Quantum interpolation of polynomials
Daniel M. Kane, Samuel A. Kutin

TL;DR
This paper establishes tight quantum lower bounds for interpolating polynomials using black-box access to input/output pairs, advancing understanding of quantum query complexity for polynomial evaluation.
Contribution
It provides asymptotically tight lower bounds for quantum interpolation of polynomials, even when zero is among the input points, which was previously unresolved.
Findings
Quantum lower bounds are asymptotically tight for polynomial interpolation.
The bounds hold even when zero is among the input points.
Results improve understanding of quantum query complexity for polynomial evaluation.
Abstract
We consider quantum interpolation of polynomials. We imagine a quantum computer with black-box access to input/output pairs (x_i, f(x_i)), where f is a degree-d polynomial, and we wish to compute f(0). We give asymptotically tight quantum lower bounds for this problem, even in the case where 0 is among the possible values of x_i.
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Taxonomy
TopicsQuantum Computing Algorithms and Architecture · Polynomial and algebraic computation · Numerical Methods and Algorithms
