Many eukaryotic cells use pseudopodia for movement towards chemoattractants. We developed a computer algorithm to identify pseudopodia, and analyzed how pseudopodia of Dictyostelium cells are guided toward cAMP. Surprisingly, the direction of a pseudopod is not actively oriented toward the gradient, but is always perpendicular to the local cell curvature. The gradient induces a bias in the position where the pseudopod emerges: pseudopodia more likely emerge at the side of the cell closer to the gradient where perpendicular pseudopodia are pointed automatically toward the chemoattractant. A mutant lacking the formin dDia2 is not spherical but has many invaginations. Although pseudopodia still emerge at the side closer to the gradient, the su...
Eukaryotic cells extend pseudopodia for movement. In the absence of external cues, cells move in ran...
Eukaryotic cells extend pseudopodia for movement. In the absence of external cues, cells move in ran...
The mechanism of eukaryotic chemotaxis remains unclear despite intensive study. The most frequently ...
Many eukaryotic cells use pseudopodia for movement towards chemoattractants. We developed a computer...
The mechanism of chemotaxis is one of the most interesting issues in modern cell biology. Recent wor...
Eukaryotic cells extend pseudopodia for movement. In the absence of external cues, cells move in ran...
Chemotaxis is one of the most fascinating processes in cell biology. Shallow gradients of chemoattra...
The mechanism of chemotaxis is one of the most interesting issues in modern cell biology. Recent wor...
The mechanism of chemotaxis is one of the most interesting issues in modern cell biology. Recent wor...
Many amoeboid cells move by extending pseudopods. Here I present a new stochastic model for chemotax...
Cell migration in the absence of external cues is well described by a correlated random walk. Most s...
Current models of eukaryotic chemotaxis propose that directional sensing causes localized generation...
AbstractMany amoeboid cells move by extending pseudopods. Here I present a new stochastic model for ...
The mechanism of eukaryotic chemotaxis remains unclear despite intensive study. The most frequently ...
Eukaryotic cells extend pseudopodia for movement. In the absence of external cues, cells move in ran...
Eukaryotic cells extend pseudopodia for movement. In the absence of external cues, cells move in ran...
The mechanism of eukaryotic chemotaxis remains unclear despite intensive study. The most frequently ...
Many eukaryotic cells use pseudopodia for movement towards chemoattractants. We developed a computer...
The mechanism of chemotaxis is one of the most interesting issues in modern cell biology. Recent wor...
Eukaryotic cells extend pseudopodia for movement. In the absence of external cues, cells move in ran...
Chemotaxis is one of the most fascinating processes in cell biology. Shallow gradients of chemoattra...
The mechanism of chemotaxis is one of the most interesting issues in modern cell biology. Recent wor...
The mechanism of chemotaxis is one of the most interesting issues in modern cell biology. Recent wor...
Many amoeboid cells move by extending pseudopods. Here I present a new stochastic model for chemotax...
Cell migration in the absence of external cues is well described by a correlated random walk. Most s...
Current models of eukaryotic chemotaxis propose that directional sensing causes localized generation...
AbstractMany amoeboid cells move by extending pseudopods. Here I present a new stochastic model for ...
The mechanism of eukaryotic chemotaxis remains unclear despite intensive study. The most frequently ...
Eukaryotic cells extend pseudopodia for movement. In the absence of external cues, cells move in ran...
Eukaryotic cells extend pseudopodia for movement. In the absence of external cues, cells move in ran...
The mechanism of eukaryotic chemotaxis remains unclear despite intensive study. The most frequently ...