BIORATIONAL MANAGEMENT OF MAJOR PESTS OF BRINJAL

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Indian Journal of Entomology, 77(1): 51-55 (2015) DOI No. 10.5958/0974-8172.2015.00010.3 BIORATIONAL MANAGEMENT OF MAJOR PESTS OF BRINJAL K.R. GOWRISH*, B. RAMESHA AND R. USHAKUMARI Department of Agricultural Entomology, Kerala Agricultural University, College of Agriculture, Padanakkad- 671314 *E-mail: gowrishkr825@gmail.com ABSTRACT Field experiments were carried out in brinjal during summer and kharif, 2013 to evaluate the efficacy of Metarhizium anisopliae and Beauveria bassiana (talc formulation @ 5 gm/l), M. anisopliae and B. bassiana (potato dextrose broth @10 7 spores/ml), Bt formulation @ 1 ml/l, spinosad 45 SC @ 0.4 ml/l, Azadirachtin 1% @ 2 ml/l and Malathion 50 EC @ 2 ml/l against Leucinodes orbonalis, Epilachna vigintioctopunctata, Antoba olivacea and Selepa docilis. Spinosad 45 SC was found to be effective in reducing shoot and fruit infestation by L. orbonalis. Azadirachtin 1% was found to be most effective in controlling leaf infestation by E. vigintioctopunctata. Bt formulation was highly effective for early larval instars of A. olivacea. However, for later instars, malathion 50 EC was found to be effective. Azadirachtin 1% was found to be highly effective against S. docilis during summer and kharif. Key words: Spinosad 45 SC, azadirachtin 1%, Bt formulation, malathion 50 EC, Brinjal. The brinjal crop is subjected to attack by number of insect pests right from nursery stage till harvesting (Regupathy et al., 1997). Among these, the most important and destructive ones are the shoot and fruit borer, Leucinodes orbonalis Guenee (Lepidoptera: Pyraustidae); epilachna beetle, Epilachna vigintioctopunctata (F.) (Coleoptera: Coccinellidae); leaf roller, Antoba olivacea Wlk. (Lepidoptera: Noctuidae) and hairy caterpillar, Selepa docilis Butler (Lepidoptera: Noctuidae). For management of these pests, the conventional pest management practices often provide unsatisfactory results. Further, the use of chemical pesticide results in insecticide resistance, pest resurgence and pesticide residue. Therefore, an attempt was made to study the efficacy of microbial preparations, biorational and neem based insecticides against major pests of brinjal. MATERIALS AND METHODS The experiment was carried out in the Instructional farm, Kerala Agricultural University, College of Agriculture, Padanakkad during summer and kharif (2013). A bacterial wilt resistant variety Surya was used following randomized block design, comprising of 9 treatments viz., T 1 : Metarhizium anisopliae (talc formulation @ 5 gm/l),t 2 : Metarhizium anisopliae (potato dextrose broth @10 7 spores/ml), T 3 : Beauveria bassiana (talc formulation @ 5 gm/l), T 4 : Beauveria bassiana (potato dextrose * Corresponding author broth @10 7 spores/ml), T 5 1ml/L, T 6 : Spinosad 45 SC @ 0.4 ml/l, T 7 : Azadirachtin 1% @ 2 ml/l, T 8 ml/l standard check, T 9 The treatments were replicated thrice. The spray applications of the treatments were done once in 15 days after transplantation, as soon as the pests build up were noticed in the field. The infestation on the basis of damaged shoot, fruits and leaves were recorded from five randomly selected plants from each plot. Observations were made at 15 days after application of each treatments. Per cent shoot/fruit/leaf infestation was calculated as follows: Per cent shoot/fruit/leaf = Number of shoot/fruit/leaf infested 100 infestation Total number of shoot/fruit/leaf The data were subjected to transformation ( x + 1 ) wherever necessary, and statistically analyzed. RESULTS AND DISCUSSION From the experiment it was observed that, among the treatments, T 6 recorded minimum shoot infestation by L. orbonalis during summer at 15 days after first spray (DAFS), 15 days after second spray (DASS), 15 days after third spray (DATS) and 15 days after fourth spray (DAFRS). During kharif season, per cent incidence was 8.26, 6.81, 2.93 and 1.97 in the

