Most popular articles
Everything About Peaches. Clemson University Cooperative Extension Service Everything About Peaches Website: whether you are a professional or backyard peach...
Mission Statement. For the sake of mankind and the world as a whole a further increase of the sustainability...
Newsletter 9: July 2013 - Temperate Fruits in the Tropics and Subtropics. Download your copy of the Working Group Temperate...
USA Walnut varieties. The Walnut Germplasm Collection of the University of California, Davis (USA). A description of the Collection and a History...
China Walnut varieties.

Articles

ESTIMATING LEAF AREA DISTRIBUTION IN THE GREENHOUSE POT CHRYSANTHEMUM CULTIVAR ‘LOMPOC’

Article number
766_8
Pages
81 – 88
Language
English
Abstract
A dynamic model was developed with the objective of predicting changes in shoot leaf area in pot chrysanthemum.
From specified final areas of individual leaves, the model can reconstruct dynamic growth of each leaf on a side shoot using a modified Richards function.
In the model, growth is related to an index of plant development and the relative time of leaf appearance and the following growth can be estimated.
Experiments were conducted under greenhouse conditions to collect data for parameter estimation, model verification and model validation.
When compared with the data used for parameter estimation, the model simulations fitted the data with R2-values ranging from 0.979. In the validation trial the model showed a tendency of overestimating the early growth of the leaves.
The R2 values ranged from 0.899 to 0.993.

Publication
Authors
R.U. Larsen, M. Nothnagl
Keywords
Chrysanthemum × morifolium, Dendranthema grandiflora, shoot growth, growth simulation, growth model, leaf unfolding, phyllotaxis
Full text
Online Articles (67)
M.S. Roh | Young Hee Joung | Jung Keun Suh | Ae-Kyung Lee
Wan-Soon Kim | Mi-Young Roh | J.H. Lieth | N.S. Mattson
Jiang Xiwang | Zhang Qixiang | Zhang Ping | Wei Chuanbin | Lu Miao
J. Bjerregaard Lund | O. Körner | J. Mazanti Aaslyng | T.J. Blom
H.T. Chen | C.E. Kuo | C.T. Shii | S.W. Chin
A. Antonidaki-Giatromanolaki | J.E. Orchard | M. Dragassaki | J.C. Vlahos
R.A. Criley | K.W. Leonhardt | D. Oka | P. Shingaki
M.W. Borys | H. Leszczyńska-Borys | J.L. Galván
S. Ichihashi | T. Higuchi | H. Shibayama | Y. Tesima | Y. Nishiwaki | K. Ota
Wei-Ting Tsai | Yin-Tung Wang | Huey-Ling Lin
Fure-Chyi Chen | Jun-Yi Yu | Pei-Yin Chen | Ya-Wen Huang
Genfa Zhu | Dongmei Li | Qingsheng Ye | Zhenfei Guo
K.-Y. Guan | H. Ma | J.-X. Li | H.-Z. Li | H. Yamaguchi
M.W. Borys | H. Leszczyńska-Borys | J.L. Galván
Hongbo Zhao | Fadi Chen | Yanfang Wang | Sumei Chen | Weimin Fang | Weiming Guo
Nianjun Teng | Fadi Chen | Zhongchun Jiang | Weimin Fang | Tingting Chen
Chan-Gu Lee | Jong-Jin Choi | Ji-Yong Lee | Eun-Mo Lee | Kyeong-Hak Kwon
N. Kobayashi | D. Mizuta | A. Nakatsuka | M. Akabane
R.A. Criley | M.S. Roh | M. Kikuchi | R.M. Manshardt
Y. Zhang | T. Hayashi | M. Inoue | Y. Oyama | M. Hosokawa | S. Yazawa