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Artificial intelligence (AI) has emerged as a powerful platform to streamline the analysis of complex genomic datasets and help researchers explore the genetic basis of important diseases or phenotypes. In a new Call for Papers, Communications Biology, Nature Communications and Scientific Reports are interested in submissions that highlight the possibilities offered by AI approaches to improve genomics research, regardless of the model system.
Original research Articles can report novel methods that involve AI-based algorithms or focus on specific applications of machine or deep learning to identify or prioritise genes and variants associated with a particular trait. Communications Biology and Nature Communications will also consider Reviews, Perspectives, and Comments that are relevant to these topics, though all submissions will be subject to the same peer review process and editorial standards as regular manuscripts considered at the respective journals.
A metagenomic analysis of 1,142 field-collected Anopheles gambiae mosquito specimens by the Microsoft Premonition Bayesian mixture model pipeline revealed a diverse set of vertebrate hosts, as well as the presence of Plasmodium parasites and other microbes.
Designing a supervised latent factor framework for snRNA-seq human brain, the authors find distinct Alzheimer’s-predictive gene modules across celltypes, suggesting subcelltype disease progression trajectories.
A study utilizing unsupervised deep learning to generate interpretable brain imaging phenotypes from brain T1 and T2-FLAIR MRI identified 97 genetic loci enhancing understanding of brain structure genetics.
ATLAS is a pair of AI Tumor Lineage and Site-of-origin machine learning models, that can accurately classify both primary and metastatic tumors using high-throughput RNA expression data and can identify de-differentiated anaplastic tumors.
Many diseases can display distinct brain imaging phenotypes across individuals, potentially reflecting disease subtypes. However, biological interpretability is limited if the derived subtypes are not associated with genetic drivers or susceptibility factors. Here, the authors describe a deep-learning method that links imaging phenotypes with genetic factors, thereby conferring genetic correlations to the disease subtypes.
Here, authors present PhenoSV, a phenotype-aware machine-learning model for the functional interpretation of various types of structural variants (SVs) and genes within or outside SVs, facilitating the extraction of biological insights from coding and noncoding SVs.
The authors develop deep learning models to identify genome-wide polyA sites at nucleotide resolution and calculate site strength. They further examine genomic parameters regulating site usage and reveal genetic variants altering polyA activity.
AVAMB is a deep learning ensemble approach for metagenomics binning that achieves state-of-the-art binning performance and increased taxonomic diversity on both synthetic and real datasets.
A deep-learning framework leverages data from diverse populations and disentangles ancestry from the phenotype-relevant information in its representation.