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Polar electrostatic forces drive poleward chromosome motions

机译:极性静电力驱动极向染色体运动

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Recent experiments revealing nanoscale electrostatic force generation at kinetochores for chromosome motions have prompted models for interactions between positively charged molecules in kinetochores and negative charge at and near the plus ends of microtubules. A clear picture of how kinetochores and centrosomes establish and maintain a dynamic coupling to microtubules for force generation during the complex motions of mitosis remains elusive. The molecular cell biology paradigm requires that specific molecules, or molecular geometries, for polar force generation be identified. While progress has been made regarding explanations of kinetochore-based chromosome motility, molecular machinery for chromosome poleward movements at centrosomes has yet to be identified. The present work concerns polar generation of poleward force in terms of experimentally known electric charge distributions at microtubule minus ends and centrosomes interacting over nanometer distances.
机译:最近的实验揭示了在动粒体中产生染色体运动的纳米级静电力,促使人们建立了动粒体中带正电荷的分子与微管正端及附近的负电荷之间相互作用的模型。在有丝分裂的复杂运动过程中,动植物和中心体如何建立并维持与微管的​​动态耦合以产生力的清晰图景仍然难以捉摸。分子细胞生物学范式要求确定产生极性力的特定分子或分子几何形状。尽管基于动粒体的染色体运动的解释已取得进展,但尚未确定用于中心体染色体极向运动的分子机制。目前的工作涉及通过微管负端和中心体在纳米距离上相互作用的实验已知电荷分布,来产生极向力的极性。

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