Study uncovers potential new target for treatment of chronic, debilitating skin disease

man wearing a suit coat sitting in a chair next to a hood in a science lab man wearing a suit coat sitting in a chair next to a hood in a science lab
Clemson University Department of Genetics and Biochemistry Professor Shahid Mukhtar is leading a comprehensive study of impact of climate change, specifically heat and drought, on soybean yields, from the cellular to the whole plant as well as associated microbial communities. They’ll use advanced technologies and AI to develop solutions to boost yields, which now are forecasted to decrease by 40% by 2050.
College of Science

A team of researchers at Clemson University used an innovative multiomics approach to identify key immune mechanisms in a chronic and debilitating inflammatory skin condition.

The research, which was published in the journal Proceedings of the National Academy of Sciences (PNAS), offers a promising target for future therapies.

Shahid Mukhtar

Hidradenitis suppurativa (HS) is an immune disease that affects up to 4% of the global population and causes painful, recurring skin lesions and inflammation, primarily in the folds of the skin. It commonly affects women of African American descent.

Shahid Mukhtar and his team — Bharat Mishra, Nilesh Kumar and graduate student YiFei Gou — used single-cell sequencing techniques to pinpoint CD2 as a key immune receptor with elevated expression on T cells and innate lymphoid cells (ILCs), including natural killer cells, in HS-affected skin tissue.

In collaboration with researchers at the University of Alabama at Birmingham, Mukhtar’s team demonstrated through organotypic skin culture experiments from HS patients that blocking CD2 led to a significant reduction in cytokine and chemokine production, along with suppression of key pathogenic gene signatures.

Providing a potential therapeutic avenue

This finding suggests that blocking CD2 may effectively reduce the inflammatory response in HS, providing a potential new therapeutic avenue for managing symptoms and improving patient quality of life.

Gou, who has a keen interest in deep learning, a type of artificial intelligence (AI), hopes to further integrate single-cell transcriptomics with global protein-protein interactions using contextual AI. This approach aims to enhance understanding of cellular networks and disease mechanisms, pushing forward the frontiers of precision medicine for immune-related diseases like HS.

“Our integrative approach, combining single-cell data with molecular insights, shows the transformative potential of multiomics in discovering novel therapeutic targets,” Mukhtar said. “These findings deepen our understanding of HS and open new pathways for developing targeted therapies in HS and other immune-related conditions.”

Detailed findings were published in PNAS in an article titled, “Cd2 expressing innate lymphoid and T cells are critical effectors of immunopathogenesis in hidradenitis suppurativa.”