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Evaluating Soil Solarization for Weed Control and Strawberry (Fragaria xananassa) Yield in Annual Plasticulture Production

Published online by Cambridge University Press:  22 May 2017

Jayesh B. Samtani ,
Jeffrey Derr ,
Mikel A. Conway  and
Roy D. Flanagan III
Jayesh B. Samtani*
Affiliation:
Assistant Professor, Professor, and Graduate Student, Hampton Roads Agricultural Research and Extension Center, Virginia Polytechnic Institute and State University, City of Virginia Beach, VA 23455
Jeffrey Derr
Affiliation:
Assistant Professor, Professor, and Graduate Student, Hampton Roads Agricultural Research and Extension Center, Virginia Polytechnic Institute and State University, City of Virginia Beach, VA 23455
Mikel A. Conway
Affiliation:
Assistant Professor, Professor, and Graduate Student, Hampton Roads Agricultural Research and Extension Center, Virginia Polytechnic Institute and State University, City of Virginia Beach, VA 23455
Roy D. Flanagan III
Affiliation:
Virginia Cooperative Extension-Agriculture and Natural Resources Agent, 2449 Princess Anne Road, City of Virginia Beach, VA 23456
*
*Corresponding author’s E-mail: [email protected]
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Abstract

Field studies were initiated in the 2013-14 and 2014-15 growing seasons to evaluate the potential of soil solarization (SS) treatments for their efficacy on weed control and crop yields and to compare SS to 1,3-dichloropropene (1,3-D)+chloropicrin (Pic) fumigation. Each replicate was a bed with dimension 10.6 m long by 0.8 m wide on top. The center 4.6 m length of each bed, referred to as plots, was used for strawberry plug transplanting and data collection. Treatments included: i) 1,3-D+Pic (39% 1,3-dichloropropene+59.6% chloropicrin) that was shank-fumigated in beds at 157 kg ha−1 and covered with VIF on August 30 in both seasons; ii) SS for a 6 wk duration initiated on August 15, 2013 and August 21, 2014 by covering the bed with 1 mil clear polyethylene tarp; iii) SS for a 4wk duration initiated on September 6, 2013 and September 3, 2014; iv) SS 4 wk treatment initiated September 6, 2013 and September 3, 2014 and replaced with black VIF on October 4, 2013 and October 1, 2014 and v) a nontreated control covered with black VIF on October 4, 2013 and October 1, 2014. In both seasons, following completion of the preplant treatments, ‘Chandler’ strawberry was planted in two rows at a 36 cm in-row spacing in plots during the first wk of October. Over both seasons, the 6 wk SS treatment consistently lowered the weed density compared to the nontreated control. Weed density in the 6wk SS treatment was not statistically different from the 4wk SS treatments in the 2013-14 growing season. In both seasons, crop yield in the 4 wk SS was significantly lower than other treatments.

Keywords

Chloropicrin1,3-dichloropropenestrawberry, Fragaria xananassa.Fumigant alternativesorganiclimited resource growerssoutheastern United StatesVirginia.
Type
Weed Management-Other Crops/Areas
Information
Weed Technology , Volume 31 , Issue 3 , June 2017 , pp. 455 - 463
Copyright
© Weed Science Society of America, 2017 

