Page 2: Research news on Tissues

In the context of physical systems, tissues are hierarchically organized assemblies of cells and extracellular matrix that exhibit emergent mechanical, transport, and signaling properties distinct from those of their individual components. They function as active, viscoelastic materials capable of growth, remodeling, force generation, and collective migration, governed by mechano-chemical feedback and spatial patterning. Tissue-level behavior arises from cell–cell and cell–matrix interactions, including adhesion, cytoskeletal dynamics, and morphogen gradients, and can be modeled using continuum mechanics, active matter frameworks, or agent-based approaches to capture processes such as morphogenesis, homeostasis, and mechanotransduction in developmental and physiological systems.

Cells that are not our own may unlock secrets about our health

During pregnancy, maternal and fetal cells migrate back and forth across the placenta, with fetal cells entering the mother's bloodstream and tissues. They can settle in maternal organs such as the thyroid, liver, lungs, ...

Ancient sea anemone sheds light on animal cell type evolution

One of the biggest quests in biology is understanding how every cell in an animal's body carries an identical genome yet still gives rise to a kaleidoscope of different cell types and tissues. A neuron doesn't look nor behave ...

Biologists reveal ancient form of cell adhesion

The cells of all animals—including humans—are characterized by their ability to adhere particularly well to surfaces in their environment. This mechanically stable adhesion enables the development of complex tissues and organs ...

Foundation model reveals how cells are organized in tissues

Researchers at Helmholtz Munich and the Technical University of Munich (TUM) have developed Nicheformer, the first large-scale foundation model that integrates single-cell analysis with spatial transcriptomics. Trained on ...

Muscle tissue from a 3D printer—produced in zero gravity

Human health is the Achilles heel of space travel. Researchers at ETH Zurich have now succeeded in printing complex muscle tissue in zero gravity. This will enable drugs for space missions to be tested in the future.

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