Yield loss prediction models based on early estimation of weed pressure

被引:30
作者
Ali, Asif [1 ]
Streibig, Jens C. [1 ]
Andreasen, Christian [1 ]
机构
[1] Univ Copenhagen, Fac Sci, Dept Plant & Environm Sci, DK-2630 Taastrup, Denmark
关键词
Weed management; Relative leaf area models; Weed patches; Weed infestation; RELATIVE LEAF-AREA; CORN ZEA-MAYS; ECHINOCHLOA-CRUS-GALLI; CROP YIELD; ECONOMIC THRESHOLDS; WINTER-WHEAT; EMPIRICAL-MODELS; FLAME TREATMENTS; DECISION RULES; GROWTH-STAGES;
D O I
10.1016/j.cropro.2013.06.010
中图分类号
S3 [农学(农艺学)];
学科分类号
0901 ;
摘要
Weed control thresholds have been used to reduce costs and avoid unacceptable yield loss. Estimation of weed infestation has often been based on counts of weed plants per unit area or measurement of their relative leaf area index. Various linear, hyperbolic, and sigmoidal regression models have been proposed to predict yield loss, relative to yield in weed free environment from early measurements of weed infestation. The models are integrated in some weed management advisory systems. Generally, the recommendations from the advisory systems are applied to the whole field, but weed control thresholds are more relevant for site-specific weed management, because weeds are unevenly distributed in fields. Precision of prediction of yield loss is influenced by various factors such as locations, yield potential at the site, variation in competitive ability of mix stands of weed species and emergence time of weeds relative to crop. The aim of the review is to analyze various approaches to estimate infestation of weeds and the literature about yield loss prediction for multispecies. We discuss limitations of regression models and possible modifications to include the influential factors related to locations and species composition in context of their implementation in real time patch spraying. (C) 2013 Published by Elsevier Ltd.
引用
收藏
页码:125 / 131
页数:7
相关论文
共 71 条
[1]   Interference and Economic Weed Threshold (Ewt) of Barnyardgrass on Rice as a Function of Crop Plant Arrangement [J].
Agostinetto, D. ;
Galon, L. ;
Silva, J. M. B., V ;
Tironi, S. P. ;
Andres, A. .
PLANTA DANINHA, 2010, 28 :993-1003
[2]  
Andreasen C., 2011, CAB Reviews: Perspectives in Agriculture, Veterinary Science, Nutrition and Natural Resources, V6, P1, DOI 10.1079/PAVSNNR20116047
[3]   Assessment of weed density at an early stage by use of image processing [J].
Andreasen, C ;
Rudemo, M ;
Sevestre, S .
WEED RESEARCH, 1997, 37 (01) :5-18
[4]   Increasing weed flora in Danish beet, pea and winter barley fields [J].
Andreasen, Christian ;
Stryhn, Henrik .
CROP PROTECTION, 2012, 36 :11-17
[5]   Evaluation of an algorithm for automatic detection of broad-leaved weeds in spring cereals [J].
Berge, T. W. ;
Aastveit, A. H. ;
Fykse, H. .
PRECISION AGRICULTURE, 2008, 9 (06) :391-405
[6]   Towards machine vision based site-specific weed management in cereals [J].
Berge, T. W. ;
Goldberg, S. ;
Kaspersen, K. ;
Netland, J. .
COMPUTERS AND ELECTRONICS IN AGRICULTURE, 2012, 81 :79-86
[7]   Economic decision rules for postemergence herbicide control of barnyardgrass (Echinochloa crus-galli) in corn (Zea mays) [J].
Bosnic, AC ;
Swanton, CJ .
WEED SCIENCE, 1997, 45 (04) :557-563
[8]   USING PLANT VOLUME TO QUANTIFY INTERFERENCE IN CORN (ZEA-MAYS) NEIGHBORHOODS [J].
BUSSLER, BH ;
MAXWELL, BD ;
PUETTMANN, KJ .
WEED SCIENCE, 1995, 43 (04) :586-594
[9]   A decision algorithm for patch spraying [J].
Christensen, S ;
Heisel, T ;
Walter, AM ;
Graglia, E .
WEED RESEARCH, 2003, 43 (04) :276-284
[10]   Site-specific weed control technologies [J].
Christensen, S. ;
Sogaard, H. T. ;
Kudsk, P. ;
Norremark, M. ;
Lund, I. ;
Nadimi, E. S. ;
Jorgensen, R. .
WEED RESEARCH, 2009, 49 (03) :233-241