Exponential Distribution of Locomotion Activity in Cell Cultures
arXiv:physics/9902022 · doi:10.1103/PhysRevLett.81.3038
Abstract
In vitro velocities of several cell types have been measured using computer controlled video microscopy, which allowed to record the cells' trajectories over several days. On the basis of our large data sets we show that the locomotion activity displays a universal exponential distribution. Thus, motion resulting from complex cellular processes can be well described by an unexpected, but very simple distribution function. A simple phenomenological model based on the interaction of various cellular processes and finite ATP production rate is proposed to explain these experimental results.
4 pages, 3 figures
Cited by in corpus (15)
- Collective motion
- Persistent Cell Motion in the Absence of External Signals: A Search Strategy for Eukaryotic Cells
- Faster Mean-shift: GPU-accelerated clustering for cosine embedding-based cell segmentation and tracking
- Functional Analysis of Spontaneous Cell Movement under Different Physiological Conditions
- Self-propelled particles with fluctuating speed and direction of motion
- Network formation of tissue cells via preferential attraction to elongated structures
- Atomic Force Microscopy of height fluctuations of fibroblast cells
- Anomalous diffusion on dynamical networks: A model for interacting epithelial cell migration
- Distinct Speed and Direction Memories of Migrating Dendritic Cells Diversify Their Search Strategies
- Data-driven model construction for anisotropic dynamics of active matter
- Anomalous velocity distributions in active Brownian suspensions
- Phenomenological modeling of the motility of self-propelled microorganisms
- Non-Maxwellian velocity distribution and anomalous diffusion of {\it in vitro} kidney cells
- Modeling Hypermedia-Based Communication
- From semiotics of hypermedia to physics of semiosis: A view from system theory