定位实体的微积分

Adriana B. Compagnoni, P. Giannini, Catherine Kim, Matthew Milideo, Vishakha Sharma
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引用次数: 4

摘要

我们定义了BioScapeL,一个三维空间中的随机pi微积分。BioScapeL的一个新颖之处在于实体具有可编程的位置。程序员可以指定放置实体的特定位置,或者指定相对于实体当前位置的位置。扩展的动机来自于描述空间中生物化学物种种群的进化的需要,同时保持足够高的描述,以便像扩散、碰撞和限制这样的现象可以保留微积分语义的一部分。结合从BioScape继承的随机扩散运动,可编程位置使我们能够捕获聚合物,低聚物和复合物(如微管或肌动蛋白丝)的配置组合。BioScapeL的其他新方面包括随机翻译和缩放。随机翻译有助于描述新实体相对于旧实体的位置。例如,当一个细胞分泌水合氢离子时,该离子应该被放置在离原细胞一定距离的地方,但方向是随机的。此外,扩展允许我们在高层次上捕捉事件,如划分和增长;例如,有丝分裂后的子细胞只有母细胞的一半大小。
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A Calculus of Located Entities
We define BioScapeL, a stochastic pi-calculus in 3D-space. A novel aspect of BioScapeL is that entities have programmable locations. The programmer can specify a particular location where to place an entity, or a location relative to the current location of the entity. The motivation for the extension comes from the need to describe the evolution of populations of biochemical species in space, while keeping a sufficiently high level description, so that phenomena like diffusion, collision, and confinement can remain part of the semantics of the calculus. Combined with the random diffusion movement inherited from BioScape, programmable locations allow us to capture the assemblies of configurations of polymers, oligomers, and complexes such as microtubules or actin filaments. Further new aspects of BioScapeL include random translation and scaling. Random translation is instrumental in describing the location of new entities relative to the old ones. For example, when a cell secretes a hydronium ion, the ion should be placed at a given distance from the originating cell, but in a random direction. Additionally, scaling allows us to capture at a high level events such as division and growth; for example, daughter cells after mitosis have half the size of the mother cell.
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