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Please use this identifier to cite or link to this item:
http://hdl.handle.net/1993/3154
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| Title: | Extending and simulating the quantum binomial options pricing model |
| Authors: | Meyer, Keith |
| Supervisor: | Kocay, W. (Computer Science) |
| Examining Committee: | Thulasiram, T. (Computer Science)Southern, B.W. (Physics & Astronomy) |
| Graduation Date: | May 2009 |
| Keywords: | Quantum Options Binomial No-arbitrage Risk-neutral Computing Stock Black-Scholes Cox-Ross-Rubinstein Pricing Model European American Bermudan Barrier Volatility |
| Issue Date: | 23-Apr-2009 |
| Abstract: | Pricing options quickly and accurately is a well known problem in finance. Quantum computing is being researched with the hope that quantum computers will be able to price options more efficiently than classical computers. This research extends
the quantum binomial option pricing model proposed by Zeqian Chen to European
put options and to Barrier options and develops a quantum algorithm to price them.
This research produced three key results. First, when Maxwell-Boltzmann statistics
are assumed, the quantum binomial model option prices are equivalent to the classical binomial model. Second, options can be priced efficiently on a quantum computer after the circuit has been built. The time complexity is O((N − τ)log(N − τ)) and it is in the BQP quantum computational complexity class. Finally, challenges extending the quantum binomial model to American, Asian and Bermudan options exist as the quantum binomial model does not take early exercise into account. |
| URI: | http://hdl.handle.net/1993/3154 |
| Appears in Collections: | FGS - Electronic Theses & Dissertations (Public)
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