Can AI Help Piece Together the Puzzle of Cancer—and HIV?
Cracking the omics code
By Andrea Gramatica, PhD
In biology, omics refers to the comprehensive study of the molecules that make up cells and organisms. This includes genomics, for example, which focuses on the entire set of genes, or proteomics, which studies all proteins. These layers of information work together to determine how cells function, interact, and respond to their environment. Understanding omics data is crucial for medical research because it provides a holistic view of biological processes and helps scientists identify disease markers, predict treatment responses, and uncover hidden mechanisms of various conditions.

Towards precision medicine
New technologies now allow scientists to study patients in much greater detail by analyzing their omics data (genes, proteins, and other biological markers). This wealth of data has been instrumental in guiding the development of tailored treatments, marking a shift towards precision medicine—therapies designed to optimize outcomes for particular groups of patients.
A major hurdle in medical research is dealing with incomplete datasets: Genetic, protein, and molecular data often come in fragments, making it difficult to draw solid conclusions. Imagine trying to complete a puzzle with missing pieces; without them, the full picture remains unclear. Scientists face a similar challenge when studying diseases.
Expert puzzle solver
A new study led by Dr. Bo Wang and colleagues at the University of Toronto, Canada, published in Nature Machine Intelligence introduces Integrate Any Omics (IntegrAO), an AI-driven tool designed to integrate fragmented biological datasets in cancer research for more precise classification. By acting like an expert puzzle solver, IntegrAO stitches together different pieces of information, ensuring no valuable data is left behind.
This technology could be a game-changer in HIV research. Over the past 40 years, numerous clinical trials and laboratory studies have been conducted on blood and tissue samples from people living with HIV at different stages of infection, in varied settings, and under diverse treatment regimens. These studies have generated enormous amounts of omics data (spanning genomics, transcriptomics, proteomics, and epigenomics), providing a deep pool of biological information. However, much of this data was collected long before AI-powered tools were available and is not structured for seamless computational analysis. As a result, the sheer volume and complexity of the data remain an untapped resource for advancing HIV therapeutics.
Patterns revealed
The type of approach described in Dr. Wang’s study presents an opportunity to change this. By integrating and harmonizing these fragmented datasets, the model could reveal patterns that were previously inaccessible, uncovering new therapeutic targets and potential pathways to a cure.
As AI-driven tools like IntegrAO continue to evolve, they offer hope for a future where science and technology work hand in hand to deliver more effective, personalized treatments for HIV, cancer, and beyond. This is the dawn of a new era in precision medicine, one where AI helps bridge the gap between big data and real-world patient care, bringing us closer to solving some of the most complex medical mysteries of our time.
Dr. Gramatica is an amfAR vice president and director of research.
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