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A highly efficient tensor network algorithm for multi-asset Fourier options pricing
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Risk assessment and in particular derivatives pricing is one of the core areas in computational finance and accounts for a sizeable fraction of the global computing resources of the financial industry. We outline a quantum-inspired algorithm for multi-asset options pricing. The algorithm is based on tensor networks, which have allowed for major conceptual and numerical breakthroughs in quantum many body physics and quantum computation. In the proof-of-concept example explored, the tensor network approach yields several orders of magnitude speedup over vanilla Monte Carlo simulations. We take this as good evidence that the use of tensor network methods holds great promise for alleviating the computation burden of risk evaluation in the financial and other industries, thus potentially lowering the carbon footprint these simulations incur today.
Forward citations
Cited by 2 Pith papers
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Classical Tensor Network and Quantum Fourier Transform Approaches for Large-Scale Carr-Madan Option Pricing
SFFT tensor-train Carr–Madan pricing matches FFT accuracy on Black–Scholes while using far less memory at large grids, and is compared directly to QFT on simulators and IBM hardware.
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Tensor train representations of Greeks for Fourier-based pricing of multi-asset options
A tensor-train Fourier pricing method is extended to compute Greeks, and numerically differentiating one tensor core is shown to be simpler and often more accurate than building tensor trains from analytical Greek formulas.
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