Quantum Circuit for Imputation of Missing Data

Fuente: arXiv
Salvato in:
Dettagli Bibliografici
Autori principali: Sanavio, Claudio, Tibaldi, Simone, Tignone, Edoardo, Ercolessi, Elisa
Natura: Preprint
Pubblicazione: 2024
Soggetti:
Accesso online:
Tags: Aggiungi Tag
Nessun Tag, puoi essere il primo ad aggiungerne!!
_version_ 1866911869984309248
author Sanavio, Claudio
Tibaldi, Simone
Tignone, Edoardo
Ercolessi, Elisa
author_facet Sanavio, Claudio
Tibaldi, Simone
Tignone, Edoardo
Ercolessi, Elisa
contents The imputation of missing data is a common procedure in data analysis that consists in predicting missing values of incomplete data points. In this work we analyse a variational quantum circuit for the imputation of missing data. We construct variational quantum circuits with gates complexity $O(N)$ and $O(N^2)$ that return the last missing bit of a binary string for a specific distribution. We train and test the performance of the algorithms on a series of datasets finding good convergence of the results. Finally, we test the circuit for generalization to unseen data. For simple systems, we are able to describe the circuit analytically, making possible to skip the tedious and unresolved problem of training the circuit with repetitive measurements. We find beforehand the optimal values of the parameters and we make use of them to construct an optimal circuit suited to the generation of truly random data.
format Preprint
id arxiv_https___arxiv_org_abs_2405_04367
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Quantum Circuit for Imputation of Missing Data
Sanavio, Claudio
Tibaldi, Simone
Tignone, Edoardo
Ercolessi, Elisa
Quantum Physics
The imputation of missing data is a common procedure in data analysis that consists in predicting missing values of incomplete data points. In this work we analyse a variational quantum circuit for the imputation of missing data. We construct variational quantum circuits with gates complexity $O(N)$ and $O(N^2)$ that return the last missing bit of a binary string for a specific distribution. We train and test the performance of the algorithms on a series of datasets finding good convergence of the results. Finally, we test the circuit for generalization to unseen data. For simple systems, we are able to describe the circuit analytically, making possible to skip the tedious and unresolved problem of training the circuit with repetitive measurements. We find beforehand the optimal values of the parameters and we make use of them to construct an optimal circuit suited to the generation of truly random data.
title Quantum Circuit for Imputation of Missing Data
topic Quantum Physics
url https://arxiv.org/abs/2405.04367