Developing sustainable systems for nematode management

被引:141
作者
Barker, KR [1 ]
Koenning, SR [1 ]
机构
[1] N Carolina State Univ, Dept Plant Pathol, Raleigh, NC 27695 USA
关键词
biological control; cropping systems; cultural practices; food webs; induced host resistance;
D O I
10.1146/annurev.phyto.36.1.165
中图分类号
Q94 [植物学];
学科分类号
071001 ;
摘要
Early researchers identified key concepts and developed tactics for multiple-option management of nematodes. Although the emphasis on integrated pest management over the past three decades has promoted strategies and tactics for nematode management, comprehensive studies on the related soil biology- ecology are relatively recent. Traditional management tactics include host resistance (where available), cultural tactics such as rotation with nonhosts, sanitation and avoidance, and destruction of residual crop roots, and the judicious use of nematicides. There have been advances in biological control of nematodes, but field-scale exploitation of this tactic remains to be realized. New technologies and resources are currently becoming central to the development of sustainable systems for nematode-pest-crop management: molecular diagnostics for nematode identification, genetic engineering for host resistance, and the elucidation and application of soil biology for general integrated cropping systems. The latter strategy includes the use of nematode-pest antagonistic cover crops, animal wastes, and limited tillage practices that favor growth promoting rhizobacteria, earthworms, predatory mites, and other beneficial organisms while suppressing parasitic nematodes and other plant pathogens. Certain rhizobacteria may induce systemic host resistance to nematodes and, in some instances, to foliage pathogens. The systems focusing on soil biology hold great promise for sustainable crop-nematode management, but only a few research programs are currently involved in this labor-intensive endeavor.
引用
收藏
页码:165 / 205
页数:41
相关论文
共 193 条
[21]   Global potential distribution of European longidorid virus-vector nematodes [J].
Boag, B ;
Evans, KA ;
Yeates, GW ;
Brown, DJF ;
Neilson, R .
NEMATOLOGICA, 1997, 43 (01) :99-106
[22]  
Boag B., 1994, Aspects of Applied Biology, V40, P443
[23]  
Boag B., 1996, Aspects of Applied Biology, V45, P331
[24]  
BOERMA HR, 1984, J NEMATOL, V16, P289
[25]   THE MATURITY INDEX - AN ECOLOGICAL MEASURE OF ENVIRONMENTAL DISTURBANCE BASED ON NEMATODE SPECIES COMPOSITION [J].
BONGERS, T .
OECOLOGIA, 1990, 83 (01) :14-19
[26]   SHORT-TERM AND LONG-TERM EFFECTS OF BACTERIVOROUS NEMATODES AND NEMATOPHAGOUS FUNGI ON CARBON AND NITROGEN MINERALIZATION IN MICROCOSMS [J].
BOUWMAN, LA ;
BLOEM, J ;
VANDENBOOGERT, PHJF ;
BREMER, F ;
HOENDERBOOM, GHJ ;
DERUITER, PC .
BIOLOGY AND FERTILITY OF SOILS, 1994, 17 (04) :249-256
[27]   Nematode management in sustainable and subsistence agriculture [J].
Bridge, J .
ANNUAL REVIEW OF PHYTOPATHOLOGY, 1996, 34 :201-225
[28]   TRANSMISSION OF VIRUSES BY PLANT NEMATODES [J].
BROWN, DJF ;
ROBERTSON, WM ;
TRUDGILL, DL .
ANNUAL REVIEW OF PHYTOPATHOLOGY, 1995, 33 :223-249
[29]  
Brown R.H., 1987, Principles and Practice of Nematode Control in Crops
[30]  
Burt OR, 1996, J NEMATOL, V28, P457