AAS logo National Committee for Mathematics
ARC Funding-1998
NCM logo

Fellowships
Large grants
External funding has become an important `performance indicator' for university researchers. The major source of research funding for mathematical scientists is the Australian Research Council (ARC). In past years information on ARC funding has been difficult to find but this is no longer the case. Detailed statistics, listed by Institute or by Category of Research, are given on the Higher Education Research-Successful Outcomes website.

The two ARC programs of greatest importance for individual mathematical scientists are the Fellowship program and the Large Grants program. Successful applicants for grants and fellowships in 1998 are listed below with a summary of their projects and other relevant data.

Note that the multi-disciplinary nature and utility of mathematics makes a complete listing difficult and open to interpretation. Most ARC mathematics and statistics grants occur through the ARC Physical Sciences Panel but others are granted by the Engineering, Earth Sciences and Social Sciences Panels. It is a subjective decision whether some of these latter projects should be listed under the mathematical sciences. The following list could well be supplemented by other grants in signal processing, expert systems, economics etc. Full information can be obtained by searching the Higher Education Research site.


Fellowships

Institution:  The University of Adelaide

Fellowship Type:  Australian Postdoctoral Fellowship

Mr. D. Adams

Title:  Development and Application of Simplicial Discretisation in Various Quantum Field Theoretic Settings.

Summary: The author's simplicial discretisation technique will be developed and applied to gain new insight into several quantum field theoretic models of topical interest: BF topological field theory and S-duality-related models. In addition, a lattice dual lattice approach to the loop representation of quantum gravity will be developed.


Institution:  Macquarie University

Fellowship Type:  Australian Research Fellowship

Dr. X. Duong

Title:  Heat kernel estimates, singular integrals and applications to differential operators

Summary: This project aims to study spectral properties and heat kernel estimates of differential operators on rough domains or with non-smooth coefficients, and to develop methods to estimate singular integrals with applications in solving various open problems in linear and non-linear partial differential equations.


Institution:  The University of Melbourne

Fellowship Type:  Senior Research Fellowship

Dr. P. Forrester

Title:  Random Matrices, Multivariable Polynomials and Quantum Physics.

Summary: Random matrices occur in quantum physics in studies of quantum chaos, while multivariable polynomials occur as the eigenstates for some quantum many body systems. The analysis of model systems of quantum chaos and the quantum many problem requires mathematical results from the theory of random matrices and multivariable polynomials beyond that which is presently available. In this project, a comprehensive study of these mathematical topics will be undertaken.


Institution:  The University of Sydney

Fellowship Type:  Australian Postdoctoral Fellowship

Mr. H. He

Title:  Parametric Gap Solitary Waves - An Ideal Soliton Environment.

Summary: A novel type of solution, the parametric gap solitary wave, has been proven to exist theoretically. Such solitary waves have potential advantages in all-optical signal processing, due to their shortinteraction distances and low power requirements. A comprehensive theoretical study of these new solitary waves is planned.  This involves solving the parametric gap equations for complete solitary wave solutions, as well as studying solitary wave stability and interactions. Higher dimensional solitary waves, polarisation effects and experiment related problems will also be explored.


Institution:  The University of New South Wales

Fellowship Type:  Australian Postdoctoral Fellowship

Mr. M. E. Johnston

Title:  Bifurcations in discrete-space dynamical systems.

Summary: In many areas of science, problems in which spatialstructure is important are encountered. Examples include the study of diseasespread through a geographically-distributed population of animals, informationflow through telecommunications networks, and the formation of structures asorganisms develop from single cells. Often in these situations one can think ofspace as being discrete, composed of homogenous patches of environment, or ofindividual computers, or of biological cells. The models scientists use todescribe how such situations evolve in time are discrete-space dynamicalsystems. This project aims to develop techniques to analyse how the behaviourof such systems changes as parameters are varied, and to apply these techniquesto models of scientific interest.


Institution:  The Australian National University

Fellowship Type:  Australian Research Fellowship

Dr. V. Mangazeev

Title:  Multi-Dimensional Exactly Solvable Models in Statistical Mechanics: Mathematical Structure of Quantum Integrability.

Summary: This project has a goal to investigate exactly solvable models which are of a great importance in studies of the properties of interacting physical systems in statistical mechanics. However, many results in this area are related only to the two-dimensional case. The study of integrable models in three and higher dimensions will clarify a general structure of the  quantum integrability and help to understand the interrelations between different areas of physics and mathematics. We expect that this project will result in the development of novel approaches in the theory of lattice integrable systems, the theory of quantum algebras, quantum field theories in a discrete space-time etc.


