| Dates | Institution | Qualifications |
| 1974-1978 | V Liceum im. Augusta
Witkowskiego,
Krakow, Poland |
Matura, 1978 |
| 1978-1985 | Institute of Physics,
Jagiellonian
University,
Krakow, Poland |
MSc in theoretical physics, 1985
see thesis details |
| 1979-1984 | Institute of Mathematics,
Jagiellonian
University,
Krakow, Poland |
MSc in mathematics, 1984
see thesis details |
| 1986-1987 | St. John's College,
Oxford, England and
Jagiellonian University, Krakow, Poland |
PhD in mathematics, 1987
see thesis details |
| Dates | Institution | Division | Position |
| 1984-1988 | Jagiellonian University,
Krakow, Poland |
Institute of Mathematics | Assistant Professor |
| 1987-1988 | University of Warwick,
Coventry, UK |
Mathematics Institute | Visiting Academic |
| 1988-1994 | Jagiellonian University,
Krakow, Poland |
Institute of Mathematics | Adjunct Professor |
| 1985-1989 | Polish Academy of Sciences,
Krakow, Poland |
Institute of Mathematics | Assistant Professor |
| 1989-1991 | University of Wales,
Swansea, UK |
Department of Mathematics | Research Fellow |
| 1991-1993 | University of Alberta,
Edmonton, Canada |
Department Mathematical
Sciences |
NSERC International
Fellow |
| 1993-1994 | Northwestern University,
Chicago, USA |
Department of Mathematics | Assistant Professor |
| 1994-1997 | University of Glamorgan,
Wales, UK |
School
of Accounting
and Mathematics |
Welsh Office Funded
Research Fellow |
| 1997-2001 | University of Hull,
Kingston upon Hull, UK |
Department of Mathematics | Lecturer |
| 2001-2003 | University of Hull,
Kingston upon Hull, UK |
Department of Mathematics | Senior Lecturer |
| Mar.2003 -Sep.2003 |
University of Hull,
Kingston upon Hull, UK |
Department of Mathematics | Reader |
| Oct.2003-
2005 |
University of Hull,
Kingston upon Hull, UK |
Department of Mathematics | Professor |
| 2005-
continuing |
University of York York, UK |
Department of Mathematics | Chair of Financial Mathematics |
| Dates | Grant/Award | Awarding Body |
| 1984 | J.
Marcinkiewicz Prize
for Mathematics Students |
Polish Mathematical Society |
| 1984 | F.
Leja Prize
for Young Mathematicians |
Jagiellonian University,
Krakow, Poland |
| 1986-1987 | Visiting Studentship at
St. John's College, Oxford |
The Soros Foundation |
| 1991-1993 | NSERC International Fellowship at
University of Alberta, Edmonton, Canada |
Natural Sciences and Engineering
Research Council, Canada |
| 1996 | EPSRC Visiting Fellowship
Research Grant (Co-investigator) |
Engineering and Physical
Sciences Research Council, UK |
| 1997 | EPSRC Visiting Fellowship
Research Grant (Co-investigator) |
Engineering and Physical
Sciences Research Council, UK |
| 1998 | Royal Society Conference Grant | The Royal Society, UK |
| 1998-2001 | EPSRC Postgraduate Studentship
in Financial Mathematics (Supervisor) |
Engineering and Physical
Sciences Research Council, UK |
| 1999-2002 | Open Postgraduate Studentship
(Supervisor) |
University of Hull |
| 1999-2002 | German Academic Service Exchange
Scheme Grant (Team Member) |
The British Council |
| 1999-2000 | EPSRC Fast Stream Research Grant
(Principal Investigator) |
Engineering and Physical
Sciences Research Council, UK |
| 2000-2002 | Polish Academic Exchange Grant
(British Team Leader) |
The British Council |
| 2002 | HIMSA Seeding Grant | Hull Institute of Mathematical Sciences and Applications |
| Stochastic Analysis
diffusion on manifolds, see Refs. [AntZas93], [AntZas94a], [AntZas94b], [AntZas95b], [AntZas98], [AntZas99] , [AntZas03] stochastic mechanics, see Refs. [Zas90], [Zas92], [GliZas:95], [GliZas96], [Zas97a], [TruZas98], [GliZas98] stochastic heat equation and stochastic Schroedinger equation, see Refs. [Zas97b], [TruZas99], [TruZas00] miscellaneous, see Refs. [Zas91a], [BrzZas99], [SloZas04] |
|
| Financial Mathematics
see Ref. [CapZas01], [SloZas04], [TokZas04], [Zas04], [TokZas05], [RouZas05], [TokRouZas06], [RouZas06] |
|
| Quantum Mechanics,
Thermodynamics,
Mathematical Physics
see Refs. [Zas87b], [PliZas94], [Zas97a], [TruZas99], [TruZas00], [SloZas04] |
|
| Path Integrals
see Refs. [Zas86], [Zas87a], [Zas88], [Zas89a], [Zas89b], [Zas91b], [Zas93], [Zas97b], [TruZas99], [TruZas00] |
|
| Finsler Geometry
see Refs. [AntMatZas96], [AntZas98], [AntZas99], [AntZas03] |
|
| Mathematical Biology
see Refs. [AntZas94a], [AntZas94c], [AntZas95a], [AntZas96], [AntZas97a], [AntZas97b], [AntZas99] |
|
|
