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Computer simulation of sphenopsid architecture. I. Principles and methodology.
Daviero1, Meyer-Berthaud, Lecoustre
1Abteilung Palaeobotanik Am Geologisch-Palaeontologischen Institut und Museum, WestfälischeWilhelms-Universität Münster, Hindenburgplatz 57-59, D-48143, Münster, Germany
Summary
This study introduces the AMAP modelling system for plant morphology, enabling the reconstruction of plant growth shapes. The methodology is particularly useful for modelling incomplete fossil plants by using architectural templates.
Area of Science:
- Botany
- Paleobotany
- Computational Biology
Background:
- Plant morphology and growth patterns are complex.
- Existing modelling systems may not adequately capture the nuances of plant development.
- Hallé et al. (1978) established principles for plant architectural features.
Purpose of the Study:
- To present the AMAP (Arbres et Modifications Architecturales) modelling system for plant morphology.
- To detail the methodology, including architectural templates and statistical data processing.
- To demonstrate the system's applicability to plants with limited specimens, such as Equisetum telmateia.
Main Methods:
- Utilizing an architectural template approach.
- Employing statistical processing of morphological data from sample plants.
- Modeling plant growth by adding discrete morphological entities (axial components, branch orders, extension units, internodes).
Main Results:
- The AMAP system successfully models the morphological development of plant structures.
- The methodology is adaptable for plants with limited or fragmented specimens.
- Visual representations of plants at different ontogenetical stages can be generated.
Conclusions:
- The AMAP modelling system provides a robust method for reproducing plant growth shapes.
- This approach is highly relevant for reconstructing incomplete fossil plants.
- The system enhances understanding of plant growth, branching strategies, and geometric parameters.