The occurrence of herbicide-resistant weeds worldwide

The 1995/6 International Survey of Herbicide‐Resistant Weeds recorded 183 herbicide‐resistant weed biotypes (124 different species) in 42 countries. The increase in the number of new herbicide‐resistant weeds has remained relatively constant since 1978, at an average of nine new cases per year world...

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Veröffentlicht in:Pesticide Science 1997-11, Vol.51 (3), p.235-243
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description The 1995/6 International Survey of Herbicide‐Resistant Weeds recorded 183 herbicide‐resistant weed biotypes (124 different species) in 42 countries. The increase in the number of new herbicide‐resistant weeds has remained relatively constant since 1978, at an average of nine new cases per year worldwide. Whilst 61 weed species have evolved resistance to triazine herbicides, this figure now only accounts for one‐third of all documented herbicide‐resistant biotypes. Triazine‐resistant weeds have been controlled successfully in many countries by the use of alternative herbicides. Due to the economic importance of ALS and ACCase inhibitor herbicides worldwide, and the ease with which weeds have evolved resistance to them, it is likely that ALS and ACCase inhibitor‐resistant weeds will present farmers with greater problems in the next five years than triazine‐resistant weeds have caused in the past 25 years. Thirty‐three weed species have evolved resistance to ALS‐inhibitor herbicides in 11 countries. ALS‐inhibitor‐resistant weeds are most problematic in cereal, corn/soybean and rice production. Thirteen weed species have evolved resistance to ACCase inhibitors, also in 11 countries. ACCase inhibitor resistance in Lolium and Avena spp. threatens cereal production in Australia, Canada, Chile, France, South Africa, Spain, the United Kingdom and the USA. Fourteen weed species have evolved resistance to urea herbicides. Isoproturon‐resistant Phalaris minor infesting wheat fields in North West India and chlorotoluron‐resistant Alopecurus myosuroides in Europe are of significant economic importance. Although 27 weed species have evolved resistance to bipyridilium herbicides, and 14 weed species have evolved resistance to synthetic auxins, the area infested and the availability of alternative herbicides have kept their impact minimal. The lack of alternative herbicides to control weeds with multiple herbicide resistance, such as Lolium rigidum and Alopecurus myosuroides, makes these the most challenging resistance problems. The recent discovery of glyphosate‐resistant Lolium rigidum in Australia is a timely reminder that sound herbicide‐resistant management strategies will remain important after the widespread adoption of glyphosate‐resistant crops. ©1997 SCI
doi_str_mv 10.1002/(SICI)1096-9063(199711)51:3<235::AID-PS649>3.0.CO;2-N
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The increase in the number of new herbicide‐resistant weeds has remained relatively constant since 1978, at an average of nine new cases per year worldwide. Whilst 61 weed species have evolved resistance to triazine herbicides, this figure now only accounts for one‐third of all documented herbicide‐resistant biotypes. Triazine‐resistant weeds have been controlled successfully in many countries by the use of alternative herbicides. Due to the economic importance of ALS and ACCase inhibitor herbicides worldwide, and the ease with which weeds have evolved resistance to them, it is likely that ALS and ACCase inhibitor‐resistant weeds will present farmers with greater problems in the next five years than triazine‐resistant weeds have caused in the past 25 years. Thirty‐three weed species have evolved resistance to ALS‐inhibitor herbicides in 11 countries. ALS‐inhibitor‐resistant weeds are most problematic in cereal, corn/soybean and rice production. Thirteen weed species have evolved resistance to ACCase inhibitors, also in 11 countries. ACCase inhibitor resistance in Lolium and Avena spp. threatens cereal production in Australia, Canada, Chile, France, South Africa, Spain, the United Kingdom and the USA. Fourteen weed species have evolved resistance to urea herbicides. Isoproturon‐resistant Phalaris minor infesting wheat fields in North West India and chlorotoluron‐resistant Alopecurus myosuroides in Europe are of significant economic importance. Although 27 weed species have evolved resistance to bipyridilium herbicides, and 14 weed species have evolved resistance to synthetic auxins, the area infested and the availability of alternative herbicides have kept their impact minimal. The lack of alternative herbicides to control weeds with multiple herbicide resistance, such as Lolium rigidum and Alopecurus myosuroides, makes these the most challenging resistance problems. 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Psychology</topic><topic>herbicide resistance</topic><topic>multiple resistance</topic><topic>Parasitic plants. Weeds</topic><topic>Phytopathology. Animal pests. Plant and forest protection</topic><topic>survey</topic><topic>triazine resistance</topic><topic>Weeds</topic><toplevel>peer_reviewed</toplevel><toplevel>online_resources</toplevel><creatorcontrib>Heap, Ian M.