EVALUATION OF PIGEONPEA GENOTYPES FOR RESISTANT TO WILT CAUSED BY FUSARIUM UDUM

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Plant Archives Vol. 16 No. 1, 2016 pp. 78-82 ISSN 0972-5210 EVALUATION OF PIGEONPEA GENOTYPES FOR RESISTANT TO WILT CAUSED BY FUSARIUM UDUM Sureshbabu 1 *, D. M. Mahalinga 2, T. Satheesh Naik 3, Zaheer Ahamad 4, Muniswamy 5, Y. S. Amaresh 6 and S. K. Jayalaxmi 7 1 & 7 College of Agriculture, Gulberga - 585 101, UAS, Raichur - 584 101 (Karnataka), India. 2, 3 & 5 Agriculture Research Station, Gulberga - 585 101, UAS, Raichur - 584 101 (Karnataka), India. 4 Krishi Vigyana Kendra, Gulberga - 585 101, UAS, Raichur - 584 101 (Karnataka), India. 6 Department of Plant Pathology, University of Agricultural Sciences, Raichur - 584 101 (Karnataka), India. Abstract Pigeon pea [Cajanus cajan (L.) Millspaugh] is an important drought resistant pulse crop. The pigeonpea seed serves as a major dietary protein source with more than 30% of protein for large populations. Pigeonpea crop has been affected by many diseases like wilt, Sterility Mosaic Disease, Phytopthora, leaf spot etc. Among these, wilt is an one, which is directly involve in the crop loss. Wilt is caused by Fusarium udam, which is an soil inhabitant, survive in soil and crop deberries during the off season. The only way to avoid or become free from wilt causing fungus i.e., Fusarium udum in pigeonpea is by developing the resistant varieties were most practical ways in India. So keeping in this view, the experiment or present investigation were conducted or carried out during 2014-15 to know theresistant entry against wilt pathogen by using different AVT-IVT, AICRP trails and pigeonpea genetic stock entries entries against pigeonpea wilt (Fusarium udum) sick plot developed at Agriculture Research Station, Kalburgi (UAS, Raichur) under artificial epiphytotic condition. Among the eighty entries, 18 entries WRP-1, BDN-2004-1, MAHABEJ, BRG-14-2, PT-257, BRG-14-1, MA_13, BWR-133, GRG-160, IPA- 8F, KA-12-03, ICPL-87119, KPL-44, KPL-43, BSMR-571, BSMR-846, BSMR-579 and BSMR-2 were showed moderately resistant (0 to 10%), 11 entries showed moderately susceptible (10 to 20%), 27 entries were showed susceptible (20 to 50%), 24 entries were showed highly susceptible (>50%) reaction and none of the entries showed resistant reaction. Key words : Pigeon pea [Cajanus cajan (L.) Millspaugh], bacterial leaf spot, Fusarium udum, farming system. Introduction Pigeon pea [Cajanus cajan (L.) Millsp] is widely adaptable to wide variety of climate and is one of the important legume crops of tropics and subtropics. It is an important source of protein in the cereal based vegetarian diet. It is largely consumed in the form of Dal. Pigeon pea plays an important role in farming system because it fixes the atmospheric nitrogen in the soil. A single largest factor responsible for such a low productivity in pigeonpea is low plant population (Mahanta, 2000), which is due to several biotic and abiotic constraints. Crop is affected by more than hundred pathogens. These includes fungi, bacteria, viruses, nematodes and mycoplasma like organisms. Major *Author for correspondence:e-mail: stellarpathology@gmail.com diseases of pigeonpea are, wilt (Fusarium udum Butler), sterility mosaic disease (virus), stem blight (Phytophthora drechsleri f.sp. cajani), root rot (Macrophomina phaseolina), stem canker (Phoma cajani and Colletotrichum capsici), bacterial leaf spot and canker (Xanthomonas axonopodis pv. cajani) and leaf spot (Cercospora indica). Among these diseases, wilt disease caused by Fusarium udum Butler, is the most destructive soil and seed born disease of pigeonpea in India leading to heavy production losses. Wilt caused by Fusarium udum Butler was first described by Butler from India in 1906. The disease since been reported from Bangladesh, Ghana, Grenanda, Indonesia, Kenya, Malawi, Mauritius, Tanzania, Thialand, Trinida, Uganda and Zambia. The F. udum is host specific to pigeonpea (Patel et al., 2011) and can survive in soil under wilted plant stubble for a

