DICARE R WG37.5 as a partner of anti-resistance strategy programme for the control of diamondback moth (Plutella xylostella L.

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DICARE R WG7. as a partner of anti-resistance strategy programme for the control of diamondback moth (Plutella xylostella L.) in Thailand Jaruek Ribuddhachart, Ittidet Chaimongkol, Patiparn Saitarnthong, Somsith Chomenansilpe and Amornrut Bhandhufalck R&D Insect Control, Ciba R&D Station, Tak Fah, Nakhon Sawan, Thailand Crop Protection Technical, Ciba-Geigy (Thailand) Limited Abstract DICARE R WG7. is a mixture of POLO R (diafenthiuron) and INSEGAR R (fenoxycarb). POLO R is a representative of a novel chemical class of insecticide, highly active on Plutella xylostella at g ai/hl, whilst INSEGAR R (fenoxycarb) is a new juvenile hormone analogue with typical growth regulating features, especially interference with the last larval moult and, or ovicidal activity against many lepidopterous pests, at g ai/hl. In Thailand, resistance development of P. xylostella and Spodoptera exigua remains a critical factor in shortening the product life cycle of efficacious insecticides, as farmers repeatedly apply effective products. Usually the two pests are observed in a mix population, damaging/destroying cruciferous crops. If an insecticide is only effective on one of these pests,the farmer would mix/cocktail with other insecticide in order to control both pests. Following laboratory test during 99 99, DICARE R 7.WG, was then evaluated in the farmers fields under practical use conditions. Under laboratory test, DICARE R ( ppm POLO R + ppm INSEGAR R ) was very effective against both the egg stage and the last instar larvae of P. xylostella.whilst under field conditions, DICARE R ( g ai/hl POLO R +7. g ai/hl INSEGAR R ), proved effective against P. xylostella on Chinese kale. In addition, alternate application of DICARE R with RAMPAGE (chlorfenapyr) clearly out performed all other treatments, thus proving that DICARE R, applied alternately with other effective insecticides, not only provides best control of Plutella xylostella but also can be applied in an IRM programme to further prolong the life cycle of effective products in the market. In conclusion, IRM should continue to be strongly promoted, developed as an effective tool for a better control of P. xylostella and other lepidopterous pests in Thailand and other countries. Key words: Diamondback moth, DICARE, mixtures, insecticide resistance management Introduction Diamondback Moth (DBM), Plutella xylostella (L.) (Lepidoptera : Yponomeutidae) is one of the most serious insect pests of cruciferous crops all over the world (Hill, 97). In Southeast Asia, it is a serious pest of cabbage, Chinese kale, Chinese cabbage, leaf mustard, Chinese radish and cauliflower. In Thailand, diamondback moth is generally prevalent from February to April when optimum climatic conditions and food plants are more readily available. However, in many areas of the central plain where crucifers are planted all year-round, diamondback moth damage can be observed through out the year (Rushtapakornchai and Vattanatangum, 9). Damage from diamondback moth has been prevented only by spraying of chemical insecticide. However, application in large quantity and repeat use of the same chemical is always threatened by the development of resistance in a short period of time (Miyata et al., 96). In Thailand, the microbial insecticide, Bacillus thuringiensis (Bt) has been used for diamondback moth control since 97. Most commercial Bt products available belong to HD-, var. kurstaki, serotype a/b. Field evaluation of these products in 96 showed promising results in only the northern area but not in the central plains and a loss of the Bt s efficacy was observed if it is applied just before an irrigation (Rushtapakornchai and Vattanatungum, 96). Ciba-Geigy, as a chemical company, is interested to evaluate a new product, DICARE WG7. for the control of DBM in the Southeast Asian countries. DICARE WG7. is a mixture of POLO R (diafenthiuron) and INSEGAR (fenoxycarb). POLO is a representative of a novel chemical class of insecticide, which is highly active on P. xylostella at g ai/hl (hectoliter) (Streibert and Kaeding, 99), whilst INSEGAR (fenoxycarb) is a new juvenile hormone analogue with typical growth regulative features, especially interference with the last larval moult and, or ovicidal activity against many lepidopterous pests, at g ai/hl (Senn and Frischnecht, 99). The evaluation were therefore carried out to determine the following: () Efficacy of DICARE (POLO/INSEGAR) vs P. xylostella under laboratory conditions. Chemical control

