,1987 - University of Newcastle
Faculty of Mathematic Handbook,1987 - University of Newcastle
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Text<br />
References<br />
Hale. J.K.<br />
Hirsch. M.W. &<br />
Smale, S.<br />
Marsden, J.E. &<br />
McCracken, M.<br />
Nayfeh, A.H. & Mook, D.T.<br />
Stoker, I.I.<br />
Nil<br />
664192 Fluid Statistical Mechanics - C.A. Croxton<br />
Prerequisite<br />
Hours<br />
Examination<br />
Content<br />
Ordinary Differential Equations (Wiley 1969)<br />
Differential Equations, Dynamical Systems and<br />
Linear Algebra (Academic 1974)<br />
The Hopf Bifurcation and its Applications<br />
(Springer-Verlag 1976)<br />
Nonlinear Oscillations (Wiley 1979)<br />
Nonlinear Vibrations (Wiley 1950)<br />
Nil<br />
About 27 lecture hours<br />
One 2-hour paper<br />
Cluster-diagrammatic expansions - low density solutions: integrodifferential equations<br />
(BOY. HNe, PY) - high density solutions; quantum liquids - Wu-Feenburg fermion<br />
extension; numerical solution <strong>of</strong> integral equations; phase transitions - diagrammatic<br />
approach; critical phenomena; the liquid surface; liquid metals; liquid crystals; molecular<br />
dynamics and Monte Carlo computer simulation; irreversibility; transport phenomena.<br />
Polymeric systems.<br />
Text<br />
Croxton, C.A.<br />
References<br />
Croxton, C.A.<br />
664120 Quantum Mechanics - C.A. Croxton<br />
Prerequisite Nil<br />
Hours About 27 lecture hours<br />
Examination<br />
Content<br />
Introduction to Liquid State Physics (Wiley 1975)<br />
Liquid State Physics - A Statistical Mechanical<br />
Introduction (Cambridge 1974)<br />
One 2-hour paper<br />
Operators; Scbrodinger equation; one dimensional motion; parity; harmonic oscillator;<br />
angular momentum; central potential; eigenfunction; spin and statistics; Rutherford<br />
scattering; scattering theory phase shift analysis; nucleon-nucleon interaction; spindependent<br />
interaction; operators and state vectors; Schrodinger equations <strong>of</strong> motion;<br />
Heisenberg equation <strong>of</strong> motion. Quantum molecular orbitals; hybridization; LCAO<br />
theory; MO theory.<br />
Texts<br />
Croxton, C.A.<br />
Matthews, P.T.<br />
664153 Algebraic Graph Theory - R.B. Eggleton<br />
Prerequisite<br />
Hours<br />
Examination<br />
Introductory Eigenphysics (Wiley 1974)<br />
Introduction to Qantum Mechanics (McGraw Hill 196r<br />
Topic D<br />
About 27 lecture hours<br />
One 2-hour paper<br />
80<br />
Content<br />
The adjacency matrix <strong>of</strong> a graph. Path lengths, shortest paths in a graph. Spectrum <strong>of</strong> a<br />
graph. Regular graphs and line graphs. Homology <strong>of</strong> graphs. Spanning trees.<br />
Complexity <strong>of</strong> a graph. The determinant <strong>of</strong> the adjacency matrix. Automorphisms <strong>of</strong><br />
graphs. Vertex transitive graphs. The course will then continue with a selection from the<br />
following topics, as time permits. Symmetric graphs, with attention to the trivalent case.<br />
Covering graph <strong>of</strong> a graph. Distance-transitive graph. Realisability <strong>of</strong> intersection arrays.<br />
Primitivity and imprimitivity. Minimal regular graphs <strong>of</strong> given girth. Vertex colourings<br />
and the chromatic polynomial.<br />
Text<br />
Biggs, N.<br />
References<br />
Bondy, J.A. &<br />
Murty. U.S.R.<br />
Harary, F.<br />
Lancaster, P.<br />
Wilson, R.J.<br />
Algebraic Graph Theory (Cambridge 1974)<br />
664173 <strong>Mathematic</strong>al Problem Solving - R.B. Eggleton<br />
Prerequisite<br />
Hours<br />
Examination<br />
Content<br />
Graph Theory with Applications corrected edn<br />
(Macmillan 1977)<br />
Graph Theory (Addison-Wesley 1969)<br />
Theory <strong>of</strong> Matrices (Academic 1969)<br />
Introduction to Graph Theory (Longman 1972)<br />
Topic 0<br />
About 27 class hours<br />
One 2-hour paper<br />
The class will be conducted by a team <strong>of</strong> several staff members with interests across a<br />
wide spectrum <strong>of</strong> mathematics. The course will contain a series <strong>of</strong> mathematical<br />
problems, presented for solution. Participants in the class will be expected to contribute<br />
to initial discussion <strong>of</strong> the problems, then to attempt individual solutions, and<br />
subsequently to present their full or partial solutions. In the case <strong>of</strong> problems solved only<br />
partially by individuals, subsequent class discussion would be aimed at producing a full<br />
solution on a team basis. Finally participants in the class will be expected to write up a<br />
polished version <strong>of</strong> the statement and solution <strong>of</strong> each problem. The intention <strong>of</strong> the<br />
class is to build up participants' experience in skills appropriate for mathematical<br />
research. The final examination will be mainly concerned with problems actually solved<br />
during the year.<br />
References References will be suggested during the course.<br />
664142 Topological Graph Theory - R.B. Eggleton<br />
Prerequisite<br />
Hours<br />
Examination<br />
Content<br />
Topic CO<br />
About 27 lecture hours<br />
One 2-hour paper<br />
This topic deals with drawings <strong>of</strong> graphs on various surfaces. It will begin with a brief<br />
introduction to the theory <strong>of</strong> graphs, to be followed by a fairly detailed introduction to<br />
the topology <strong>of</strong> surfaces, with particular attention to the classification <strong>of</strong> surfaces. The<br />
main graph-theoretic areas to be treated are: Kuratowski's Theorem characterising graphs<br />
which can be embedded in the plane; genus, thickness, coarseness and crossing numbers<br />
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