Spanish researchers develop open-source tool for cancer gene networks

Researchers at the University of Navarra in Spain have launched RNACOREX, an open-source software that uncovers hidden genetic networks in cancer tumors. The tool analyzes thousands of molecular interactions and predicts patient survival with clarity rivaling advanced AI systems. Tested on data from 13 cancer types, it provides interpretable insights to advance cancer research.

Researchers from the University of Navarra have introduced RNACOREX, a new open-source platform designed to reveal the complex genetic networks underlying cancer. Developed at the Institute of Data Science and Artificial Intelligence (DATAI) in collaboration with the Cancer Center Clínica Universidad de Navarra, the software integrates data from international biological databases with gene expression information to identify key miRNA-mRNA interactions.

These interactions form regulatory networks that influence tumor behavior and patient outcomes. As Rubén Armañanzas, head of the Digital Medicine Laboratory at DATAI and a lead author, explains, "Understanding the architecture of these networks is crucial for detecting, studying, and classifying different tumor types. However, reliably identifying these networks is a challenge due to the vast amount of available data, the presence of many false signals, and the lack of accessible and precise tools capable of distinguishing which molecular interactions are truly associated with each disease."

RNACOREX addresses these issues by building probabilistic models from ranked interactions, offering a clear molecular map of tumor function. Evaluated using data from The Cancer Genome Atlas (TCGA) consortium, the tool was applied to 13 cancer types, including breast, colon, lung, stomach, melanoma, and head and neck tumors. It predicts survival with accuracy comparable to sophisticated AI models but stands out for its interpretable explanations.

Aitor Oviedo-Madrid, first author and a researcher at DATAI, notes, "The software predicted patient survival with accuracy on par with sophisticated AI models, but with something many of those systems lack: clear, interpretable explanations of the molecular interactions behind the results." Beyond predictions, RNACOREX identifies shared molecular patterns across tumors and highlights biomedically relevant molecules, potentially aiding in new hypotheses for diagnostics and treatments. Oviedo-Madrid adds, "Our tool provides a reliable molecular 'map' that helps prioritize new biological targets, speeding up cancer research."

Published in PLOS Computational Biology in 2025 (DOI: 10.1371/journal.pcbi.1013660), RNACOREX is available on GitHub and PyPI, with automated database tools for easy integration. Funded partly by the Government of Navarra's ANDIA 2021 program and ERA PerMed JTC2022 PORTRAIT, the project emphasizes explainable AI in genomics. Armañanzas states, "As artificial intelligence in genomics accelerates, RNACOREX positions itself as an explainable, easy-to-interpret solution and an alternative to 'black-box' models, helping bring omics data into biomedical practice."

Future expansions include pathway analysis and additional molecular layers to better model tumor progression, supporting precision cancer medicine.

Awọn iroyin ti o ni ibatan

Scientific illustration showing AI tool SIGNET mapping disrupted gene networks in Alzheimer's brain neurons.
Àwòrán tí AI ṣe

AI tool maps causal gene-control networks in Alzheimer’s brain cells

Ti AI ṣe iroyin Àwòrán tí AI ṣe Ti ṣayẹwo fun ododo

Researchers at the University of California, Irvine report that a machine-learning system called SIGNET can infer cause-and-effect links between genes in human brain tissue, revealing extensive rewiring of gene regulation—especially in excitatory neurons—in Alzheimer’s disease.

Researchers at the University of Geneva have developed MangroveGS, an AI model that predicts cancer metastasis risk with nearly 80% accuracy. The tool analyzes gene expression patterns in tumor cells, initially from colon cancer, and applies to other types like breast and lung. Published in Cell Reports, it aims to enable more personalized treatments.

Ti AI ṣe iroyin

Researchers have identified a new class of orphan non-coding RNAs, called oncRNAs, that appear across various cancer types and form unique molecular signatures. These molecules not only identify cancer type and subtype with high accuracy but also drive tumor growth in some cases. Their presence in the bloodstream offers potential for simple blood tests to monitor treatment response and predict patient survival.

Researchers at Cold Spring Harbor Laboratory have identified key proteins and protein complexes that help certain carcinomas shift their cellular identity and potentially evade treatment. Two new studies, focusing on pancreatic cancer and tuft cell lung cancer, highlight molecular structures that could become targets for more precise and selective therapies.

Ti AI ṣe iroyin

Researchers have created the first complete map of mutations in the CTNNB1 gene that influence tumor development. By testing all possible changes in a critical hotspot, they revealed varying effects on cancer signals. The findings align with patient data and suggest implications for immunotherapy.

A new generative AI tool called CytoDiffusion analyzes blood cells with greater accuracy than human experts, potentially improving diagnoses of diseases like leukemia. Developed by researchers from UK universities, the system detects subtle abnormalities and quantifies its own uncertainty. It was trained on over half a million images and excels at flagging rare cases for review.

Ti AI ṣe iroyin

Researchers at Northwestern University have developed a more effective therapeutic vaccine for HPV-related cancers by rearranging components in a DNA-based nanoparticle. This structural adjustment significantly enhances the immune system's ability to target and destroy tumors. The findings, published in Science Advances, highlight the importance of molecular arrangement in vaccine design.

 

 

 

Ojú-ìwé yìí nlo kuki

A nlo kuki fun itupalẹ lati mu ilọsiwaju wa. Ka ìlànà àṣírí wa fun alaye siwaju sii.
Kọ