Institution:  The University of Adelaide

Fellowship Type:  Australian Postdoctoral Fellowship

Mr. B. Wang

Title:  Seiberg-Witten Monopoles and Duality in Topological Quantum Field Theory.

Summary: The aim of the project is to investigate the geometrical and topological structures of low dimensional manifolds. The main focus will be placed on new invariants for 3-manifolds or 4-manifolds constructed from Seiberg-Witten monopoles, Yang-Mills instantons and pseudo-holomorphic curves which encode many of the mysteries of low dimensional topology, invariants of knots and links and mathematical understandings of quantum field theory. The outcomes will strengthen the interactions between quantum theory, geometry and topology.


Institution:  The Australian National University

Fellowship Type:  Australian Research Fellowship

Dr. X. Wang

Title:  An Investigation of Monge-Ampere and Curvature Equations.

Summary: Monge-Ampere and curvature equations are two basic classes of elliptic partial differential equations which arise naturally in geometry, analysis, and physics, and find applications in areas such as the design of radar antennas and computer graphics. Although mathematicians have shown growing interest in these equations in the last several decades, there are substantial gaps in the understanding of these equations. This project investigates some fundamental problems, such as the existence, smoothness, and stability of solutions to these equations. These topics are of great mathematical significance and also provide guidance for numerical approximations in various applications.


Institution:  The University of Queensland

Fellowship Type:  Senior Research Fellowship

Dr. R. Zhang

Title:  Quantum Groups, Noncommutative Geometry and Applications.

Summary: The project extends successful research programs of mine on quantum groups and applications. Past research largely developed the theory of quantum supergroups, and made significant impact on low dimensional topology and 2 -dimensional physics. Results have formed the basis of further work by world experts in the field. The project will develop techniques to address a major problem in quantum topology, namely, to determine properties of quantum (super) group invariants of knots and 3 - manifolds, including relating the 3-dimensional Seiberg-Witten invariant to these invariants. New concepts and methods will be introduced to develop a geometrical representation theory of quantum (super) groups. Results will significantly advance both quantum group theory and noncommutative geometry.


Large Grants

Institution:  The University of Sydney

Dr. J. J. Cannon, The University of Sydney


1998 1999 2000
Funding $88,000 $90,000 $96,000

Title:  An Integrated Approach to Computation in Arithmetic Fields

Summary: One of the most ubiquitous structures in mathematics is a field, ie an algebraic structure in which the four familiar arithmetic operations (+,-,-,x)are defined. Global fields are finite degree extensions of either Q or F_p[x], while local fields are completions of some global field with respect to a valuation. This project is concerned with the discovery of effective algorithms (based on the global-local principle) for determining the principal invariants of global and local fields. Its successful completion will result in the first-ever facility for general computation in arithmetic fields.


Institution:  Macquarie University

Prof. R. Street, Macquarie University
Prof. G. Kelly, The University of Sydney
A/Prof. R. Walters, The University of Sydney
Dr. M. Johnson, Macquarie University


1998 1999 2000
Funding $121,000 $124,000 $127,000

Title:  Category Theory Arising from Geometry, Algebra, Computer Science and Physics

Summary: Category theory is a branch of mathematics concerned with transformation and composition. It provides an algebra of wide-spread applicability for the synthesis and analysis of systems and processes in fields as diverse as geometry, physics and computer science, and also in mathematics itself. Often it can be used to clarify and simplify the learning, teaching and development of mathematics. The aim of this project is to develop the general theory of categories and specifically to investigate those aspects appropriate to geometry and computer science.


Institution:  The University of Sydney

Prof. G. I. Lehrer, The University of Sydney


1998 1999 2000
Funding $100,500 $102,500 $104,500

Title:  Group Representation Theory and Cohomology of Algebraic Varieties

Summary: Group representation theory is at the centre of the mathematical study of symmetry. New geometic and topological techniques have led recently to spectacular advances, a feature of which has been the illumination of new connections between apparently different fields, such as knot theory, group characters, quantum groups and codes. This project intends to exploit these connections and establish new ones to make advances in the various fields. The study of group actions on algebraic varieties and their cohomology is central to this progress, realising in a concrete fashion thesymmetry of which groups are abstractions.


