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AmapSim:一种基于植物学知识构建的全株结构模拟器,旨在承载外部功能模型。

AmapSim: a structural whole-plant simulator based on botanical knowledge and designed to host external functional models.

作者信息

Barczi Jean-François, Rey Hervé, Caraglio Yves, de Reffye Philippe, Barthélémy Daniel, Dong Qiao Xue, Fourcaud Thierry

机构信息

CIRAD, Cirad-Cnrs-Inra-Ird-Université Montpellier, France.

出版信息

Ann Bot. 2008 May;101(8):1125-38. doi: 10.1093/aob/mcm194. Epub 2007 Aug 31.

Abstract

BACKGROUND AND AIMS

AmapSim is a tool that implements a structural plant growth model based on a botanical theory and simulates plant morphogenesis to produce accurate, complex and detailed plant architectures. This software is the result of more than a decade of research and development devoted to plant architecture. New advances in the software development have yielded plug-in external functions that open up the simulator to functional processes.

METHODS

The simulation of plant topology is based on the growth of a set of virtual buds whose activity is modelled using stochastic processes. The geometry of the resulting axes is modelled by simple descriptive functions. The potential growth of each bud is represented by means of a numerical value called physiological age, which controls the value for each parameter in the model. The set of possible values for physiological ages is called the reference axis. In order to mimic morphological and architectural metamorphosis, the value allocated for the physiological age of buds evolves along this reference axis according to an oriented finite state automaton whose occupation and transition law follows a semi-Markovian function.

KEY RESULTS

Simulations were performed on tomato plants to demonstrate how the AmapSim simulator can interface external modules, e.g. a GREENLAB growth model and a radiosity model.

CONCLUSIONS

The algorithmic ability provided by AmapSim, e.g. the reference axis, enables unified control to be exercised over plant development parameter values, depending on the biological process target: how to affect the local pertinent process, i.e. the pertinent parameter(s), while keeping the rest unchanged. This opening up to external functions also offers a broadened field of applications and thus allows feedback between plant growth and the physical environment.

摘要

背景与目的

AmapSim是一款基于植物学理论实现结构植物生长模型并模拟植物形态发生以生成准确、复杂且详细植物架构的工具。该软件是十多年来致力于植物架构研究与开发的成果。软件开发的新进展产生了插件外部函数,使模拟器能够用于功能过程。

方法

植物拓扑结构的模拟基于一组虚拟芽的生长,这些芽的活动通过随机过程建模。生成轴的几何形状由简单的描述函数建模。每个芽的潜在生长通过一个称为生理年龄的数值表示,该数值控制模型中每个参数的值。生理年龄的可能值集称为参考轴。为了模拟形态和结构的变态,分配给芽生理年龄的值沿着该参考轴根据定向有限状态自动机演变,其占据和转移规律遵循半马尔可夫函数。

关键结果

对番茄植株进行了模拟,以展示AmapSim模拟器如何与外部模块接口,例如GREENLAB生长模型和辐射度模型。

结论

AmapSim提供的算法能力,例如参考轴,能够根据生物过程目标对植物发育参数值进行统一控制:如何在保持其他参数不变的情况下影响局部相关过程,即相关参数。这种对外部函数的开放也提供了更广泛的应用领域,从而允许植物生长与物理环境之间的反馈。

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