79 Sureshbabu et al. long period. The best way of wilt management is by growing resistant varieties. For developing resistant varieties, resistant source are the basic requirements. Identification of resistant sources involves testing germplasm under heavy inoculum potential and under conditions conducive for maximum disease development. Sick plot technique has been reported for large scale screenings under field conditions. Materials and Methods Uniform sick plots were developed for the fast few years in 1 ha of deep block soil of the vertisol group at Agriculture Research Station, Gulberga by incorporating chopped, wilted pigeonpea plants and growing cultivars susceptible to Fusarium udum. As far as we have been able to acertain only one pathogenic strain is present in these uniform wilt nursery plots. Eighty (IVT-AVT, AICRP entries and pigeonpea genetic stock) entries were sown on the month of late june or early july in the uniform wilt plots with the onset of the mansoon (rainy) season and after every two rows of test entries one row of susceptible cultivar ICP- 2376 was sown to maintain a high inoculum density in the plots as well as to allow comparison of test material with a highly susceptible cultivar and also TS- 3R and ICP-8863 wilt resistant check. The number of wilted plants were counted during cropping periods and data converted into disease incidence by using the formula. Number of plants infected Per cent of disease incidence = 100 Total number of plants examined Disease rating was done based on 1-9 scale as per Nene et al. (1981). Grade Reaction 1 Resistant (0 per cent) 3 Moderately resistant (0 10 per cent) 5 Moderately susceptible (10-20 per cent) 7 Susceptible (20-50 per cent) 9 Highly susceptible (more than 50 per cent) Results and Discussion Eighty (IVT-AVT, AICRP entries and pigeonpea genetic stock) pigeonpea entries were evaluated at National wilt sick plot, Agriculture Research Station, Gulberga. The observation on wilt incidence was recorded, among the eighty entries, 44 entries are from IVT-AVT lines, in that, six entries WRP-1,BDN-2004-1, MAHABEJ, BRG-14-2, PT-257 and BRG-14-1 were showed moderately resistant reaction with 0 to 10 per cent disease incidence, two entries CRG-2010-11 and AKTE-10-12 were showed moderately susceptible reaction with 10.00 to 20.00 per cent disease incidence, twenty entries RVSA-07-10, WRG-297, WRG-281, GRG-2009-1, RVSA-07-29, GRG-82, WRG-252, WRG- 244, RVSA-07-31, BDN-2010-01, AKTE-12-01, GRG- K1, IPA-13-1, GRG-140, WRG-292, CRG-2013-10, WRG-289, WRG-289, WRG-246 and WRG-248 were showed susceptible reaction with 20.00 to 50.00 per cent disease incidence, sixteen entries WRG-65, RVSA-07-22, WRG-97, PUSA-20143, WRG-285, WRG-288, WRG-287, PUSA-2014-2, WRG-242, RVSA-2014-2, WRG-223WRG-286, WRG-256, PUSA-2014, WRG- 296-3 and RVSA-2014-1 were showed highly susceptible reaction with more than 50.00 per cent disease incidence and none of the entries showed the resistant reaction (tables 1, 2 & 3). 26 entries are from AICRP lines, in that, six entries MA-13, BWR-133, GRG-160, IPA-8F, KA-12-03 and ICPL-87119 were showed moderately resistant reaction with 0.00 to 10.00 per cent disease incidence, five entries BGR-3, BDN-2011-1, BRG-5, TS-3R and BSMR-736 were showed moderately susceptible reaction with 10.00 to 20.00 per cent disease incidence, seven entries SKN- 1005, PG-27-R, BRG-4, JAS-28IPA-15-FICP-7119 and ICPHL-4989-7 were showed susceptible reaction with 20.00 to 50.00 per cent disease incidence, eight entries TJT-501, AL-1932, PA-419, PA-426, AL-1933, AL-1758, CO-6 and KA-12-2 were showed highly susceptible reaction with more than 50.00 per cent disease incidence and none of the entries showed the resistant reaction (tables 1, 2 & 3). 