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Effect of Postflood Quinclorac Applications on Commercial Rice Cultivars

Published online by Cambridge University Press:  20 January 2017

Jason A. Bond*
Affiliation:
Delta Research and Extension Center, Mississippi State University, Stoneville, MS 38776
Timothy W. Walker
Affiliation:
Delta Research and Extension Center, Mississippi State University, Stoneville, MS 38776
*
Corresponding author's E-mail: jbond@drec.msstate.edu

Abstract

Rice cultivar, growth stage at application, or both may influence rice tolerance to quinclorac. Field studies were conducted to compare the response of five rice cultivars ‘Bowman’, ‘Cheniere’, ‘CL161’, ‘Cocodrie’, and ‘XL723’ to postflood quinclorac applications. Quinclorac at 0.56 kg ai ha−1 was applied 2 and 4 wk after flood (WAF). Pooled across quinclorac application timings, no differences in maturity were detected among the cultivars in 2008, but maturity of Cheniere and XL723 were delayed compared with CL161 and Cocodrie in 2007. Maturity of Cheniere and XL723 was delayed in 2007 compared with 2008. Pooled over cultivar, maturity was similar for 2 and 4 WAF applications in 2007 but was delayed for 2 WAF treatments in 2008. Regardless of year, postflood quinclorac applications reduced rough rice yield of all cultivars except Bowman. Cheniere and XL723 had lower rough rice yields compared with other cultivars in 2007; however, in 2008, rough rice yields of Cheniere, CL161, Cocodrie, and XL723 were similar, but still lower, than that of Bowman. Pooled over cultivar, postflood quinclorac reduced rough rice yields more when applied 4 WAF than at 2 WAF during both years. Our results demonstrate that Cheniere and XL723 are less tolerant than Bowman is to postflood quinclorac applications and that all evaluated cultivars are more susceptible to quinclorac applied at later developmental stages. Consequently, if circumstances necessitate a postflood quinclorac application, the herbicide should be applied no later than panicle initiation and should not be applied to Cheniere or XL723.

El cultivar y/o la etapa de crecimiento en que se encuentra el arroz en el momento de la aplicación de quinclorac, puede afectar la tolerancia de este cultivo al mencionado herbicida. Se realizaron estudios de campo para comparar la respuesta de cinco cultivares de arroz (‘Bowman’, ‘Cheniere’, ‘CL161’, ‘Cocodrie’, y ‘XL723’) a las aplicaciones de quinclorac post-inundación. El quinclorac a 0.56 kg ia ha−1 fue aplicado a las 2 y 4 semanas después de la inundación (WAF). Promediado a través de los tiempos de aplicación de quinclorac, en 2008 en la etapa de madures no se detectaron diferencias entre cultivares, pero la maduración de Cheniere y XL723 se retrasó en comparación con CL161 y Cocodrie en 2007. La maduración de Cheniere y XL723 se retrasó en 2007 en comparación con 2008. Promediado entre cultivares, la maduración fue similar para las aplicaciones a 2 y 4 WAF en 2007, pero se atrasó en los tratamientos a las 2 WAF en 2008. Indistintamente del año, las aplicaciones de quinclorac post-inundación disminuyeron el rendimiento bruto del arroz en todos los cultivares con excepción de Bowman. Cheniere y XL723 tuvieron menores rendimientos brutos en comparación con otros cultivares en 2007; sin embargo, en 2008 los rendimientos brutos de Cheniere, CL161, Cocodrie, y XL723 fueron similares pero más bajos que Bowman. Promediado entre cultivares, el quinclorac post-inundación redujo los rendimientos brutos de arroz en mayor grado cuando se aplicó 4 WAF que cuando se aplicó 2 WAF, en ambos años. Nuestros resultados demuestran que Cheniere y XL723 son menos tolerantes que Bowman a las aplicaciones de quinclorac post-inundación y que todos los cultivares evaluados son más susceptibles al quinclorac aplicado en etapas más tardías de desarrollo. Consecuentemente, si las circunstancias requieren de una aplicación de quinclorac post-inundación, entonces el herbicida debe ser aplicado a más tardar a la iniciación de la panícula (PI) y no debe ser aplicado a Cheniere o XL723.

Type
Weed Management—Major Crops
Copyright
Copyright © Weed Science Society of America 

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