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Evaluation of nonselective herbicides for strawberry termination

Published online by Cambridge University Press:  10 February 2020

Jialin Yu Open the ORCID record for Jialin Yu [Opens in a new window]  and
Nathan S. Boyd
Jialin Yu
Affiliation:
Professor, Co-Innovation Center for Sustainable Forestry in Southern China, Nanjing Forestry University, Nanjing, Jiangsu, China
Nathan S. Boyd*
Affiliation:
Associate Professor, Gulf Coast Research and Education Center, University of Florida, Wimauma, FL, USA
*
Author for correspondence: Nathan S. Boyd, Gulf Coast Research and Education Center, University of Florida, Wimauma, FL, 33598. Email: [email protected]
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Abstract

Florida strawberry growers apply the nonselective herbicide paraquat for crop termination. Alternative herbicides are desirable because of recent label restrictions on paraquat use and the occurrence of three paraquat-resistant weed species found in strawberry fields. Field experiments were conducted at the Gulf Coast Research and Education Center at Balm, FL, to compare the efficacy of diquat, paraquat, and glufosinate and determine the optimal rate for strawberry termination. Peak control occurred at 14 d after treatment and strawberry foliage desiccation increased as herbicide rate increased. The highest rate of diquat (2,240 g ai ha−1) and paraquat (2240 g ai ha−1) provided 59% and 79% strawberry control, respectively, and 39% and 77% strawberry foliage desiccation, respectively. The highest rate of glufosinate (2,624 g ai ha−1) provided 82% and 84% strawberry control and desiccation, respectively. Regression analysis determined the rates required to provide 50% strawberry control measured 1,100, 650, and 550 g ha−1 for diquat, paraquat, and glufosinate, respectively, whereas the rates required to provide 80% strawberry control were greater than 2,240 g ha−1 for the first two herbicides and 2,020 g ha−1 for glufosinate. Herbicide rates required to provide 50% strawberry foliage desiccation measured 480, 550, and 330 g ha−1 for diquat, paraquat, and glufosinate, respectively, whereas the rates required to provide 80% strawberry foliage desiccation were greater than 2,240 g ha−1 for the first two herbicides and 1150 g ha−1 for glufosinate. Overall, these results indicate glufosinate is the most effective herbicide for strawberry termination, whereas diquat is the least effective herbicide.

Keywords

Application ratecontact herbicidefoliar desiccationherbicide efficacyDiquatglufosinateparaquatstrawberry [Fragaria × ananassa (Weston) Duchesne ex. Rozier]
Type
Research Article
Information
Weed Technology , Volume 34 , Issue 4 , August 2020 , pp. 619 - 623
Copyright
© Weed Science Society of America, 2020