Institution:  The University of Western Australia

Prof. C. E. Praeger, The University of Western Australia


1998 1999 2000
Funding $60,000 $57,000 $63,000

Title:  Transitive Graphs and Quasiprimitive Permutation Groups

Summary: Automorphism groups of graphs provide both a precise measure of symmetry of a graph and also a powerful tool for analysing the structure of a graph. This project will develop a framework for describing the structure of an important family of vertex-transitive graphs. It will also extend the underlying theory of quasiprimitive permutation groups to make possible a more effective analysis of these graphs.


Institution:  The University of Sydney

Prof. F. N. Dancer, The University of Sydney


1998 1999 2000
Funding $68,000 $70,000 $72,000

Title:  Population Models and Partial Differential Equations

Summary: To study a number of nonlinear elliptic and parabolic systems which arise in models of population growth for interacting species.


Institution:  The University of Adelaide

Dr. N. Joshi, The University of Adelaide
Prof. M. D. Kruskal, Rutgers University
Prof. M. J. Ablowitz, University of Colorado, Boulder
Dr. S. Chakravarty, The University of New South Wales


1998 1999 2000
Funding $65,000 67,000 $69,000

Title:  Complex Asymptotics and Integrability

Summary: The theory of nonlinear integrable equations, ie those that are solvable through associated linear problems, has had a strong impact on mathematics and physics. However, fundamental gaps remain in their complex asymptotic descriptions and deep questions remain open about their solvability. The aim of this project is to develop new complex asymptotic methods, from which both asymptotic and analytic information about solutions of nonlinear integrable equations can be obtained. Our underlying aim is to apply these techniques to answer questions about their integrability.


Institution:  Macquarie University

Prof. A. Mcintosh, Macquarie University


1998 1999 2000
Funding $79,000 $81,000 $83,000

Title:  Harmonic Analysis, Boundary Value Problems, and Maxwell's Equations in Lipschitz Domains

Summary: Boundary value problems for partial differential equations arise naturally when physical problems are expressed in mathematical terms. This project concerns the systematic development of the harmonic analysis of partial differential operators, and of the corresponding boundary integrals, in order to solve such problems on irregular regions. Particular emphasis is given to studying the propagation of electromagnetic waves through irregularly shaped objects, approximating physical devises which generate, transmit and receive radio waves.


Institution:  The University of New South Wales

A/Prof. E. S. Noussair, The University of New South Wales
Prof. E. N. Dancer, The University of Sydney


1998 1999 2000
Funding $58,500 $60,500 $66,500

Title:  The effects of the domain geometry and topology in nonlinear elliptic equations

Summary: To study the effect of the domain geometry and topology on the existence, multiplicity, and profile of spike layer solutions of nonlinear elliptic equations. Such problems arise from diverse branches of mathematical, physical and biological sciences, ranging from differential geometry, movements of cells in chemotaxis, pattern formations, phase transition in superconductors, genetic models, to the condensation of virus in certain populations.


Institution:  The University of Adelaide

Prof. A. Carey, The University of Adelaide


1998 1999 2000
Funding $36,000 $36,000 $36,000

Title:  Type II spectral flow and applications to mathematical physics

Summary: Spectral flow is an invariant of a family of differential operators depending on a parameter and has played a key technical role over the last 20 years in topology and geometry. Until recently its application has been restricted: the operators must have discrete spectrum (physically this means working only with bound states). This spectrum condition is violated for example in the Atiyah-Singer L^2 theory. I will study the case where the operators commute with a finite von Neumann algebra and apply it to problems in mathematical physics thus handling the novel situation where there may be continuous spectrum.


Institution:  The University of Newcastle

Prof. I. Raeburn, The University of Newcastle


1998 1999 2000
Funding $78,000 $80,000 $82,000

Title:  Toeplitz algebras, semigroup crossed products, and number theory

Summary: Dynamical systems are mathematical structures designed to model time evolution in physics. In quantum physics, an appropriate dynamical system might consist of a C*-algebra representing the observables and an action of the real line on the C*-algebra representing time evolution. Using ideas from number theory, Bost and Connes have recently constructed such a dynamical system which exhibits a phase transition like those arising in statistical mechanics. Here we propose to develop methods previously used for studying Toeplitz algebras, and apply them to a variety of dynamical systems, including number-theoretic ones like that of Bost and Connes.


