TY - JOUR
T1 - Perspective on interdisciplinary approaches on chemotaxis
AU - Simmchen, Juliane
AU - Gordon, Daniel
AU - MacKenzie, John
AU - Pagonabarraga, Ignacio
AU - Roggatz, Christina C.
AU - Endres, Robert G.
AU - Xiao, Zuyao
AU - Friedrich, Benjamin M.
AU - Qiu, Tian
AU - Painter, Kevin J.
AU - Golestanian, Ramin
AU - Contini, Claudia
AU - Ucar, Mehmet Can
AU - Yossifon, Gilad
AU - Sommer, Jens Uwe
AU - Rappel, Wouter-Jan
AU - Wan, Kirsty Y.
AU - Armitage, Judith
AU - Insall, Robert
PY - 2025/11/17
Y1 - 2025/11/17
N2 - Most living things on Earth – from bacteria to humans – must migrate in some way to find favourable conditions. Therefore, they nearly all use chemotaxis, in which their movement is steered by a gradient of chemicals. Chemotaxis is fundamental to many processes that control our well-being, including inflammation, neuronal patterning, wound healing, tumour spread in cancer, even embryogenesis. Understanding it is a key goal for biologists. Despite the fact that many basic principles appear to have been conserved throughout evolution, most research has focused on understanding the molecular mechanisms that control signal processing and locomotion. Cell signaling – cells responding to time-varying external signals – underlies almost all biological processes at the cellular scale. Chemotaxis of single cells provides particularly amenable model systems for quantitative cell signaling studies, even in the presence of noise and fluctuations, because the output, the cell's motility response, is directly observable. However, the different scientific disciplines involved in chemotaxis research rarely overlap, so biologists, physicists and mathematicians interact far too infrequently, methodologies and models differ and commonalities are often overlooked, such as the possible influence of physical or environmental conditions, which has been largely neglected.
AB - Most living things on Earth – from bacteria to humans – must migrate in some way to find favourable conditions. Therefore, they nearly all use chemotaxis, in which their movement is steered by a gradient of chemicals. Chemotaxis is fundamental to many processes that control our well-being, including inflammation, neuronal patterning, wound healing, tumour spread in cancer, even embryogenesis. Understanding it is a key goal for biologists. Despite the fact that many basic principles appear to have been conserved throughout evolution, most research has focused on understanding the molecular mechanisms that control signal processing and locomotion. Cell signaling – cells responding to time-varying external signals – underlies almost all biological processes at the cellular scale. Chemotaxis of single cells provides particularly amenable model systems for quantitative cell signaling studies, even in the presence of noise and fluctuations, because the output, the cell's motility response, is directly observable. However, the different scientific disciplines involved in chemotaxis research rarely overlap, so biologists, physicists and mathematicians interact far too infrequently, methodologies and models differ and commonalities are often overlooked, such as the possible influence of physical or environmental conditions, which has been largely neglected.
KW - active colloids
KW - bacteria
KW - chemotaxis
KW - dictyostelium
U2 - 10.1002/anie.202504790
DO - 10.1002/anie.202504790
M3 - Article
SN - 1433-7851
VL - 64
JO - Angewandte Chemie International Edition
JF - Angewandte Chemie International Edition
IS - 47
M1 - e202504790
ER -