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Footnotes

Associate Editor: Mark VanGessel, University of Delaware

References

Anonymous (2015) Reglone® Desiccant label. Greensboro NC: Syngenta Crop Protection, LLCGoogle Scholar
Anonymous (2017a) Gramoxone® SL label. Greensboro NC: Syngenta Crop Protection, LLCGoogle Scholar
Anonymous (2017b) Total® 2.3 label. St. Paul, MN: Winfield Solutions, LLCGoogle Scholar
Anonymous (2017c) Rely® 280. Research Triangle PK, NC: Bayer CropScienceGoogle Scholar
Ananieva, EA, Christov, KN, Popova, LP (2004) Exogenous treatment with salicylic acid leads to increased antioxidant capacity in leaves of barley plants exposed to paraquat. J Plant Physiol 161:319–328CrossRefGoogle ScholarPubMed
Bonanno, AR (1996) Weed management in plasticulture. HortTechnology 6:186–189CrossRefGoogle Scholar
Bowler, C, Montagu, MV, Inzé, D (1992) Superoxide dismutase and stress tolerance. Annu Rev Plant Physiol Plant Mol Biol 43:83–116CrossRefGoogle Scholar
Bowler, C, Slooten, L, Vandenbranden, S, Rycke, RD, Botterman, J, Sybesma, C, Montagu, MV, Inzé, D (1991) Manganese superoxide dismutase can reduce cellular damage mediated by oxygen radicals in transgenic plants. EMBO J 10:1723–1732CrossRefGoogle ScholarPubMed
Buker, RS, Steed, ST, Stall, WM (2002) Confirmation and control of a paraquat-tolerant goosegrass (Eleusine indica) biotype. Weed Technol 16:309–313CrossRefGoogle Scholar
Busi, R, Powles, SB (2011) Reduced sensitivity to paraquat evolves under selection with low glyphosate doses in Lolium rigidum. Agron Sustain Develop 31:525–531CrossRefGoogle Scholar
Candole, B, Csinos, A, Wang, D (2007) Concentrations in soil and efficacy of drip-applied 1, 3-D+ chloropicrin and metam sodium in plastic-mulched sandy soil beds. Crop Prot 26:1801–1809CrossRefGoogle Scholar
Chiang, YJ, Wu, YX, Chiang, MY, Wang, CY (2008) Role of antioxidative system in paraquat resistance of tall fleabane (Conyza sumatrensis). Weed Sci 56:350–355CrossRefGoogle Scholar
Duval, JR (2005) Relay-intercropping does not reduce strawberry yield in an annual-hill production system. HortTechnology 15:907–908CrossRefGoogle Scholar
Ekmekci, Y, Terzioglu, S (2005) Effects of oxidative stress induced by paraquat on wild and cultivated wheats. Pest Biochem Physiol 83:69–81CrossRefGoogle Scholar
Fennimore, SA, Boyd, NS (2019) Sustainable weed control in strawberry. Pages 383–403in Korres, NE, Burgos, NR, Duke, SO, eds. Weed Control: Sustainability, Hazards, and Risks in Cropping Systems Worldwide. Boca Raton, FL: CRC Press Taylor & Francis GroupGoogle Scholar
Fernandez, GE, Butler, LM, Louws, FJ (2001) Strawberry growth and development in an annual plasticulture system. HortScience 36:1219–1223CrossRefGoogle Scholar
Fortenberry, GZ, Beckman, J, Schwartz, A, Prado, JB, Graham, LS, Higgins, S, Lackovic, M, Mulay, P, Bojes, H, Waltz, J (2016) Magnitude and characteristics of acute paraquat-and diquat-related illnesses in the US: 1998–2013. Environ Res 146:191–199CrossRefGoogle ScholarPubMed
Hanson, B, Shrestha, A (2006) Weed control with methyl bromide alternatives. CAB Rev Perspect Agric Vet Sci Nutr Nat Resour 1:1–13Google Scholar
Hess, D (2000) Light-dependent herbicides: an overview. Weed Sci 48:160–170CrossRefGoogle Scholar
Hidayat, I, Baker, J, Preston, C (2006) Pollen-mediated gene flow between paraquat-resistant and susceptible hare barley (Hordeum leporinum). Weed Sci 54:685–689CrossRefGoogle Scholar
Iannelli, MA, Van Breusegem, F, Van Montagu, M, Inzé, D, Massacci, A (1999) Tolerance to low temperature and paraquat-mediated oxidative stress in two maize genotypes. J Exp Bot 50:523–532CrossRefGoogle Scholar
Jacoby, TP (2012) Evaluation of the long-term sustainability of methyl bromide alternatives in tomato (Solanum lycopersicum Mill.) and pepper (Capsicum annuum L.). M.S. thesis. Gainesville, FL: University of FloridaGoogle Scholar
Kraus, TE, McKersie, BD, Fletcher, RA (1995) Paclobutrazol-induced tolerance of wheat leaves to paraquat may involve increased antioxidant enzyme activity. J Plant Physiol 145:570–576CrossRefGoogle Scholar
