Simulated growth of plants

Source: Wikipedia, the free encyclopedia.

The simulated growth of plants is a significant task in of

mathematical biology, which seeks to reproduce plant morphology
with computer software. Electronic trees (e-trees) usually use
A-life
. A universally accepted system for describing changes in plant morphology at the cellular or modular level has yet to be devised.
[1] The most widely implemented tree-generating algorithms are described in the papers "Creation and Rendering of Realistic Trees", and Real-Time Tree Rendering

'Weeds', generated using an L-system in 3D.

The realistic modeling of plant growth is of high value to biology, but also for computer games.

Theory + Algorithms

A biologist,

fungi and studied the growth patterns of various types of algae, such as the blue/green bacteria Anabaena catenula
. Originally the L-systems were devised to provide a formal description of the development of such simple multicellular organisms, and to illustrate the neighbourhood relationships between plant cells. Later on, this system was extended to describe higher plants and complex branching structures. Central to L-systems, is the notion of rewriting, where the basic idea is to define complex objects by successively replacing parts of a simple object using a set of rewriting rules or productions. The rewriting can be carried out recursively. L-Systems are also closely related to
Koch curves
.

A Fractal plant
A Fractal plant

Environmental interaction

A challenge for plant simulations is to consistently integrate environmental factors, such as surrounding plants, obstructions, water and mineral availability, and lighting conditions. Essentially, attempting to build virtual environments with as many parameters as computationally feasible, thereby, not only simulating the growth of the plant, but also the environment it is growing within, and, in fact, whole ecosystems. Changes in resource availability influence plant growth, which in turn results in a change of resource availability. Powerful models and powerful hardware will be necessary to effectively simulate these recursive interactions of recursive structures.

Software

see Comparison of tree generators and A Survey of Modeling and Rendering Trees

See also

External links

References

  1. ^ "Simulating plant growth". Archived from the original on 2009-12-09. Retrieved 2009-10-18.
  2. S2CID 14246115.{{cite book}}: CS1 maint: date and year (link
    )
  3. .