AMBER: Algorithm for Multiplexing spectrometer Background Estimation with Rotation-independence

Fuente: arXiv
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Hauptverfasser: Lass, Jakob, Cohen, Victor, Haro, Benjamín Béjar, Mazzone, Daniel G.
Format: Preprint
Veröffentlicht: 2025
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author Lass, Jakob
Cohen, Victor
Haro, Benjamín Béjar
Mazzone, Daniel G.
author_facet Lass, Jakob
Cohen, Victor
Haro, Benjamín Béjar
Mazzone, Daniel G.
contents State-of-the art neutron spectrometers enable simultaneous measurements of high-dimensional datasets, allowing for a large collection rate of dynamic material properties. In this paper, we present the Algorithm for Multiplexing spectrometer Background Estimation with Rotation-independence (AMBER), which is a segmentation algorithm designed to decompose measured neutron scattering data into model-agnostic foreground and background contributions. The method takes advantage of the fact that background and foreground signals are measured simultaneously during the data collection process, relying on rotational independence of background contributions. The algorithm, initially developed for multiplexing neutron spectrometers, aims to strongly reduce time consuming expert input, therefore promoting full data set usage while minimizing the source of systematic errors.
format Preprint
id arxiv_https___arxiv_org_abs_2507_11580
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle AMBER: Algorithm for Multiplexing spectrometer Background Estimation with Rotation-independence
Lass, Jakob
Cohen, Victor
Haro, Benjamín Béjar
Mazzone, Daniel G.
Instrumentation and Detectors
Data Analysis, Statistics and Probability
State-of-the art neutron spectrometers enable simultaneous measurements of high-dimensional datasets, allowing for a large collection rate of dynamic material properties. In this paper, we present the Algorithm for Multiplexing spectrometer Background Estimation with Rotation-independence (AMBER), which is a segmentation algorithm designed to decompose measured neutron scattering data into model-agnostic foreground and background contributions. The method takes advantage of the fact that background and foreground signals are measured simultaneously during the data collection process, relying on rotational independence of background contributions. The algorithm, initially developed for multiplexing neutron spectrometers, aims to strongly reduce time consuming expert input, therefore promoting full data set usage while minimizing the source of systematic errors.
title AMBER: Algorithm for Multiplexing spectrometer Background Estimation with Rotation-independence
topic Instrumentation and Detectors
Data Analysis, Statistics and Probability
url https://arxiv.org/abs/2507.11580