Lamont, WJ (1996) What are the components of a plasticulture vegetable system? HortTechnology 6:150–154CrossRefGoogle Scholar
Lea, PJ, Joy, KW, Ramos, JL, Guerrero, MG (1984) The action of 2-amino-4-(methylphosphinyl)-butanoic acid (phosphinothricin) and its 2-oxo-derivative on the metabolism of cyanobacteria and higher plants. Phytochemistry 23:1–6CrossRefGoogle Scholar
Locascio, S, Gilreath, J, Olson, S, Hutchinson, C, Chase, C (2005) Red and black mulch color affects production of Florida strawberries. HortScience 40:69–71CrossRefGoogle Scholar
Muradoglu, F, Gundogdu, M, Ercisli, S, Encu, T, Balta, F, Jaafar, HZ, Zia-Ul-Haq, M (2015) Cadmium toxicity affects chlorophyll a and b content, antioxidant enzyme activities and mineral nutrient accumulation in strawberry. Biol Res 48:11CrossRefGoogle Scholar
Nyoike, TW, Liburd, OE (2014) Reusing plastic mulch for a second strawberry crop: effects on arthropod pests, weeds, diseases and strawberry yields. FLA Entomol 97:928–936CrossRefGoogle Scholar
Poling, E (1993) Strawberry plasticulture in North Carolina: II. preplant, planting, and postplant considerations for growing ‘Chandler’ strawberry on black plastic mulch. HortTechnology 3:383–393CrossRefGoogle Scholar
Santos, BM, Esmel, CE, Slamova, S, Golden, EA (2008) Optimum planting dates for intercropping cucumber, squash, and muskmelon with strawberry. HortTechnology 18:656–659CrossRefGoogle Scholar
Shaner, D (2014) Herbicide Handbook. 10th edn. Lawrence, KS: Weed Science Society of America. 513 pGoogle Scholar
Stapleton, JJ (1996) Fumigation and solarization practice in plasticulture systems. HortTechnology 6:189–192CrossRefGoogle Scholar
Tachibana, K, Watanabe, T, Sekizawa, Y, Takematsu, T (1986) Inhibition of glutamine synthetase and quantitative changes of free amino acids in shoots of bialaphos-treated Japanese barnyard millet. J Pest Sci 11:27–31CrossRefGoogle Scholar
[US EPA] U.S. Environmental Protection Agency (2019) Paraquat dichloride. https://www.epa.gov/ingredients-used-pesticide-products/paraquat-dichloride (Accessed June 21, 2019)Google Scholar
[USDA] U.S. Department of Agriculture (2019) Web Soil Survey. https://websoilsurvey.nrcs.usda.gov. Accessed: November 13, 2019Google Scholar
[USDA-NASS] U.S. Department of Agriculture, National Agricultural Statistics Service (2019) USDA’s National Agricultural Statistics Service. Florida Field Office (part of the Southern Regional Field Office). https://www.nass.usda.gov/Statistics_by_State/Florida/index.php. Accessed: June 21, 2019Google Scholar
Wang, SY, Lin, HS (2000) Antioxidant activity in fruits and leaves of blackberry, raspberry, and strawberry varies with cultivar and developmental stage. J Agri Food Chem 48:140–146CrossRefGoogle ScholarPubMed
Wang, SY, Zheng, W (2001) Effect of plant growth temperature on antioxidant capacity in strawberry. J Agri Food Chem 49:4977–4982CrossRefGoogle ScholarPubMed
Wild, A, Sauer, H, Rühle, W (1987) The effect of phosphinothricin (glufosinate) on photosynthesis I. Inhibition of photosynthesis and accumulation of ammonia. Zeitschrift für Naturforschung C 42:263–269CrossRefGoogle Scholar
Whitaker, VM, Boyd, NS, Peres, NA, Desaeger, J, Noling, JW, Lahiri, S (2019) Chapter 16. Strawberry production. Pages 311–333in Dittmar, PJ, Freeman, JH, Paret, ML, Smith, HA, eds. Vegetable Production Handbook of Florida, 2019-2020 Edition. http://edis.ifas.ufl.edu/pdffiles/CV/CV13400.pdf. Accessed: November 13, 2019Google Scholar
Yu, J, Boyd, NS (2017) Weed control with and strawberry tolerance to herbicides applied through drip irrigation. Weed Technol 31:870–876CrossRefGoogle Scholar
Yu, J, Nathan, BS, Guan, Z (2018) Relay-cropping and fallow programs for strawberry-based production system: effects on crop productivity and weed control. HortScience 53:445–450CrossRefGoogle Scholar
Yu, J, Sharpe, SM, Boyd, NS (2019) Fumigants alone or in combination with herbicide for weed management in bell pepper (Capsicum annuum). Crop Prot 118:31–35CrossRefGoogle Scholar