() Efficacy of DICARE (POLO/INSEGAR) vs P. xylostella under field conditions. () Application strategy of DICARE as a partner in anti-resistance programme vs P. xylostella in comparison with the farmer s practices. Materials and Methods Laboratory conditions (Ciba-Geigy R&D Station, Tak Fah) For eggs test: 6 potted cabbage plants ( month old) were placed in the mating cage in which pairs of P. xylostella adult moths are released for days to allow oviposition on the leaves. Remove the cabbage plants from the cage. POLO SC ( ppm), INSEGAR WP ( ppm) and a mixture of POLO+INSEGAR (+ ppm) were employed in the test. Total no. of treatments:, including untreated check Total no. of replicates: ( potted cabbage plant/ rep) Total cabbage seedlings for this test: 6 Number of eggs on the leaf surface were recorded Chemical solutions, according to the treatment list were applied individually thoroughly the whole plant with hand spray ( ml/plant). Number of newly hatch larvae/plant were recorded Number of larvae/plant at days after application were recorded % mortality was calculated Polo+Insegar+ ppm 9 Insegar(WP) ppm Polo(SC) ppm 6 66 6 % hatched larvae at DAA 6 % mortality at days after hatching Figure. Effect of POLO, INSEGAR and POLO+INSEGAR on eggs of Plutella xylostella 6 6 7 6 7 9 6 76 9 L at 7 h L at h Polo+Insegar+ ppm 9 L at 7 h Polo(SC) ppm Lat h Insegar(WP) ppm L at 7 h Figure. Effect of POLO, INSEGAR and POLO+INSEGAR on Plutella xylostella (L), (L) and (L). L at h 6 Chlorfenapyr(EC) Fipronil(SC)+tebufenozide(F)+ Dicare(WG)7. Polo(SC) % leaf damage Figure. Bioefficacy of DICARE on Plutella xylostella on Chinese kale at Bang Bua Thong with days intervals. 6 Proceedings: The Management of Diamondback Moth and Other Crucifer Pests

9 99 6 67 79 Chlorfenapyr(EC) Fipronil(SC)+tebufenozide(F)+ POLO(SC) Trial Trial Figure. Bioefficacy of DICARE on Plutella xylostella on Chinese kale at Katumban with days intervals 6 Chlorfenapyr(EC) Fipronil(SC)+tebufenozide(F)+ POLO(SC) % leaf damage at DAS Trial % leaf damage at DAS Trial Figure. % Leaf damage on Chinese kale at harvesting time under days interval at Katumban 6 9 9 9 9 POLO()/chlorf()fipro()/teb() CGStrategy* as in Figure 7) Chlorfenapyr(EC) POLO(SC) Figure 6. DICARE in CG Strategy and as a partner of anti-resistance strategy programme against Plutella xylostella on Chinese cabbage at Bang Bua Thong For larval test: Potted cabbage plant and chemical preparations were made in the same way as the egg test. Chemical solutions were applied individually thoroughly the whole plant with hand spray, according to the treatment list ( ml/plant) The treated leaves were cut and put in the plastic box, accordingly. Total no. of treatments:, including untreated check Total no. of replicates :, leaf/rep L, L, L (for reps) were transferred to the treated leaves, according to the treatment list :check, POLO ( ppm), INSEGAR ( ppm) and POLO+INSEGAR (+ ppm), respectively. Number of dead larvae at and days after application were recorded % mortality was calculated Field trials: A suspension concentrate formulation of POLO (diafenthiuron), SC, INSEGAR (fenoxycarb) WP and a ready mixed formulation Chemical control 7

6 9 6 7 7 Farmer's Practice** POLO()/chlorf()fipro()/teb() CGStrategy* Chlorfenapyr(EC) POLO(SC) *CG-Strategy = DICARE (7.) / chlorfenapyr () g ai/hl : Application No., & = DICARE 7. g ai/hl Application No. & = chlorfenapyr g ai/hl **Farmer's Practice : Application No. = chlorfenapyr+fipronil (+ g ai/hl) Figure 7. DICARE in CG Strategy and as a partner of anti-resistance strategy programme against Plutella xylostella on Chinese kale at Bang Bua Thong 6 9 67 7 POLO()/chlorf()fipro()/teb() Chlorfenapyr(EC) POLO(SC) % leaf damage Figure. Percent leaf damage occurring in DICARE alternation strategy was comparable to a good standard, chlorfenapyr....7.. POLO()/chlorf()fipro()/teb() Chlorfenapyr(EC) POLO(SC) ***Crop grading: = Very poor = Poor = Good = Very good Yield (kg/m ) Grading Figure 9. Yield & Grading*** of Chinese kale treated with DICARE (alternation strategy) in comparison to the farmer's practice. of POLO & INSEGAR (DICARE 7.WG) were evaluated in the field.a randomized complete block design was employed with replicates (7. g.ai). The plot sizes varied from m. Foliar application of POLO ( g.ai/hl), and POLO+INSEGAR, +7. or DICARE 7. g ai/ ha with a spray volume of L/ha were made with local standard treatments and untreated check. The applications were timed on eggs, and young P. xylostella larvae (L, L & L). The first application was made when eggs was observed on the leaves or weeks after sowing. The assessments were made by counting the number of living larvae and pupae on plants per replicate, and/or a final leaf damage rating at just before harvest. Marketable yield was also recorded. Results & Discussion Under laboratory condition Egg test: POLO+INSEGAR, + ppm showed superior ovicidal effect to either POLO or INSEGAR.Very high the newly hatched larvae at days (7 h) after application was also recorded in a POLO+INSEGAR treatment (Figure ). Larval test: POLO+INSEGAR, + ppm showed superior larvicidal effect than either POLO Proceedings: The Management of Diamondback Moth and Other Crucifer Pests