Institution:  Monash University

Prof. K. Ecker, Monash University


1998 1999 2000
Funding $53,000 $55,000 $57,000

Title:  Mean Curvature Flow of Noncompact Spacelike Hypersurfaces in Asymptotically Flat Spacetimes with Applications in General Relativity

Summary: We study a geometric heat flow of spacelike hypersurfaces in asymptotically flat spacetimes. This flow propagates a given hypersurfaces at every point in the direction of its unit normal with speed given by its mean curvature. We will focus in particular on long-term behaviour of this flow and also study selfsimilar solutions. Apart from providing new insights into the theory of geometric evolution equations, this process has applications in General Relativity. Applications of such geometric evolution equations in physics and material sciences range from crystal growth and the motion of grain boundaries to flame propagation.


Institution:  Queensland University of Technology

Dr. V. V. Anh, Queensland University of Technology
Prof. C. C. Heyde, The Australian National University
Prof. M. Farge, Ecole Normale Superieure, Paris


1998 1999 2000
Funding $60,000 $62,000 $64,000

Title:  Structural Study of Long-Range Dependence, Infinite Variance and Coherent Structures.

Summary: Data in a large number of fields commonly display long-range dependance and infinite variance. These characteristics of turbulent flows may be induced by their coherent structures. Traditional models of turbulence diffusion, such as stochastic differential equations with Brownian motion input and Markov random fields, are not capable of capturing these coherent structures. This project will develop some new classes of models and tools to represent and analyse the long-range dependence, infinite variance and coherent structures of turbulent random fields. These include stochastic differential equations driven by modified fractional Brownian fields and higher-order wavelet spectra. Application to financial modelling and two-dimensional turbulence will be undertaken.


Institution:  The University of Western Australia

Dr. R. K. Milne, The University of Western Australia
Dr. G. F. Yeo, Murdoch University
A/Prof. B. W. Madsen, The University of Western Australia


1998 1999 2000
Funding $53,000 $55,000 $57,000

Title:  Ion Channel Interactions: Stochastic Modelling and Inference

Summary: We propose models of and methods for the analysis of a system of interacting ion channels. Ion channels are fundamentally important in the regulation of cellular physiology. The project will develop probabilistic, statistical and computational methods for the study of these systems, emphasising interactive and spatial aspects about which little is presently known. Some of these methods will also be applied to multiprocessors comprising processors and buffers with application to system reliability.


Institution:  The Australian National University

Prof. P. Hall, The Australian National University


1998 1999 2000
Funding $180,000 $186,000 $204,000

Title:  Theory and Applications of Computer-Intensive Statistical Methods

Summary: Four inter-related projects are proposed, addressing (1) estimating the intensity of a point process with infinite poles, (II) testing hypotheses about the number of modes of a population, (III) estimating a boundary from digitised data, and (IV) implementing the bootstrap with spatial data. The projects are motivated by problems arising in, respectively, (I) geophysics, (II) population mixtures, (III) image analysis, and (IV) biological science.


Institution:  Murdoch University

Prof. I. R. James, Murdoch University
A/Prof. R. A. Maller, The University of Western Australia


1998 1999 2000
Funding $50,000 $52,000 $54,000

Title:  Multivariate Failure Time Analysis

Summary: Multivariate failure times arise in a wide variety of practical situations, such as when repeated episodes of the same event occur on an individual, when times to different events are recorded on the same individual, or when single events occur for each case, but where cases may be associated by environmental, genetic or other factors. Resulting correlations between the failure times plus the added complication of potential incompleteness in the data (censoring) mandates development of statistical methods which accommodate general correlation structures and are robust to censoring assumptions. This project aims to develop a suite of methods to achieve this.


Institution:  The University of New South Wales

Prof. R. Kohn, The University of New South Wales
A/Prof. S. J. Sheather, The University of New South Wales


1998 1999 2000
Funding $60,000 $55,000 $57,000

Title:  Flexible methods for estimating regression models

Summary: Regression analysis tries to predict the value of one variable from the values of one or more predictor variables. It is proposed to develop methods for estimating the regression function without assuming that its form is known. The methods will be comprehensive and widely applicable. In particular, we will apply the methodology to detect trends in ozone data and to determine the drives of customers satisfaction. The methods will cover a range of settings including discrete and continuous data for cases in which the variance may not be constant. The approach involves both Bayesian and non Bayesian methods.


