Research in cell biology traditionally emphasized chemistry and gene regulation, with physical forces more commonly studied at the scale of tissues, organs, and development rather than within individual cells. Adel Al Jord and his team brought a new perspective to this question by
applying quantitative imaging, physical analysis, cell and computational biology to examine how forces generated inside the cell contribute to nuclear organization and RNA regulation. This approach opened a new direction of research, linking intracellular mechanics directly to fundamental biological function.



The same types of nuclear condensates studied in oocytes are found in many other cell types and across organisms. They play central roles in RNA processing, ribosome production, and genome regulation. This insight prompted Adel to broaden his research beyond fertility.

His group now investigates how intracellular forces shape cell function across multiple spatial scales. By combining microscopy, targeted perturbation of cytoskeletal systems, and computational modeling, they study how force influences organization at the level of whole organelles and at the level of molecular interactions within nuclear compartments. Together, these effects shape how genetic information is processed during growth, division, and differentiation.

A further consequence of this framework is its relevance to disease. Alterations in cytoskeletal organization and nuclear mechanics are documented in cancer, premature aging syndromes, as well as muscular and neurodegenerative disorders. Adel groups these conditions under the concept of mechanopathologies: diseases in which disrupted mechanical regulation contributes to altered cellular behavior.

In such cases, changes in force transmission can reshape nuclear condensates, modify RNA processing, and influence gene expression. Studies in disease models already show links between altered condensate organization and pathological cellular states. Adel’s work provides a mechanistic foundation for understanding how these changes arise and how they affect cell function.

Pursuing this new perspective requires courage and creativity. Adel and his team choose to explore questions that cross disciplinary boundaries, unifying insights and concepts that have not been explored before. This is the core of scientific progress: seeing the world from a perspective that we haven’t seen before.
Like innovative entrepreneurs, they invest in a vision that challenges established thinking and opens new possibilities. Their work continues to expand how cell biology is understood, offering a new way of seeing how life operates at the smallest of scales.