52 Indian Journal of Entomology, 77(1), 2015 respective treatments (Table 1). This finding is in agreement with Pareet and Basavanagoud (2012) who reported that spinosad 45 EC was the most effective. Malathion 50 EC @ 2 ml/l was found to be the next best, while M. anisopliae talk formulation @ 5 g/l was found to be the least effective. These results agree with those of Yadav and Sharma (2005) who observed that malathion was found to be effective. The data on fruit infestation presented in Table 2 indicate that during summer the minimum infestation was recorded in T 6 at 15 DAFS, 15 DASS, 15 DATS and 15 DAFRS; and during kharif also with same trend Adiroubane and Raghuraman (2008) who observed that spinosad 45 SC was effective. The results on the leaf infestation by E. vigintioctopunctata is presented in Table 3. During summer T 8 (malathion 50 EC @ 2 ml/l) recorded least infestation at 15 days interval spraying four times, and during kharif. Azadirachtin 1% @ 2 ml/l also recorded minimum infestation. This is in accordance with Amitava-Konar et al. (2005) and Mane and Kulkarni (2010) who reported that azadirachtin 1000 ppm and neem oil 3% gave better results in controlling E. vigintioctopunctata than microbial insecticides. In the present study T 8 (standard check-malathion 50 EC) was found to be effective. The damage caused by A. olivacea revealed that T 5 (Bt formulation) recorded minimum infestation during summer and during kharif season also the same trend was observed (Table 4). The next best treatment was malathion 50 EC @ 2 ml/l. The present findings corroborates with earlier report by Baskaran and Kumar (1980) that the mixture of dipel at 0.1% with sublethal doses of carbaryl (0.04%) were found to be the most effective. As regards S. docilis it was observed that minimum infestation was found in T 8 (malathion 50 EC @ 2 ml/ L) during summer and during kharif (Table 5). Even though malathion 50 EC showed slight variation in Table 1. Shoot infestation by L. orbonalis and efficacy of treatments (summer, kharif) Shoot infestation % Treatments* kharif season 15 15 15 15 15 15 15 15 DAFS DASS DATS DAFRS DAFS DASS DATS DAFRS T 1 17.92 20.48 24.55 27.66 19.95 23.04 23.76 25.72 (4.97) (5.16) T 2 15.87 19.23 23.71 25.35 18.66 20.26 21.95 23.62 (4.79) (4.96) T 3 12.42 16.38 19.32 22.47 17.66 19.65 20.75 21.77 (4.66) (4.77) T 4 12.82 14.01 17.16 20.31 16.27 17.71 19.45 20.27 (4.52) (4.61) T 5 9.90 10.66 11.86 11.58 13.96 13.47 13.35 12.62 (3.78) (3.69) T 6 6.82 5.88 4.50 3.77 8.26 6.81 2.93 1.97 (1.98) (1.72) T 7 11.92 12.59 13.36 15.07 13.96 13.32 15.14 15.74 (4.01) (4.09) T 8 8.84 8.03 7.64 6.55 10.35 10.27 9.96 9.71 (3.31) (3.27) T 9 26.70 35.44 (s) 49.72 (s) 57.70 (s) 29.56 39.83 44.17 45.69 (s) (6.72) (6.83) CD at 0.05% 4.79 2.41 3.60 1.55 5.92 2.66 0.98 1.01 Figures in parenthesis denote x + 1 transformed values; (s) - Highly significant; DAFS- Days after first spray; DASS- Days after second spray; DATS- Days after third spray; DAFRS- Days after fourth spray.

