Boundary crossing probability for Brownian motion
By Klaus Pötzelberger, Liqun Wang. Journal of Applied Probability, 2001
121 citations recorded by the source corpus.
Subfields: Statistics and Probability
View Paper: https://www.semanticscholar.org/paper/f68f3350d338f60adfc5e8e5e33f58c0ad1f632e
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Statistics and Probability
- Omiros Papaspiliopoulos
- Christian P. Robert
- Gareth O. Roberts
- Alexandros Beskos
- Adam M. Johansen
- Paul Fearnhead
- Murray Pollock
- Jean-Michel Marin
Citations in the corpus
- Confidence bands for Brownian motion and applications to Monte Carlo simulation (2007, methodology): “Using this result, Potzelberger and Wang (2001) derive the following Monte Carlo estimator of P1(u) P̂1(u)n,N = 1 N N ∑”
- A class of Lévy process models with almost exact calibration to both barrier and vanilla FX options (2010, unknown): “If we wish to price, for example, a DNT option with barrier levels at L and U (with continuously monitored barriers), we can use results in Potzelberger and Wang (2001) concerning the probability of a Brownian bridge process hitting either of the barrier levels.”
- On the exact and ε-strong simulation of (jump) diffusions (2013, background): “In this section, we briefly outline results pertaining to the probability that a Brownian bridge sample path is contained within a particular interval [2,32] (Theorem 3) and how to simulate events of this probability [6] (Corollary 3).”
- EXPLICIT BOUNDS FOR APPROXIMATION RATES OF BOUNDARY CROSSING PROBABILITIES FOR THE WIENER PROCESS (2005, methodology): “A popular choice for f± is piecewise-linear boundaries, for which a combination of the total probability formula, the Markov property, and explicit formulae for linear boundary crossing probabilities for the Brownian bridge process immediately gives the desired probability P(f−, f+) as a finite-dime”
- A Factorisation of Diffusion Measure and Finite Sample Path Constructions (2008, background): “This probability has a known expression in terms of an infinite series, a result which can be traced back to Doob (1949), although see Pötzelberger and Wang (2001) for a more recent reference.”