This book is a final year undergraduate text on stochastic analysis, a theory used widely by statisticians and experts working, for example, in mathematical finance. A detailed treatment is given of conditional probability and expectation, a topic which is essential as a tool for stochastic processes. Exercises, complete with informal hints and fully worked solutions, are chosen as the main means of explanation, hence the course has a strong self-study element. The authors have concentrated on major topics within stochastic analysis: martingales in discrete time and their convergence, Markov chains, stochastic processes in continuous time, with emphasis on the Poisson process and Brownian motion, as well as Ito stochastic calculus including stochastic differential equations. see "Basic Stochastic Processes" web page see Springer-Verlag catalogue entry |
This is the first text to be published on stochastic Finslerian geometry. The theory is rigorously presented and several applications in ecology, evolution and epidemiology are described. Amongst the various topics covered are the role of curvature in Finslerian diffusions, Nelson's stochastic mechanics, nonlinear (Finslerian) filtering and entropy production. Two appendices deal with, respectively, the stochastic Hodge theory of Finslerian harmonic forms, and the theory of 2-dimensional Finsler spaces. The latter plays an important role in the applications described in the text. This volume will be of interest to probabilists, applied mathematicians, mathematical biologists and geometers. It can also be recommended as a supplementary graduate text. see publisher's catalogue entry |
|
This book of problems has been designed to accompany an undergraduate course in probability. The only prerequisite is basic algebra and calculus. Each chapter is divided into three parts: Problems, Hints, and Solutions. To make the book self-contained, all problem sections include expository material. Definitions and statements of important results are interlaced with relevant problems. The problems have been selected to motivate abstract definitions by concrete examples and to lead in manageable steps towards general results, as well as to provide exercises based on the issues and techniques introduced in each chapter. The book is intended as a challenge to involve students as active participants in the course. See "Probability Through Problems" web page See Springer-Verlag catalogue entry |
|
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True to its title, this book is itself an excellent financial investment. For the price of one volume it teaches two Nobel Prize winning theories, with plenty more included for good measure. Mathematics for Finance is designed to form the basis of an undergraduate course. It builds on mathematical models of bond and stock prices and covers three major areas of mathematical finance that all have an enormous impact on the way modern financial markets operate, namely: Assuming only a basic knowledge of probability and calculus, the book combines financial motivation with mathematical style. It covers the material in a mathematically rigorous and complete way at a level accessible to second or third year undergraduate students. The text is interspersed with a multitude of worked examples and exercises, which provides ample material for tutorials, and makes the book ideal for self-study. It is suitable not only for students of mathematics, but also students of business management, finance and economics, and anyone with an interest in finance who needs to understand the underlying theory. Corrected 3rd printing, September 2004. See "Mathematics for Finance" web page See Springer-Verlag catalogue entry |
[Zas87a]
T. Zastawniak, Path integrals and probabilistic representations for
the Dirac equation in two and four space-time dimensions, PhD thesis,
Jagiellonian University, Krakow 1987.
[Zas87b]
T. Zastawniak, The analysis of the SVZ method applied to the Schroedinger
equation with the potential \lambda\ctg^{2\pi x}, Acta Physica Polonica
B18 (1987) 37-45 (MSc thesis in physics, Jagiellonian University, Krakow
1985).
[Zas88]
T. Zastawniak, Path integrals for the telegrapher's and Dirac equations;
the analytic family of measures and the underlying Poisson process,
Bull. Polish Acad. Sci. Math. 36 (1988) 341-356.
[Zas89a]
T. Zastawniak, The nonexistence of the path-space measure for the Dirac
equation in four space-time dimensions, J. Math. Phys. 30 (1989) 1354-1358.
[Zas89b]
T. Zastawniak, Path integrals for the Dirac equation - some recent developments
in mathematical theory, in: K.D.Elworthy and J.-C.Zambrini (eds.),
Stochastic Analysis, Path Integration and Dynamics (Warwick 1987), Pitman
Res. Notes Math. Ser., Vol. 200, Longman Sci. Tech., Harlow 1989, pp.243-263.
[Zas90]
T. Zastawniak, A relativistic version of Nelson's stochastic mechanics,
Europhysics Letters 13 (1990) 13-17.
