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Approximate encoded permutations and piecewise quantum adders
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abstract
We present a paradigm for constructing approximate quantum circuits from reversible classical circuits that operate on many possible encodings of an input and send almost all encodings of that input to an encoding of the correct output. We introduce oblivious carry runways, which use piecewise addition circuits to perform approximate encoded additions and reduce the asymptotic depth of addition to $O(\lg \lg n)$. We show that the coset representation of modular integers (Zalka 2006) is an approximate encoded modular addition, and that it can be used in combination with oblivious carry runways. We prove error bounds on these approximate representations, and use them to construct 2s-complement adders and modular adders with lower costs than in previous work at register sizes relevant in practice.
Forward citations
Cited by 3 Pith papers
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A Classical-Quantum Adder with Constant Workspace and Linear Gates
A classical-quantum adder achieves O(n) Toffoli gates with O(1) clean ancillae, closing a 20-year asymptotic gap.
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Towards Deploying Optimistic Quantum Fourier Transforms: An Architecture-Algorithm Co-Design Study
A hot-zone architecture for OQFT on reconfigurable neutral-atom hardware yields tunable latency via 2-4 zones, converging to roughly 500 extra logical ancillae and 128-qubit peak parallelism for half-time performance ...
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Quantum Arithmetic Circuits in Public-Key Cryptography
A structured survey of optimized quantum adders, multipliers, modular exponentiation and point-addition circuits for public-key cryptanalysis, plus fault-tolerant resource estimation techniques.
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