HiCForecast: dynamic network optical flow estimation algorithm for spatiotemporal Hi-C data forecasting.

Dmitry Pinchuk, H M A Mohit Chowdhury, Abhishek Pandeya, Oluwatosin Oluwadare
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Abstract

Motivation: The exploration of the 3D organization of DNA within the nucleus in relation to various stages of cellular development has led to experiments generating spatiotemporal Hi-C data. However, there is limited spatiotemporal Hi-C data for many organisms, impeding the study of 3D genome dynamics. To overcome this limitation and advance our understanding of genome organization, it is crucial to develop methods for forecasting Hi-C data at future time points from existing timeseries Hi-C data.

Result: In this work, we designed a novel framework named HiCForecast, adopting a dynamic voxel flow algorithm to forecast future spatiotemporal Hi-C data. We evaluated how well our method generalizes forecasting data across different species and systems, ensuring performance in homogeneous, heterogeneous, and general contexts. Using both computational and biological evaluation metrics, our results show that HiCForecast outperforms the current state-of-the-art algorithm, emerging as an efficient and powerful tool for forecasting future spatiotemporal Hi-C datasets.

Availability and implementation: HiCForecast is publicly available at https://github.com/OluwadareLab/HiCForecast.

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高通量预测:用于高通量数据时空预测的动态网络光流估计算法。
动机:探索细胞核内DNA的三维组织与细胞发育的各个阶段的关系,导致实验产生时空的Hi-C数据。然而,许多生物的时空Hi-C数据有限,阻碍了三维基因组动力学的研究。为了克服这一限制并提高我们对基因组组织的理解,从现有的时间序列Hi-C数据中开发预测未来时间点Hi-C数据的方法至关重要。结果:我们设计了一个名为HiCForecast的新框架,采用动态体素流算法对未来时空Hi-C数据进行预测。我们评估了我们的方法如何在不同物种和系统中推广预测数据,确保在同质、异质和一般环境下的性能。使用计算和生物评估指标,我们的研究结果表明,HiCForecast优于当前最先进的算法,成为预测未来时空Hi-C数据集的有效而强大的工具。可用性和实施:HiCForecast可在https://github.com/OluwadareLab/HiCForecast.Supplementary information公开获取;补充数据可在Bioinformatics在线获取。
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