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Machine Learning by Adiabatic Evolutionary Quantum System

Tomoyuki Yamakami

TL;DR

A basic idea of approximately utilizing well-known quantum algorithms for quantum counting, quantum amplitude estimation, and quantum approximation is developed and a rough estimation of the efficiency of these quantum learning algorithms for AEQSs is provided.

Abstract

A computational model of adiabatic evolutionary quantum system (or AEQS, pronounced "eeh-ks") was introduced in [Yamakami,2022] as a sort of quantum annealing and its underlying input-driven Hamiltonians are generated quantum-algorithmically by various forms of quantum automata families (including 1qqaf's). We study an efficient way to accomplish certain machine learning tasks by training these AEQSs quantumly. When AEQSs are controlled by 1qqaf's, it suffices in essence to find an optimal 1qqaf that approximately solves a target relational problem. For this purpose, we develop a basic idea of approximately utilizing well-known quantum algorithms for quantum counting, quantum amplitude estimation, and quantum approximation. We then provide a rough estimation of the efficiency of our quantum learning algorithms for AEQSs.

Machine Learning by Adiabatic Evolutionary Quantum System

TL;DR

A basic idea of approximately utilizing well-known quantum algorithms for quantum counting, quantum amplitude estimation, and quantum approximation is developed and a rough estimation of the efficiency of these quantum learning algorithms for AEQSs is provided.

Abstract

A computational model of adiabatic evolutionary quantum system (or AEQS, pronounced "eeh-ks") was introduced in [Yamakami,2022] as a sort of quantum annealing and its underlying input-driven Hamiltonians are generated quantum-algorithmically by various forms of quantum automata families (including 1qqaf's). We study an efficient way to accomplish certain machine learning tasks by training these AEQSs quantumly. When AEQSs are controlled by 1qqaf's, it suffices in essence to find an optimal 1qqaf that approximately solves a target relational problem. For this purpose, we develop a basic idea of approximately utilizing well-known quantum algorithms for quantum counting, quantum amplitude estimation, and quantum approximation. We then provide a rough estimation of the efficiency of our quantum learning algorithms for AEQSs.

Paper Structure

This paper contains 15 sections, 3 theorems, 3 equations.

Key Result

Theorem 2.1

Yam22a For any decision problem (or equivalently, any language) $L$ over alphabet $\Sigma$, there exists an AEQS ${\cal S}$ of system size $1$ for which ${\cal S}$ solves $L$ with accuracy $1$.

Theorems & Definitions (4)

  • Theorem 2.1
  • Example 2.2
  • Lemma 3.1
  • Lemma 3.2