Weed management in white beans with postemergence herbicide tankmixes

SoltaniNader,; Nurse, Robert E.; SikkemaPeter, H

doi:10.4141/cjps2012-273

Cited by 12 publications

(36 citation statements)

References 30 publications

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“…Similar results of redroot pigweed control with trifluralin, pendimethalin, EPTC, dimethenamid-P, and S-metolachlor were reported by Soltani et al (2012b). Halosulfuron applied POST controlled redroot pigweed 80% (Soltani et al 2013b). …”

Section: Redroot Pigweedsupporting

confidence: 72%

“…Soltani et al (2014a, b) reported that halosulfuron, halosulfuron + trifluralin, halosulfuron + S-metolachlor provided 90 to 98% common ragweed control. In another study, halosulfuron controlled common ragweed 91 to 94% (Soltani et al 2013b). Soltani et al (2012a, b) reported that trifluralin, pendimethalin, EPTC, dimethenamid-P and S-metolachlor provided 34, 20, 60, 26, and 50% common ragweed control at 8 WAE, respectively.…”

Section: Common Ragweedmentioning

confidence: 99%

“…Halosulfuron, applied POST, does not control common lamb's-quarters as well. Halosulfuron and halosulfuron + fomesafen applied POST provided 36 and 57% control of common lamb's-quarters, respectively (Soltani et al 2013b). …”

Section: Common Lamb's-quartersmentioning

confidence: 99%

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Halosulfuron tankmixes applied preplant incorporated for weed control in white bean (Phaseolus vulgaris L.)

Acker

Robinson

et al. 2016

Can. J. Plant Sci.

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Six field experiments were conducted over a two-year period (2013 and 2014) to evaluate the tolerance of white bean and spectrum of weeds controlled with halosulfuron applied preplant incorporated (PPI) alone or tankmixed with trifluralin, pendimethalin, EPTC, dimethenamid-P, or S-metolachlor. Halosulfuron applied alone or in tankmix with trifluralin, pendimethalin, EPTC, dimethenamid-P, or S-metolachlor caused 2% or less visible injury 1 and 4 weeks after emergence (WAE). Halosulfuron applied PPI controlled common lamb's-quarters, wild mustard, redroot pigweed, and common ragweed greater than 90% and green foxtail less than 60% 4 and 8 WAE. Weed biomass and density followed a similar pattern. White bean yield with halosulfuron applied alone or in tankmix with the same herbicides was equivalent to the weed-free control.Key words: dry bean, damage, seed water content, yield, weed control, emergence.Résumé : Les auteurs ont procédé à six expériences sur le terrain, réparties sur deux ans (2013 et 2014), afin d'éva-luer la tolérance du haricot blanc à l'halosulfuron et l'éventail de mauvaises herbes que combat cet herbicide, incorporé seul au sol avant les semis ou mélangé avec de la trifluraline, de la pendiméthaline, de l'EPTC, du diméthénamide-P ou du S-métolachlor. Appliqué seul ou avec de la trifluraline, de la pendiméthaline, de l'EPTC, du diméthénamide-P ou du S-métolachlor, l'halosulfuron cause 2 % ou moins de dommages visibles à la culture, une à quatre semaines après la levée. Incorporé au sol avant les semis, l'halosulfuron avait détruit plus de 90 % du chénopode blanc, de la moutarde des oiseaux, de l'amarante à racine rouge et de la petite herbe à poux, et moins de 60 % de la sétaire verte, quatre et huit semaines après la levée. La biomasse et la densité des adventices sont affectées de la même manière. Le haricot blanc traité avec de l'halosulfuron appliqué seul ou avec les herbicides mentionnés précédemment donne un rendement équivalent à celui de la parcelle témoin désherbée. [Traduit par la Rédaction] Mots-clés : haricot sec, dommages, teneur en eau de la graine, rendement, lutte contre les mauvaises herbes, levée.