[Zas91a]
T. Zastawniak, Evaluation of certain Wiener integrals, Univ. Iagel.
Acta Math. 28 (1991) 177-185.
[Zas91b]
T. Zastawniak, The equivalence of two approaches to the Feynman integral
for the anharmonic oscillator, Univ. Iagel. Acta Math. 28 (1991 187-199.
[Zas92]
T. Zastawniak, Markov diffusions in relativistic stochastic mechanics,
A.Truman and I.M.Davies (eds.), Stochastics and Quantum Mechanics (Swansea
1990), World Sci. Publishing, Singapore-River Edge, NJ-London 1992, pp.280-297.
[AntZas93]
P.L. Antonelli and T. J. Zastawniak, Diffusions on Finsler manifolds,
Rep. Math. Phys. 33 (1993) 303-315.
[Zas93]
T. Zastawniak, Evaluation of the distribution of the random variable
S(t)=\int_0^t (-1)^{N(u)}du, in: H.A.Cerdeira, et.al., Lectures on
Path Integration (Trieste 1991), World Scientific Publishing, Singapore-New
Jersey-London-Hong Kong 1993, pp.446-448 (Appendix in S.K.Foong, Path integral
solution for telegrapher equation).
[PliZas94]
A. Plis and T. Zastawniak, Relativistic quantum mechanics for two interacting
particles in one-time representation, Rep. Math. Phys.31 (1992) 317-327.
[AntZas94a]
P.L. Antonelli and T. J. Zastawniak, Stochastic calculus on Finsler
manifolds and an application in biology, Nonlinear World 1 (1994) 149-171.
[AntZas94b]
P.L. Antonelli and T. J. Zastawniak, Introduction to diffusion on Finsler
manifolds, Math. Comput. Modelling 20 (1994) 109-116.
[AntZas94c]
P.L. Antonelli and T. J. Zastawniak, Density-dependent host/parasite
systems of Rothschild type and Finslerian diffusion, Math. Comput.
Modelling 20 (1994) 117-129.
[AntZas95a]
P. Antonelli and T. Zastawniak, Curvature and production stability in
Volterra-Hamilton systems of Finsler type, Open Systems and Information
Dynamics 3 (1995) 319-324.
see publisher's catalogue entry
[AntZas95b]
P.L. Antonelli and T.J. Zastawniak, Diffusion on the tangent and indicatrix
bundles of a Finsler manifold, Tensor (N.S.) 56 (1995) 233-247.
[GliZas95]
Yu.E. Gliklikh and T.J. Zastawniak, Solution of the Cauchy problem for
the Nelson-Newton equation, in: Novoe Global. Anal., Vol.15, Izdat.
Voronezh. Univ., Voronezh 1995, pp.41-50.
[AntZas96]
P. Antonelli and T. Zastawniak, Stochastic Finsler geometry with biological
applications, in: D.Bainov (ed.), Proceedings of the Sixth International
Colloquium on Differential Equations (Plovdiv, Bulgaria, August 1995),
Science Culture Technology Publishing, Sofia 1996, pp.15-20.
[WilZas96]
R. Wiltshire and T.Zastawniak, Approximate Lie symmetries for diffusion
equations with lon-linear perturbations, in: D.Bainov (ed.), Proceedings
of the Sixth International Colloquium on Differential Equations (Plovdiv,
Bulgaria, 18-23 August 1995), VSP Publishers, The Netherlands 1996, pp.361-367.
ISBN 90-6764-203-7.
[AntMatZas96]
P.L. Antonelli, M. Matsumoto and T.J.Zastawniak, On y-Berwald spaces
of dimension two and associated heterochronic systems with Finslerian noise,
Contemp. Math. 196 (1996) 203-212.
[GliZas96]
Y.E. Gliklikh and T.J. Zastawniak, Solution of the Nelson-Newton equation
with random initial data, in: Y.E.Gliklikh, Ordinary and Stochastic
Differential Geometry as a Tool for Mathematical Physics, Mathematics and
its Applications, Vol.374, Kluwer Academic Publishers, Dordrecht 1996,
pp.166-174.
see publisher's catalogue entry
[AntZas97a]
P. Antonelli and T. Zastawniak, Noise induced transitions in a stochastic
Volterra-Hamilton open system, Open Systems and Information Dynamics
4 (1997) 89-100.
see publisher's catalogue entry
[Zas97a]
T. Zastawniak, Geometrical stochastic control and quantization,
J. Math. Phys. 38 (1997) 173-181.
[AntZas97b]
P.L. Antonelli and T.J. Zastawniak, Stochastic Finsler geometry in the
theory of evolution by symbiosis, Dynamics of Continuous, Discrete
and Impulsive Systems 3 (1997) 1-18.