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Footnotes

Associate Editor for this paper: Bradley Hanson, University of California, Davis

References

Literature Cited

Boz, O (2004) Efficacy and profitability of solarization for weed control in strawberry. Asian J Plant Sci 3:731–735 CrossRefGoogle Scholar
[CDPR] California Department of Pesticide Regulation (2010) Evaluation of Chloropicrin as a Toxic Air Contaminant. Part B Human Health Assessment. http://www.cdpr.ca.gov/docs/emon/pubs/tac/part_b_0210.pdf. Accessed May 14, 2016CrossRefGoogle Scholar
Chase, CA, Sinclair, TR, Shilling, DG, Gilreath, JP, Locascio, SJ (1998) Light effects on rhizome morphogenesis in nutsedges (Cyperus spp.): implications for control by soil solarization. Weed Sci 46:575–580 CrossRefGoogle Scholar
Chellemi, DO, Olson, SM, Mitchell, DJ (1994) Effects of soil solarization and fumigation on survival of soilborne pathogens of tomato in northern Florida. Plant Dis 78:1167–1172 CrossRefGoogle Scholar
City of Virginia Beach (2011) Agricultural Fact Sheet. www.vbgov.com/government/departments/agriculture/Documents/ag-fact-sheets/strawberry-fact-sheet-2011.pdf. Accessed May 14, 2016Google Scholar
Davis, JR, Sorensen, LH (1986) Influence of soil solarization at moderate temperatures on potato genotypes with differing resistance to Verticillium dahliae . Phytopathology 76:1021–1025 CrossRefGoogle Scholar
Duniway, JM (2002) Status of chemical alternatives to methyl bromide for pre-plant fumigation of soil. Phytopathology 92:1337–1343 CrossRefGoogle ScholarPubMed
Elmore, CL, Stapleton, JJ, Bell, CE, DeVay, JE (1997) Soil Solarization: A Non Pesticidal Method for Controlling Diseases, Nematodes, and Weeds. University of California, Division of Agriculture and Natural Resources and Natural Resources Publication 21377Google Scholar
Gamliel, A, Katan, J (1991) Involvement of fluorescent pseduomonads and other microorganisms in increased growth response of plants in the solarized soils. Phytopathology 81:494–502 CrossRefGoogle Scholar
Hartz, TK, DeVay, JE, Elmore, CL (1993) Solarization is an effective soil disinfestation technique for strawberry production. HortScience 28:104–106 CrossRefGoogle Scholar
Horowitz, M, Regev, Y, Herzlinger, G (1983) Solarization for weed control. Weed Sci 31:170–179 CrossRefGoogle Scholar
Ioannou, N (2000) Soil solarization as a substitute for methyl bromide fumigation in a greenhouse tomato production in Cyprus . Phytoparasitica 28:248–256 CrossRefGoogle Scholar
Katan, J (1981) Solar heating (solarization) of soil for control of soilborne pests. Annu Rev Phytopathol 19:211–236 CrossRefGoogle Scholar
Katan, J (1983) Soil solarization. Acta Hort 152:227–236 Google Scholar
Katan, J (1987) Soil Solarization. Pages 77–105 in Chet I, Ed. Innovative Approaches to Plant Disease Control. New York: Wiley Google Scholar
Keinath (1995) Reductions in inoculum density of Rhizoctonia solani and control of belly rot on pickling cucumber with solarization. Plant Dis 79:1213–1219 CrossRefGoogle Scholar
Kumar, B, Yaduraju, NT, Ahuja, KN, Prasad, D (1993) Effect of soil solarization on weeds and nematodes under tropical Indian conditions. Weed Res 33:423–429 CrossRefGoogle Scholar
Linke, KH (1994) Effects of soil solarization on arable weeds under Mediterranean conditions: control, lack of response or stimulation. Crop Prot 13:115–120 CrossRefGoogle Scholar
Lopez-Escudero, FJ, Blanco-Lopez, MA (2001) Effect of a single or double soil solarization to control Verticillium wilt in established olive orchards in Spain. Plant Dis 85:489–496 CrossRefGoogle ScholarPubMed
Munnecke, DE, Van Gundy, SD (1979) Effect of heating or drying on Armillaria mellea or Trichoderma viride and the relation to survival of A. mellea in soil. Phytopathology 66:1363–1368 CrossRefGoogle Scholar
Noling, JW, Becker, JO (1994) The challenge of research and extension to define and implement alternatives to methyl bromide. J Nematol 26:573–586 Google ScholarPubMed
Pullman, GS, DeVay, JE, Garber, RH (1981) Soil solarization and thermal death: a logarithmic relationship between time and temperature for four soilborne plant pathogens. Phytopathology 71:959–964 CrossRefGoogle Scholar
Pullman, GS, DeVay, JE, Garber, RH, Weinhold, AR (1981) Soil solarization: effects on Verticillium wilt of cotton and soilborne populations of Verticillium dahlia, Pythium spp., Rhizoctonia solani, and Thielaviopsis basicola . Phytopathology 71:954–959 CrossRefGoogle Scholar
Ristaino, JB, Perry, KB, Lumsden, RD (1991) Effect of solarization and Gliocladium virens on sclerotia of Sclerotium rolfsii, soil microbiota, and the incidence of southern blight of tomato. Phytopathology 81:1117–1124 CrossRefGoogle Scholar
Samtani, JB, Ajwa, HA, Weber, JB, Browne, GT, Klose, S, Hunzie, J, Fennimore, SA (2011) Evaluation of non-fumigant alternatives to methyl bromide for weed control and crop yield in California strawberries (Fragaria ananassa L.). Crop Prot 30:45–51 CrossRefGoogle Scholar
Samtani, JB, Gilbert, C, Weber, JB, Subbarao, KV, Goodhue, RE, Fennimore, SA (2012) Effect of steam and solarization treatments on pest control, strawberry yield, and economic returns relative to methyl bromide fumigation. HortScience 47:64–70 CrossRefGoogle Scholar
Sande, D, Mullen, J, Wetzstein, M, Houston, J (2011) Environmental impacts from pesticide use: a case study of soil fumigation in Florida tomato production. Int J Environ Res Public Health 8:4649–4661 CrossRefGoogle ScholarPubMed
Saxton, AM (1998) A macro for converting mean separation output to letter groupings in Proc Mixed. In Proceedings of the 23rd SAS Users Group International. Cary, NC: SAS Institute. Pp 1243–1246Google Scholar
Stapleton, JJ, DeVay, JE (1995) Soil solarization: a natural mechanism of integrated pest management. Pages 309–322 in Reuveni R, ed. Novel Approaches to Integrated Pest Management. Boca Raton, FL: Lewis Publishers Google Scholar
Stapleton, JJ, Molinar, JJ, Lynn-Patterson, K, McFeeters, SK, Shrestha, A (2005) Soil solarization provides weed control for limited-resource and organic growers in warmer climates. California Agri 59:84–89 CrossRefGoogle Scholar
[USDA-ERS] US Department of Agriculture-Economic Research Service (2013) Table 4. U.S. Strawberry Harvested Acreage, Yield per Acre, and Production, 13 States, 1970-2012. http://usda.mannlib.cornell.edu/MannUsda/viewDocumentInfo.do?documentID=1381. Accessed April 28, 2015Google Scholar
[USDA-NRCS] US Department of Agriculture-Natural Resources Conservation Service (2016) National Weather and Climate Center. Retrieving Climate Data and Summary Reports from AgACIS. http://www.wcc.nrcs.usda.gov/climate/navigate_wets.html. Accessed June 5, 2016Google Scholar
[USEPA] US Environmental Protection Agency (2000) 1,3-Dichloropropene. https://www3.epa.gov/airtoxics/hlthef/dichl-pe.html. Accessed May 14, 2016Google Scholar
Uva, RH, Neal, JC, DiTomaso, JM (1997) Weeds of the Northeast, Ithaca, NY: Cornell University Press. 397 pGoogle Scholar