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Section: Redroot Pigweedsupporting

confidence: 72%

Section: Common Ragweedmentioning

confidence: 99%

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Halosulfuron tankmixes applied preplant incorporated for weed control in white bean (Phaseolus vulgaris L.)

Acker

Robinson

et al. 2016

Can. J. Plant Sci.

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“…Many studies supported that these herbicides cause low crop injury and little negative interference on the cropping yield on black, white and pinto beans (FONTES et al, 2001;HEKMAT et al, 2008;SOLTANI et al, 2013;LINHARES et al, 2014). However, imazamox at the rate of 129g a.i.…”

Section: Introductionmentioning

confidence: 99%

“…ha -1 is reported to cause crop injury of 8% at 14DAT on common beans, yet yield loss ranging from 29 to 43% (SOLTANI et al, 2013). The herbicide cloransulam has the potential to be used in common beans when tank mixed with bentazon, which promoted a safening (protects) effect on acetolactate synthase (ALS) herbicides by decreasing the rate of absorption and translocation throughout the plant; moreover, tank-mixing imazethapyr or cloransulam with bentazon, amplified the weed control spectrum (SOLTANI et al, 2012;SOLTANI et al, 2013). Diclosulam belongs to the group of the triazolopyrimidine, which is the same of the herbicide cloransulam (OLIVEIRA JR., 2011).…”

Section: Introductionmentioning

confidence: 99%

Weed control and crop selectivity of post-emergence herbicides in common beans

Marchioretto

Magro

2017

Cienc. Rural

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Weed management in azuki bean with preplant incorporated herbicides

2020

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There are only two soil‐applied herbicides, pendimethalin and imazethapyr, registered for weed management in azuki bean production in Ontario, Canada. Three experiments were completed in Ontario over three consecutive years (2017, 2018, and 2019) to develop weed management programs in azuki bean with various preplant incorporated (PPI) herbicides. There was up to 6% azuki bean injury with the herbicide treatments evaluated. Pendimethalin + S‐metolachlor controlled redroot pigweed, common lambsquarters, barnyard grass, and green foxtail at ≥99% but provided poor control of common ragweed and wild mustard. The two‐way mixtures of pendimethalin + imazethapyr and pendimethalin + halosulfuron, and the three‐way mixtures of pendimethalin + S‐metolachlor + imazethapyr and pendimethalin + S‐metolachlor + halosulfuron controlled redroot pigweed, common lambsquarters, wild mustard, barnyard grass, and green foxtail at ≥99% and common ragweed at >73%. Common ragweed control was consistently higher with tankmixes that contained halosulfuron. Metribuzin controlled redroot pigweed, common ragweed, common lambsquarters, wild mustard, barnyard grass, and green foxtail at >93%, 88%, 99%, 97%, 68%, and 50%, respectively. Weed density and aboveground biomass reductions were similar to those of weed control. Weed presence reduced azuki bean yield by 83%. Reduced weed presence with the herbicide treatments assessed resulted in azuki bean yield that was similar to that of the weed‐free control with the exception of pendimethalin, halosulfuron, and metribuzin (low rate); weed interference with the aforementioned herbicides decreased azuki bean yield by 50%, 56%, and 44%, respectively. Based on these results, pendimethalin, S‐metolachlor, halosulfuron, and imazethapyr applied PPI, applied alone, or in a two‐way or three‐way tankmixture can be used safely for the control of common annual grass and broadleaf weeds in Ontario, Canada.

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Weed management in white beans with postemergence herbicide tankmixes

Cited by 12 publications

References 30 publications

Halosulfuron tankmixes applied preplant incorporated for weed control in white bean (Phaseolus vulgaris L.)

Halosulfuron tankmixes applied preplant incorporated for weed control in white bean (Phaseolus vulgaris L.)

Weed control and crop selectivity of post-emergence herbicides in common beans

Weed management in azuki bean with preplant incorporated herbicides

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