[Zas97b]
T. Zastawniak, Fresnel type path integrals for the stochastic Schroedinger
equation, Lett. Math. Phys. 41 (1997) 93-99.
[GliZas98]
Yu.E. Gliklikh and T. Zastawniak, Existence theorems in Nelson's stochastic
mechanics on Riemannian manifolds and space-times of general relativity,
in: Th.M.Rassias (ed.), Nonlinear Mathematical Analysis and Applications,
Hadronic Press, Palm Harbor, Florida, 1998, pp.39-58.
[AntZas98]
P.L. Antonelli and T. Zastawniak, Diffusion, Laplacian and Hodge decomposition
on Finsler spaces, in: P.L.Antonelli and B.Lackey (eds.), The Theory
of Finslerian Laplacians and Applications, Mathematics and Its Applications,
Vol.459, Kluwer Academic Publishers, Dordrecht-Boston-London, 1998, pp.141-149.
see publisher's catalogue entry
[TruZas99]
A. Truman and T. Zastawniak, Stochastic PDE's of Schroedinger type and
stochastic Mehler kernels. A path integral approach, in: R.Dalang, M.Dozzi,
and F.Russo (eds.), Seminar on Stochastic Analysis, Random Fields and Applications,
Centro Stefano Franscini, Ascona, Italy, September 1996, Birkhauser Prog.
Prob., Vol.45, Birkhauser Verlag, Basel, Switzerland, 1999, pp.275-283
[TruZas00]
A. Truman and T. Zastawniak, Stochastic Mehler kernels via oscillatory
path integrals, J. Korean Math. Soc., 38 (2001) 469-483.
[AntZas03]
P.L. Antoneli and T.J. Zastawniak, Fundamentals of Finslerian diffusion,
in: P.L. Antonelli (ed.), Handbook of Finsler Geometry, Vol.1, Part 3,
Kluwer Academic Publishers, Dordrecht-Boston-London, 2003, pp.177-355.
[SloZas04]
W. Slomczynski and T. Zastawniak, Utility maximising entropy and the second law
of thermodynamics, The Annals of Probability 32 (2004) 2261-2285.
download paper
go to official journal site
[TokZas04]
K. Tokarz and T. Zastawniak, Dynamic programming algorithms for the ask and
bid prices of American options under small proportional transaction costs,
preprint, 2004.
download paper from this site or from
http://ssrn.com/abstract=581543
[Zas04]
T. Zastawniak, American contingent claims with physical delivery under small
proportional
transaction costs,
preprint, 2004.
download paper from this site or from
http://ssrn.com/abstract=595941
[TokZas05]
K. Tokarz and T. Zastawniak, American contingent under small
proportional
transaction costs,
Journal of Mathematical Economics 43 (2006) 65-85.
http://dx.doi.org/10.1016/j.jmateco.2006.09.003
download preprint from this site
[RouZas05]
A. Roux and T. Zastawniak, A counter-example to an option pricing formula
under transaction costs, Finance and Stochastics 10 (2006) 575-578.
http://dx.doi.org/10.1007/s00780-006-0016-2
download preprint from this site or an
earlier version from
http://ssrn.com/abstract=665283
[TokRouZas06]
A. Roux, K. Tokarz and T. Zastawniak, European options under proportional
transaction costs: An algorithmic approach to pricing and hedging, preprint,
2006.
download paper from this site
or from
http://ssrn.com/abstract=897965
[RouZas06]
A. Roux and T. Zastawniak, American options under proportional
transaction costs: Seller's price algorithm, hedging strategy and optimal
stopping, preprint,
2006.
download paper from this site or
from http://ssrn.com/abstract=906337
A selection of courses taught/designed in recent years:
Stochastic
Analysis
Applied
Probability
Decision
Making for Business and Management
Portfolio
Theory and Risk Management (MSc level)
Mathematical
Methods of Finance (MSc level)
Mathematical
Finance: Investments
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Did a pre-Homeric Greek artist try to represent a fractal? The blue shape in this 3500 years old wall painting from Akrotiri, Thera known as "Shipwreck" bears a striking resemblance to the fractal known as von Koch coastline, bringing to mind Mandelbrot's celebrated paper "How long is the coast of Great Britain?" The painting was preserved under a layer of ashes, following a volcanic eruption some 3500 years ago, which contributed to the destruction the Minoan civilisation. The island of Thera is believed by many archaeologists to have been no less than the mythical Atlantis... |
To find out more about fractal shapes in Minoan art see:
W. Slomczynski
and T. Zastawniak, How long was the coast of Atlantis?, Mathematical
Intelligencer 21 (1999) 38-41.
Voting
power theory in the EU Council
W. Słomczyński, T. Zastawniak and K. Życzkowski, The root
of the matter: voting in the EU Council, to appear in Physics World,
March 2006.
download paper from
this site