........7 POLO()/chlorf()fipro()/teb() Chlorfenapyr(EC) POLO(SC) ***Crop grading: = Very poor = Poor = Good = Very good Yield (kg/m) Grading Figure. Yield & Grading* of C. cabbage treated with DICARE (alternation strategy) in comparison to the farmer's practice or INSEGAR.Very high the L larvae at days ( h) after application was also recorded in a POLO+INSEGAR treatment (Figure ). Field trials At Bang Bua Thong (BBT) and Krathumban (KBT), DICARE R 7. g ai/hl at days intervals with a spray volume of L/ha was effective against P. xylostella and superior to abamectin,. g ai/hl and fipronil+tebufenozide, + g ai/hl. However DICARE was inferior to chlorfenapyr, g ai/hl. (Figure ). When DICARE, 7. g ai/hl was applied at days intervals, the bioefficacy on P. xylostella increased and comparable to chlorfenapyr, g ai/hl. (Figures and ). B. DICARE as a partner in an anti-resistance strategy programme against P. xylostella. Trials were conducted at Bang Bua Thong, in comparison with farmer s practices.the results showed that DICARE (7. g ai/hl) applied right at the beginning and in alternation with chlorfenapyr g ai/hl gave good control of P. xylostella. Percent P. xylostella control and the marketable yield were taken into account (Figures 6, 7,, 9 and ). Conclusions & Recommendations DICARE R (POLO+INSEGAR) at ppm+ ppm under laboratory condition, and at 7. g ai/hl under field condition showed enhancement of activity in the control of P. xylostella. Besides, DICARE can be considered as an ideal partner in an anti-resistance strategy programme for the control of P. xylostella and/or Spodoptera exigua in cruciferous crops. In order to maintain the effective life of an insecticide, the recommendations for use of DICARE on cruciferous crops are as follows: ) Do not apply DICARE repeatedly. ) Alternate DICARE with other P. xylostella effective products ) DICARE should be applied right at the beginning of P. xylostella infestation (oviposition period). ) Apply only applications of DICARE/crop. References Hill, P.S. (97). Agricultural Insect Pests of the Tropic and their control. Cambridge University Press, London. p. Miyata, T., T. Saito and V. Noppun (96). Studies on the mechanism of diamondback moth resistance to insecticides, p. 7 7. In: T.G., Griggs and N.S. Talekar (eds). Diamondback Moth Management. AVRDC, Taiwan. Rushtapakornchai, W. and A. Vattanatungum (9). Comparison study on the efficacy of certain insecticides for control lepidopterous larvae on Chinese cabbage. Annual Research Report for 9. Entomology and Zoology Division, Department of Agriculture, Bangkok, Thailand. Rushtapakornchai, W. and A. Vattanatungum (96). Present status of insecticide control of diamondback moth in Thailand, p 7. In: T.G., Griggs and N.S. Talekar (eds.). Diamondback Moth Management. AVRDC, Taiwan. Streibert, H.P., and D. Kaeding (99). Use of Pegasus R (diafenthiuron) against diamondback moth (Plutella xylostella) and other lepidopterous pests in cruciferous crop. Crop Protection Division, Ciba-Geigy AG, CH- Basle, Switzerland, 6 p. Senn R., and M.L. Frischnecht (99). Use of fenoxycarb to control the citrus leaf miner (Phyllocnistis citrella) (Stnt).Crop Protection Division, Ciba-Geigy AG, CH- Basle, Switzerland, p. Chemical control 9