The challenges of connecting molecular changes to tissue structure and highlights the potential of multifractal frameworks to quantify complex biological patterns ...
A single genetic “switch” may be the secret to how the body’s cleanup crew grows up and keeps our organs running smoothly.
An international team of scientists has discovered a new mathematical principle that explains how cells connect with each other to form tissues, an important step forward in understanding how organs ...
Researchers have created a way to guide and control the development of stem cells into specific tissues and organs, opening the door to developing a means of one day tackling complex diseases like ...
Growing tissues can crack, break, and dissociate to form structures that can later withstand immense forces.
Olympics Gold Medal Swimming in the Men’s 200 meter Individual Medley Final via GIPHY. The GIF above shows Michael Phelps swimming in the 200m Individual Medley at the 2016 Olympics. He is the most ...
Researchers have offered new ways to think about the immune system. The research, which indicates organ tissues become increasingly immune throughout life, may begin to alter fundamental ideas ...
Multicellular organisms are a mosaic of different cells, tissues, and systems, each with their own specific function and interactions with other cells within the organism and/or the larger environment ...
Our immune system relies on T cells to fight infections. But T cells don't just show up and react—first, they train, get a game plan, and coordinate their defenses in lymphoid organs. Researchers have ...
Researchers at the University of Liège have identified a key genetic regulator that enables macrophages to reach full maturity and preserve the health of our organs. The MafB factor, a veritable ...
Traditional-tissue engineering approaches (Panel A) seed cells onto a three-dimensional biomaterial scaffold that serves as a framework for new tissue development (i). The scaffold degrades as new ...
Scientists in Melbourne have discovered how tiny electrical pulses can steer stem cells as they grow, opening the door to new improved ways of creating new tissues, organs, nerves and bones. Subscribe ...
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