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Allen Institute launches CellScapes initiative

to transform our understanding of how human cells build tissues and organs

This time lapse video shows human stems cells growing in a 3D lumanoid structure

CellScapes marks a new era of cellular biology promising to drive advancements in cancer therapies and regenerative medicine

Understanding the building blocks of life

“Cells don’t act alone. They constantly shift and collaborate in ways we’re just beginning to deeply understand,” said Ru Gunawardane, Ph.D., Executive Director and Vice President of the Allen Institute for Cell Science. “With CellScapes, we’re moving beyond the static snapshots of biology and toward a living, dynamic picture of how cells create life.” 

CellScapes will describe these changes in mathematical terms to empower researchers to test, model, and predict cell behavior with unprecedented clarity. This critical insight will offer new ways to measure and represent cells that will redefine how we study them. 

“This foundational understanding we are seeking can really influence how new therapeutics, new medicines are made five years, 10 years down the road.”

Ru Gunawardane, Ph.D., Executive Vice President, Director of Allen Institute for Cell Science

A boundary-pushing moonshot

“CellScapes is a boundary-pushing moonshot with the potential to change the paradigm in cell biology,” said Rui Costa, D.V.M., Ph.D., President and CEO of the Allen Institute. “The combination of expertise in the area of 3D cellular organization with new imaging methods and new computational frameworks will hopefully reveal principles of how cells organize to form tissues.” 

CellScapes will include openly available tools, data, and visualizations for researchers, educators, and students worldwide that could pave the way for breakthroughs in regenerative medicine, cancer research, and personalized therapies. 

The future of cell biology

“With CellScapes, we’re going from snapshots to storylines, uncovering rules that govern how cells make decisions, transition states, and form tissues,” Gunawardane said. “This is the future of cell biology. We’re not just observing what life does—we’re starting to understand how and why it works.”