Biorational management of major pests of brinjal 53 K.R. Gowrish, et al. Table 2. Fruit infestation by L. orbonalis and efficacy of treatments (summer, kharif) Fruit infestation % Treatments T 1 29.91 43.32 56.62 66.62 69.06 41.11 54.16 62.22 (5.56) (6.65) (7.59) (8.22) (8.37) T 2 30.15 44.99 54.24 62.56 60.63 42.85 50.00 54.29 (5.58) (6.78) (7.43) (7.97) (7.85) T 3 25.94 33.33 37.09 52.46 47.31 33.96 37.73 42.34 (5.19) (5.85) (6.17) (7.31) (6.95) T 4 28.60 39.58 47.16 51.18 54.92 35.55 42.37 46.15 (5.44) (6.37) (6.93) (7.22) (7.47) T 5 19.58 23.35 24.89 26.23 28.17 30.35 29.47 29.10 (4.53) (4.93) (5.08) (5.21) (5.40) T 6 11.58 10.34 8.77 4.60 8.03 20.13 16.15 13.09 (3.54) (3.36) (3.12) (2.36) (3.00) T 7 24.42 28.87 33.54 38.20 40.42 29.20 33.27 36.51 (5.04) (5.46) (5.87) (6.26) (6.43) T 8 16.47 15.75 13.07 12.92 11.84 25.26 18.10 15.95 (4.18) (4.09) (3.75) (3.73) (3.58) T 9 40.59 58.66 73.42 86.21 85.38 53.33 73.14 (s) 82.73 (6.44) (7.72) (8.62) (9.33) (9.29) CD at 0.05% 0.72 1.20 1.16 1.34 13.08 7.07 10.66 1.38 Figures in parenthesis denote x + 1 transformed values (s) - Highly significant spray. Treatments* Table 3. Infestation by E. vigintioctopunctata and efficacy of treatments (summer, kharif) T 1 32.72 35.30 37.69 39.16 32.13 34.12 38.52 40.73 T 2 33.39 37.29 41.12 44.58 35.35 36.81 39.37 41.73 T 3 35.73 42.58 48.83 52.91 37.23 40.68 49.07 51.17 T 4 37.98 49.35 51.09 57.46 38.92 43.21 50.14 54.44 T 5 35.67 41.69 45.32 48.50 36.78 39.81 44.54 46.89 T 6 28.70 30.81 32.44 34.25 31.24 28.24 23.79 21.80 T 7 27.40 26.29 25.73 24.69 26.82 23.93 18.92 16.50 T 8 26.07 20.76 18.50 14.43 21.33 18.03 13.05 12.43 T 9 42.00 (s) 52.04 (s) 70.59 (s) 80.34 (s) 47.60 61.68 (s) 78.28 (s) 88.80 (s) CD at 0.05% 4.80 6.75 5.01 6.84 6.26 1.58 2.54 5.97 (s) Highly significant; DAFS- Days after first spray; DASS- Days after second spray; DATS- Days after third spray; DAFRS- Days after fourth spray.

54 Indian Journal of Entomology, 77(1), 2015 Table 4. Infestation by A. olivacea and efficacy of treatments (summer, kharif) Treatment* T 1 10.06 12.63 13.01 14.57 7.28 8.21 10.91 12.12 T 2 10.57 11.72 12.39 13.98 7.90 9.37 14.10 16.12 T 3 10.04 12.19 15.05 17.23 7.21 8.13 10.13 11.26 T 4 11.29 13.55 15.96 17.33 7.84 9.15 12.36 14.57 T 5 7.07 5.06 3.92 2.39 4.08 3.24 2.08 1.81 T 6 8.87 7.05 6.13 5.18 4.93 4.55 4.57 4.29 T 7 8.01 8.51 7.76 7.08 5.00 5.11 5.26 6.27 T 8 7.15 6.00 4.04 3.32 4.06 3.28 3.08 2.79 T 9 12.60 16.43 21.02 25.37 10.97 13.96 16.13 20.01 CD at 0.05% 1.75 2.18 1.12 1.33 1.38 0.76 0.88 1.58 spray. Treatment* Table 5. Leaf infestation by S. docilis and efficacy of treatments (summer, kharif) T 1 8.37 9.05 9.98 10.21 7.93 9.32 12.35 14.01 T 2 8.42 9.19 10.37 11.95 8.10 10.07 13.46 15.69 T 3 7.26 7.71 8.00 8.14 7.04 8.14 9.51 11.97 T 4 7.89 8.04 8.25 9.38 7.55 9.37 12.09 13.99 T 5 7.17 5.06 4.12 2.07 5.71 3.96 2.47 0.74 T 6 7.08 6.24 5.24 4.13 5.48 4.18 2.82 1.09 T 7 6.06 4.04 2.97 1.47 4.55 3.46 2.25 0.50 T 8 5.06 3.00 1.68 0.91 4.04 3.13 2.01 0.37 T 9 11.83 13.63 15.28 18.06 11.95 14.98 16.83 18.89 CD at 0.05% 1.69 2.29 1.36 0.93 1.64 0.97 0.53 1.11 spray reducing the infestation, it was on par with azadirachtin 1%. Considering the toxicity and residual effect of malathion 50 EC on brinjal fruits, azadirachtin 1% is found to be the best. Afren-Nuaman (1996), Dreyer (1986) and Jacob and Sheila (1994) reported that neem extract was highly effective against S. docilis. ACKNOWLEDGEMENT This forms part of M. Sc (Ag.) thesis submitted to the Kerala Agricultural University by the senior author. The senior author gratefully acknowledges the Kerala Agricultural University for financial assistance.

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