Institution:  Queensland University of Technology

Dr. R. C. Wolff, Queensland University of Technology
Dr. K. L. Mengersen, Queensland University of Technology


1998 1999 2000
Funding $25,000 $24,906 $50,000

Title:  Convergence Diagnostics for Markov Chain Monte Carlo: A Non-Parametric and Non-Linear Dynamical Systems Approach

Summary: Markov chain Monte Carlo (MCMC) methods are employed to conduct numerically complex statistical inference especially where a theoretical approach is unavailable. It is almost always required to verify that MCMC output is regularly behaved (stationary): many present methods involve dated classical techniques which are restricted in their scope. This project takes a novel approach by proposing a suite of new techniques to assess stationarity which draw on methods from non-linear dynamical systems theory which have enjoyed recent statistical development in their own right. The research will contribute new methodology and software for this specific and more general applications.


Institution:  The University of New South Wales

Prof. I. H. Sloan, The University of New South Wales


1998 1999 2000
Funding $68,000 $70,000 $76,000

Title:  Numerical integration and approximation in high dimensions

Summary: Multiple integrals play a key role in atomic and molecular chemistry and physics, solid-state and nuclear physics, statistics and statistical mechanics, and other areas of science. When there are many variables (ie when the dimension is high) such integrals are hard to evaluate accurately and reliably. Computer evaluations are typically both expensive and of uncertain accuracy. This project aims to develop and analyse new and existing computational methods of multiple integration and related approximation problems, and improve the theoretical knowledge of what is achievable if the integration rules are as good as possible.


Institution:  The University of New South Wales

A/Prof. D. W. Kelly, The University of New South Wales
Prof. I. H. Sloan, The University of New South Wales


1998 1999 2000
Funding $62,500 $61,000 $65,500

Title: Improved pointwise error bounds for the finite element method in engineering

Summary: Practical engineering applications of the finite element method would be enhanced if reliable bounds on the errors in computed stresses and other quantities were available. In an earlier project rigorous error bounds for certain model problems, both linear and (in a restricted sense) nonlinear, were developed. This project aims to refine the procedure to the point where the computed error bounds are reliably within a factor of two of the true error, to develop a measure of the quality of the bound, and to broaden the range of engineering applications to which the procedure can be applied.


Institution:  The University of New South Wales

A/Prof. L. Qi, The University of New South Wales
Dr. R. S. Womersley, The University of New South Wales


1998 1999 2000
Funding $55,000 $57,000 $59,000

Title:  SQP and QP-free algorithms for nonlinear programming

Summary: Nonlinear programming (NLP) is widely used to model decision problems in engineering, business and economics. Sequential quadratical programming (SQP) is one of the most successful computational methods for solving NLP. Later improvements of SQP methods include feasible SQP and QP-free methods. This project is to analyse weaker convergence conditions for these methods, to construct new versions of these methods which are effective even in degenerate cases, and thus to develop more efficient and robust algorithms for solving NLP.


Institution:  The University of Adelaide

A/Prof. C. E. Pearce, The University of Adelaide


1998 1999 2000
Funding $53,000 $55,000 $57,000

Title:  Tight bounds for some performance measures in loss systems occurring in telecommunications networks

Summary: In the analysis of telecommunication networks, full details of system parameters are often unavailable. In such situations it is useful to have tight upper and lower bounds for performance measures over the family of parameter values prescribed by the information available on the parameter values. These provide practical tools useful for performance analysis and dimensioning in the realistic context of incomplete knowledge. This project aims to obtain new results which can be used in this way.


Institution:  The University of Queensland

A/Prof. G. Havas, The University of Queensland


1998 1999 2000
Funding $48,000 $50,000 $52,000

Title:  Algorithms and Applications in Finite Fields

Summary: We will develop new, efficient algorithms for specificproblems in finite field theory where current computing techniques areinadequate. These algorithms will then be used to obtain new results.Computational group theory plays a prominent role in mathematical research.Much of the work in this area is related to group theory, combinatorics, graphtheory, projective geometry, coding theory and cryptography, so that advancesmade by this project will also benefit these areas. The results obtained willprovide insight into a wide range of related problems, enabling furtheradvances in specific problems.


Institution:  The University of Queensland

A/Prof. G. Havas, The University of Queensland


1998 1999 2000
Funding $54,000 $56,000 $58,000

Title:  Computing with Finitely Presented Groups

Summary: Group theory is a fundamental part of pure mathematicsand computational group theory addresses many of its problems. We will design,implement, test, analyase and apply improved basic algorithms for finitelypresented groups on high performance computers. This means designing newalgorithms, redesigning old ones, and using such algorithms to solve problemswhere current techniques are in adequate. We will provide training for advancedstudents, and collaborate both nationally and internationally.


