基于人类微生物组预测缺失元数据和宿主表型的多任务知识启动神经网络。

IF 2.4 Q2 MATHEMATICAL & COMPUTATIONAL BIOLOGY Bioinformatics advances Pub Date : 2024-12-13 eCollection Date: 2025-01-01 DOI:10.1093/bioadv/vbae203
Mahsa Monshizadeh, Yuhui Hong, Yuzhen Ye
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引用次数: 0

摘要

动机:人类微生物组中的微生物特征与各种人类疾病密切相关,推动了基于微生物组的疾病预测机器学习模型的发展。尽管取得了进展,但在提高预测准确性、概括性和可解释性方面仍然存在挑战。混杂因素,如宿主的性别、年龄和体重指数,显著影响人类微生物组,使基于微生物组的预测复杂化。结果:为了解决这些挑战,我们开发了MicroKPNN-MT,这是一个基于微生物组数据以及年龄和性别等额外元数据预测人类表型的统一模型。该模型建立在我们早期的MicroKPNN框架之上,该框架将微生物物种的先验知识整合到神经网络中,以提高预测的准确性和可解释性。在MicroKPNN-MT中,元数据可用时作为预测的附加输入特征。否则,该模型将使用额外的解码器从微生物组数据中预测元数据。我们将MicroKPNN-MT应用于mBodyMap中收集的微生物组数据,涵盖健康个体和25种不同的疾病,并证明了其作为多种疾病预测工具的潜力,同时提供了缺失元数据的预测。我们的研究结果表明,结合真实的或预测的元数据有助于提高疾病预测的准确性,更重要的是,有助于提高预测模型的泛化性。可用性和实现:https://github.com/mgtools/MicroKPNN-MT。
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Multitask knowledge-primed neural network for predicting missing metadata and host phenotype based on human microbiome.

Motivation: Microbial signatures in the human microbiome are closely associated with various human diseases, driving the development of machine learning models for microbiome-based disease prediction. Despite progress, challenges remain in enhancing prediction accuracy, generalizability, and interpretability. Confounding factors, such as host's gender, age, and body mass index, significantly influence the human microbiome, complicating microbiome-based predictions.

Results: To address these challenges, we developed MicroKPNN-MT, a unified model for predicting human phenotype based on microbiome data, as well as additional metadata like age and gender. This model builds on our earlier MicroKPNN framework, which incorporates prior knowledge of microbial species into neural networks to enhance prediction accuracy and interpretability. In MicroKPNN-MT, metadata, when available, serves as additional input features for prediction. Otherwise, the model predicts metadata from microbiome data using additional decoders. We applied MicroKPNN-MT to microbiome data collected in mBodyMap, covering healthy individuals and 25 different diseases, and demonstrated its potential as a predictive tool for multiple diseases, which at the same time provided predictions for the missing metadata. Our results showed that incorporating real or predicted metadata helped improve the accuracy of disease predictions, and more importantly, helped improve the generalizability of the predictive models.

Availability and implementation: https://github.com/mgtools/MicroKPNN-MT.

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