10 entries are from pigeonpea genetic stock lines, in that, six entries KPL-44, KPL-43, BSMR- 571, BSMR- 846,BSMR-579, and BSMR-2 were showed moderately resistant reaction with 0.00 to 10.00 per cent disease incidence, four entries BSMR-243, IPA-204, BSMR-736 and BSMR-853 showed moderately susceptible reaction with 10.00 to 20.00 per cent disease incidence and none of the entries shows susceptible, highly suceptible and resistant reaction (tables 1, 2 & 3). The utilization of resistant varieties is a classical approach to prevent the catastrophic losses caused by wilt disease, it decreases the cost of production and increases yield. Keeping this in view, investigations on performance of pigeonpea entries against wilt disease under artificial National sick plot condition were undertaken for the year 2014-15. Among the eighty (IVT- AVT, AICRP entries and pigeon pea genetic stock) entries,

Evaluation of Pigeonpea Genotypes for Resistant to Wilt caused by F. udum 80 Table 1 : Screening of pigeonpea IVT-AVT, AICRP and genetic stock entries against wilt caused by Fusarium udum under artificial National wilt sick plot Gulberga. % wilt % wilt S. no. Entries Disease reaction S. no. Entries Disase reaction Mean Mean AVT AICRP 01. RVSA-07-10 33.24 S 01. BGR-3 14.50 MS 02. WRG-297 31.82 S 02. SKN-1005 44.91 S 03. WRG-281 38.06 S 03. TJT-501 54.61 HS 04. WRG-65 57.55 HS 04. AL-1932 79.61 HS 05. RVSA-07-22 58.40 HS 05. PG-27-R 24.52 S 06. WRG-97 64.84 HS 06. MA-13 17.71 MR 07. WRP-1 08.01 MR 07. PA-419 70.82 HS 08. GRG-2009-1 39.27 S 08. BWR-133 6.79 MR 09. RVSA-07-29 28.66 S 09. BRG-4 22.31 S 10. PUSA-2014-3 91.25 HS 10. JSA-28 30.47 S 11. WRG-285 67.91 HS 11. BDN-2011-1 11.81 MS 12. BDN-2004-1 06.49 MR 12. GRG-160 3.6 MR 13. CRG-2010-11 12.07 MS 13. PA-426 66.70 HS 14. WRG-288 56.95 HS 14. AL-1933 67.95 HS 15. GRG-82 22.50 S 15. IPA-8F 5.01 MR 16. WRG-287 73.26 HS 16. AL-1758 71.71 HS 17. MAHABEJ 2.60 MR 17. KA-12-03 17.55 MR 18. WRG-252 27.96 S 18. IPA-15-F 27.24 S 19. PUSA-2014-2 80.70 HS 19. CO-6 92.50 HS 20. WRG-244 48.83 S 20. BRG-5 11.22 MS 21. WRG-242 64.64 HS 21. KA-12-2 50.07 HS 22. RVSA-07-31 34.85 S 22. TS-3R 15.58 MS 23. RVSA-2014-2 67.33 HS 23. BSMR-736 16.83 MS 24. WRG-223 53.38 HS 24. ICP-7119 35.5 S 25. WRG-286 68.71 HS 25. ICPL-87119 5.56 MR 26. BDN-2010-01 25.18 S 26. ICPHL-4989-7 32.67 S 27. AKTE-12-01 21.92 S Pigeonpea genetic stock 28. AKTE-10-12 19.39 MS 01. KPL-44 6.03 MR 29. WRG-256 65.97 HS 02. BSMR-243 14.46 MS 30. GRG-K1 31.65 S 03. KPL-43 6.57 MR 31. IPA-13-1 23.44 S 04. BSMR-571 2.59 MR 32. GRG-140 35.82 S 05. IPA-204 11.51 MS 33. WRG-292 29.43 S 06. BAMR-846 6.08 MR 34. PUSA-2014 55.84 HS 07. BSMR-579 4.51 MR 35. CRG-2013-10 45.40 S 08. BSMR-736 19.08 MS 36. WRG-289 39.95 S 09. BSMR-2 9.19 MR 37. WRG-293 54.41 HS 10. BSMR-853 14.45 MS 38. WRG-246 40.88 S 39. WRG-248 42.84 S 40. RVSA-2014-1 64.62 HS AVT Check entries 41. BRG-14-2 4.20 MR 1. TS-3R (WRC) 8.49 MR 42. PT-257 9.56 MR 2. ICP-8863 (WRC) 9.48 MR 43. BRG-14-1 5.28 MR 3. ICP2376 (WSC) 80.08 HS 44. PT-307-1 29.22 S