Institution:  The University of Queensland

Prof. A. P. Street, The University of Queensland
Prof. J. R. Seberry, University of Wollongong
Dr. T. Hardjono, University of Western Sydney


1998 1999 2000
Funding $50,000 $52,000 $54,000

Title:  Access Schemes amd Data Protection Schemes for Computer Security and Electronic Strongboxes from Combinatorial Structures.

Summary: Combinatorics is the study of configurations, which arise whenever objects are distributed according to certain pre-determined constraints. Block designs and Latin squares are two such configurations, long studied for their mathematical elegance; since 1935, they have also been studied for their applications, most recently in the construction of access (secret-sharing) schemes for computer security and of electronic strongboxes. This project builds on results of earlier ARC-funded projects to produce combinatorial structures for more efficient access schemes and for application in electronic commerce, making particular use of bent functions associated with Hadamard designs and of minimal substructures defining designs and squares.


Institution:  Curtin University of Technology

Prof. K. Teo, Curtin University of Technology
Prof. L. Caccetta, Curtin University of Technology
Dr. V. Rehbock, Curtin University of Technology
Dr. S. Wang, Curtin University of Technology


1998 1999 2000
Funding $54,000 $56,000 $58,000

Title:  Static and Dynamic Optimisation Problems InvolvingVariable Switching Times and Mixed Discrete Decision Variables

Summary: The aim of the project is to develop efficientcomputational algorithms to solve a range of optimisation problems, includingboth static and dynamic problems, where some or all of the decision variablesare restricted to a discrete set of values. The techniques developed fordynamic optimisation problems will also be used in developing solution methodsfor dynamic optimisation problems with switching and impulsive controls.Finally the project also aims to find new and more efficient methods forsolving semi-infinite programming problems in order to greatly extend the classof problems that can be dealt with by the earlier methods.


Institution:  The University of Queensland

Dr. P. M. Diamond, The University of Queensland
Dr. X. Z. Yuan, The University of Queensland
Dr. H. B. Thompson, The University of Queensland


1998 1999 2000
Funding $50,000 $50,000 $52,000

Title:  Set-Valued Methods in Robust Control

Summary: Control of systems or industrial processes must deal with plant variability and uncertainty, possibly with extremely strict performance specifications. The central problem of feedback control is to design controllers which both tolerate and reduce effects of variability and imprecision attaining robust control over a family of processes. This is typically accomplished by studying how plant perturbations affect output. This project examines robust control from a different perspective, considering a class of systems as a whole rather than perturbing a single, nominal plant. Set-valued methods and processes will be used to control sets of plant encompassing all variations and uncertainties.


Institution:  Queensland University of Technology

Prof. D. L. McElwain, Queensland University of Technology
Dr. S. A. Domanti, James Cook University of North Queensland


1998 1999 2000
Funding $51,200 $50,000 $53,000

Title:  Modelling the Tinplate Temper Rolling Process

Summary: Tinplate temper rolling, which often represents the final stage of processing, involves product of high added value and is of prime importance in determining the final product quality. Despite this, the current models used to control these mills do not have a good predictive capability. This project employs a novel approach using high-level applied mathematical and numerical analysis to develop a model of temper rolling with the aim of providing a better understanding of the underlying processes. This will lead to improved on-line algorithms for temper mill control and advances in the selection of suitable roll surface finishes.


Institution:  The University of Melbourne

Prof. J. H. Rubinstein, The University of Melbourne
A/Prof. N. Wormald, The University of Melbourne
Dr. D. Thomas, The University of Melbourne


1998 1999 2000
Funding $60,200 $56,000 $62,000

Title:  Optimal Transport Networks

Summary: The network design problem has extensive applications in industry and communications. We will investigate the problem of designing networks which are as short as possible and which satisfy a constraint on the steepness of edges. This situation arises, for example, in underground mining where gradients of tunnels connecting discrete nodular ore deposits are constrained by haulage costs. Other applications are road, track or pipeline systems. The purpose of this work is to develop a complete theory of gradient constrained minimal networks and apply it to finding fast algorithms for constructing these networks.
 


Academy homepage : NCM Website Index
This site is located in the Institute of Mathematical Sciences (MSI) at the ANU
Please send comments and suggestions to Derek.Robinson@anu.edu.au