ESTIMATION OF THE ANNUAL COST OF KIWIFRUIT VINE GROWTH AND MAINTENANCE

被引:19
作者
WALTON, EF
FOWKE, PJ
机构
[1] HortResearch, Ruakura Research Centre, Hamilton
[2] AgResearch, Ruakura Research Centre, Hamilton
关键词
ACTINIDIA DELICIOSA; KIWIFRUIT; CARBON ECONOMY; GROWTH RESPIRATION; MAINTENANCE RESPIRATION;
D O I
10.1006/anbo.1995.1139
中图分类号
Q94 [植物学];
学科分类号
071001 ;
摘要
Elemental analysis (for carbon, hydrogen, nitrogen and sulphur) and ash data for kiwifruit [Actinidia deliciosa (A. Chev.) C. F. Liang et A. R. Ferguson var. deliciosa cv. Hayward] stems, leaves and fine roots were used to calculate the specific costs (kg carbohydrate kg(-1) dry matter) of organ synthesis with ammoniacal nitrogen supply. Those costs ranged between 1.19 and 1.35 for stems and 1.19 and 1.27 for leaves. The mean annual specific cost for fine roots was 1.17. Seasonal vine growth costs were calculated by multiplying the specific costs by biomass data for a typical vine. Total cost of synthesis was 57.2 kg carbohydrate per vine year(-1), taking fine root turnover as three times per season. Nitrate nitrogen supply increased that cost by 6.6 % to 61.0 kg carbohydrate per vine year(-1). Fruit growth accounted for the largest proportion of synthetic costs. Vine growth respiration (expressed in terms of carbohydrate equivalents) accounted for approximately 11.5 % of the total cost of synthesis. Maintenance respiration was estimated to be 5.28, 8.44, 1.90, 8.62 and 13.3 kg carbohydrate per organ year(-1) for stems, leaves, fruit, above-ground perennial components and roots, respectively. Total annual cost of growth and maintenance for a mature vine was 94.7 and 98.5 kg carbohydrate per vine year-l with ammoniacal and nitrate nitrogen supply, respectively. Both values are similar to an estimate of vine photosynthesis. Maintenance respiration accounted for approximately 40 % of the total annual cost of vine growth, regardless of the form of nitrogen supplied. Peak carbohydrate demand was during the period from 60 to 160 d after budbreak. (C) 1995 Annals of Botany Company
引用
收藏
页码:617 / 623
页数:7
相关论文
共 29 条
[1]  
Blanchar R.W., Rehm G., Caldwell A.C., Sulfur in plant materials by digestion with nitric and perchloric acid, Soil Science Society of America Proceedings, 29, pp. 71-72, (1965)
[2]  
Buwalda J.G., A mathematical model of carbon acquisition and utilisation by kiwifruit vines, Ecological Modelling, 57, pp. 43-64, (1991)
[3]  
Buwalda J.G., Curtis J.P., Smith G.S., Use of interactive computer graphics for simulation of radiation interception and photosynthesis for canopies of kiwifruit vines with heterogeneous surface shape and leaf area distribution, Annals of Botany, 72, pp. 17-26, (1993)
[4]  
Buwalda J.G., Hutton R.C., Seasonal changes in root growth of kiwifruit, Scientia Horticulturae, 36, pp. 251-260, (1988)
[5]  
Buwalda J.G., Smith G.S., Accumulation and partitioning of dry matter and mineral nutrients in developing kiwifruit vines, Tree Physiology, 3, pp. 295-307, (1987)
[6]  
Buwalda J.G., Smith G.S., Acquisition and utilization of carbon, mineral nutrients, and water by the kiwifruit vine, Horticultural Reviews, 12, pp. 307-347, (1990)
[7]  
Carrido M.L., Determination of sulphur in plant material, Analyst, 89, pp. 61-66, (1964)
[8]  
Clark C.J., Smith G.S., Seasonal dynamics of biomass and mineral nutrient partitioning in mature kiwifruit vines, Annals of Botany, 70, pp. 229-237, (1992)
[9]  
DeJong T.M., Goudriaan J., Modeling peach fruit growth and carbohydrate requirements: Reevaluation of the double-sigmoid growth pattern, Journal of the American Society for Horticultural Science, 114, pp. 800-804, (1989)
[10]  
Grossman Y.L., DeJong T.M., PEACH: A simulation model of reproductive and vegetative growth in peach trees, Tree Physiology, 14, pp. 329-345, (1994)