</creatorcontrib><collection>Istex</collection><collection>Pascal-Francis</collection><collection>CrossRef</collection><collection>Periodicals Index Online Segment 50</collection><collection>Periodicals Index Online</collection><collection>Primary Sources Access—Foundation Edition (Plan E) - West</collection><collection>Primary Sources Access (Plan D) - International</collection><collection>Primary Sources Access &amp; Build (Plan A) - MEA</collection><collection>Primary Sources Access—Foundation Edition (Plan E) - Midwest</collection><collection>Primary Sources Access—Foundation Edition (Plan E) - Northeast</collection><collection>Primary Sources Access (Plan D) - Southeast</collection><collection>Primary Sources Access (Plan D) - North Central</collection><collection>Primary Sources Access—Foundation Edition (Plan E) - Southeast</collection><collection>Primary Sources Access (Plan D) - South Central</collection><collection>Primary Sources Access &amp; Build (Plan A) - UK / I</collection><collection>Primary Sources Access (Plan D) - Canada</collection><collection>Primary Sources Access (Plan D) - EMEALA</collection><collection>Primary Sources Access—Foundation Edition (Plan E) - North Central</collection><collection>Primary Sources Access—Foundation Edition (Plan E) - South Central</collection><collection>Primary Sources Access &amp; Build (Plan A) - International</collection><collection>Primary Sources Access—Foundation Edition (Plan E) - International</collection><collection>Primary Sources Access (Plan D) - West</collection><collection>Periodicals Index Online Segments 1-50</collection><collection>Primary Sources Access (Plan D) - APAC</collection><collection>Primary Sources Access (Plan D) - Midwest</collection><collection>Primary Sources Access (Plan D) - MEA</collection><collection>Primary Sources Access—Foundation Edition (Plan E) - Canada</collection><collection>Primary Sources Access—Foundation Edition (Plan E) - UK / I</collection><collection>Primary Sources Access—Foundation Edition (Plan E) - EMEALA</collection><collection>Primary Sources Access &amp; Build (Plan A) - APAC</collection><collection>Primary Sources Access &amp; Build (Plan A) - Canada</collection><collection>Primary Sources Access &amp; Build (Plan A) - West</collection><collection>Primary Sources Access &amp; Build (Plan A) - EMEALA</collection><collection>Primary Sources Access (Plan D) - Northeast</collection><collection>Primary Sources Access &amp; Build (Plan A) - Midwest</collection><collection>Primary Sources Access &amp; Build (Plan A) - North Central</collection><collection>Primary Sources Access &amp; Build (Plan A) - Northeast</collection><collection>Primary Sources Access &amp; Build (Plan A) - South Central</collection><collection>Primary Sources Access &amp; Build (Plan A) - Southeast</collection><collection>Primary Sources Access (Plan D) - UK / I</collection><collection>Primary Sources Access—Foundation Edition (Plan E) - APAC</collection><collection>Primary Sources Access—Foundation Edition (Plan E) - MEA</collection><jtitle>Pesticide Science</jtitle></facets><delivery><delcategory>Remote Search Resource</delcategory><fulltext>fulltext</fulltext></delivery><addata><au>Heap, Ian M.</au><format>journal</format><genre>article</genre><ristype>JOUR</ristype><atitle>The occurrence of herbicide-resistant weeds worldwide</atitle><jtitle>Pesticide Science</jtitle><addtitle>Pestic. Sci</addtitle><date>1997-11</date><risdate>1997</risdate><volume>51</volume><issue>3</issue><spage>235</spage><epage>243</epage><pages>235-243</pages><issn>0031-613X</issn><issn>1526-498X</issn><eissn>1096-9063</eissn><coden>PSSCBG</coden><abstract>The 1995/6 International Survey of Herbicide‐Resistant Weeds recorded 183 herbicide‐resistant weed biotypes (124 different species) in 42 countries. The increase in the number of new herbicide‐resistant weeds has remained relatively constant since 1978, at an average of nine new cases per year worldwide. Whilst 61 weed species have evolved resistance to triazine herbicides, this figure now only accounts for one‐third of all documented herbicide‐resistant biotypes. Triazine‐resistant weeds have been controlled successfully in many countries by the use of alternative herbicides. Due to the economic importance of ALS and ACCase inhibitor herbicides worldwide, and the ease with which weeds have evolved resistance to them, it is likely that ALS and ACCase inhibitor‐resistant weeds will present farmers with greater problems in the next five years than triazine‐resistant weeds have caused in the past 25 years. Thirty‐three weed species have evolved resistance to ALS‐inhibitor herbicides in 11 countries. ALS‐inhibitor‐resistant weeds are most problematic in cereal, corn/soybean and rice production. Thirteen weed species have evolved resistance to ACCase inhibitors, also in 11 countries. ACCase inhibitor resistance in Lolium and Avena spp. threatens cereal production in Australia, Canada, Chile, France, South Africa, Spain, the United Kingdom and the USA. Fourteen weed species have evolved resistance to urea herbicides. Isoproturon‐resistant Phalaris minor infesting wheat fields in North West India and chlorotoluron‐resistant Alopecurus myosuroides in Europe are of significant economic importance. Although 27 weed species have evolved resistance to bipyridilium herbicides, and 14 weed species have evolved resistance to synthetic auxins, the area infested and the availability of alternative herbicides have kept their impact minimal. The lack of alternative herbicides to control weeds with multiple herbicide resistance, such as Lolium rigidum and Alopecurus myosuroides, makes these the most challenging resistance problems. The recent discovery of glyphosate‐resistant Lolium rigidum in Australia is a timely reminder that sound herbicide‐resistant management strategies will remain important after the widespread adoption of glyphosate‐resistant crops. ©1997 SCI</abstract><cop>London</cop><pub>John Wiley &amp; Sons, Ltd</pub><doi>10.1002/(SICI)1096-9063(199711)51:3&lt;235::AID-PS649&gt;3.0.CO;2-N</doi><tpages>9</tpages></addata></record>
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source Wiley Online Library Journals Frontfile Complete; Periodicals Index Online
subjects Biological and medical sciences
Chemical control
cross-resistance
Fundamental and applied biological sciences. Psychology
herbicide resistance
multiple resistance
Parasitic plants. Weeds
Phytopathology. Animal pests. Plant and forest protection
survey
triazine resistance
Weeds
title The occurrence of herbicide-resistant weeds worldwide
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