81 Sureshbabu et al. Table 2 : Reaction of different pigeonpea entries against wilt under artificial epiphytic condition. S. Name of the Resistant Moderate Moderate Susceptible Highly Total no. entries (up to 0%) resistant susceptible (20% to 50%) susceptible (0% to 10%) (10% to 20%) (> 50%) 1. IVT-AVT - WRP-1, CRG-2010-11 RVSA-07-10, WRG-65, RVSA- 44 BDN-2004-1, and WRG-297, 07-22,WRG- MAHABEJ, AKTE-10-12 WRG-281, 97,PUSA-20143, BRG-14-2, GRG-2009-1, WRG-285,WRG- PT-257, BRG-14-1 RVSA-07-29, GRG-82,WRG-252, WRG-244, RVSA-07-31, BDN-2010-01, AKTE-12-01, GRG-K1, IPA-13-1, GRG-140, WRG-292, CRG-2013-10, WRG-289, WRG-289, WRG-246 and WRG-248 288,WRG-287, PUSA-2014-2, WRG-242, RVSA- 2014-2,WRG- 223WRG- 286,WRG- 256,PUSA- 2014,WRG-296-3 and RVSA-2014-1 2. AICRP - MA-13, BWR-133, BGR-3,BDN- SKN-1005, PG-27-R, TJT-501, AL- 26 GRG-160, IPA-8F, 2011-1,BRG-5, BRG-4, JAS-28IPA- 1932,PA-419,PA- KA-12-03, ICPL- TS-3R and 15-FICP-7119 and 426, AL-1933, AL- 87119 BSMR-736 ICPHL-4989-7 1758,CO-6 and KA-12-2 3. Pigeonpea - KPL-44, KPL-43, BSMR-243, IPA- - - 10 genetic stock BSMR- 571, 204,BSMR-736 BSMR-846,BSMR- and BSMR-853 579 and BSMR-2 Total 80 Table 3 : Reaction of pigeonpea entries against wilt under artificial National sick plot Gulberga. Grade Reaction Entries 1 Resistant - (0 per cent) 3 Moderately resistant (0 10 per cent) 5 Moderately susceptible (10-20 per cent) 7 Susceptible (20-50 per cent) 9 Highly susceptible (> 50 per cent) WRP-1,BDN-2004-1, MAHABEJ, BRG-14-2, PT-257, BRG-14-1, MA-13, BWR-133, GRG- 160, IPA-8F, KA-12-03, ICPL-87119, KPL-44, KPL-43, BSMR- 571, BSMR-846,BSMR-579, and BSMR-2 CRG-2010-11,AKTE-10-12,BGR-3,BDN-2011-1,BRG-5, TS-3R, BSMR-736, BSMR-243, IPA- 204,BSMR-736 and BSMR-853 RVSA-07-10,WRG-297,WRG-281,GRG-2009-1, RVSA-07-29, GRG-82,WRG-252,WRG- 244,RVSA-07-31,BDN-2010-01,AKTE-12-01, GRG-K1, IPA-13-1,GRG-140, WRG-292, CRG- 2013-10, WRG-289, WRG-289, WRG-246, WRG-248, SKN-1005, PG-27-R, BRG-4,JAS-28IPA- 15-FICP-7119 and ICPHL-4989-7 WRG-65, RVSA-07-22,WRG-97,PUSA-20143, WRG-285,WRG-288,WRG-287, PUSA-2014-2, WRG-242, RVSA-2014-2,WRG-223WRG-286,WRG-256,PUSA-2014,WRG-296-3, RVSA- 2014-1, TJT-501, AL-1932,PA-419,PA-426, AL-1933, AL-1758,CO-6 and KA-12-2

Evaluation of Pigeonpea Genotypes for Resistant to Wilt caused by F. udum 82 18 entries were showed moderately resistant reaction with with 0.00 to 10.00 per cent disease incidence, 11 entries were showed moderately susceptible reaction with 10.00 to 20.00 per cent disease incidence, 27 entries were showed susceptible reaction with 20.00 to 50.00 per cent disease incidence and 24 entries showed highly susceptible reaction with more than 50.00 per cent disease incidence and none of the entries showed the resistant reaction. Out of eighty entries evaluated under sick plot, 18 entries WRP-1, BDN-2004-1, MAHABEJ, BRG-14-2, PT-257, BRG-14-1, MA_13, BWR-133, GRG-160, IPA- 8F, KA-12-03, ICPL-87119, KPL-44, KPL-43, BSMR- 571, BSMR-846, BSMR-579 and BSMR-2 were showed moderately resistant reaction with with 0.00 to 10.00 per cent disease incidence. The results of the above study were in accordance with the findings of Nene (1982), where ICP 8863 was found resistant genotype in pot culture screening. Similarly, Mishra and Dhar (2005) reported same findings in vitro (Prasanthi et al., 2009), reported a disease score of zero in treated and untreated pots of genotype ICP 8863 in pot culture screening technique for screening fusarium wilt resistant/susceptible genotypes. Among the eighty entries, WRP-1, BDN-2004-1, MAHABEJ, BRG-14-2, PT-257, BRG-14-1, MA_13, BWR-133, GRG-160, IPA-8F, KA-12-03, ICPL-87119, KPL-44, KPL-43, BSMR-571, BSMR-846, BSMR-579, and BSMR-2 were showed moderately resistance reaction so that these lines can be used for exploitated for further development of resistant varieties through breeding programme. References Mahanta, I. C. and A. Dhal (2000). Performance of medium duration pigeonpea lines against wilt and sterility mosaic diseases in north central plateau zone of Orissa. Legume Res., 23(4) : 265-267. Mishra, S. and V. Dhar (2005). Efficient method of inoculation by Fusarium udum, the incident of pigeonpea wilt. Indian Phytopath., 58(3) : 332-334. Nene, Y. L. and J. Kannayian (1982). Screening pigeonpea for resistance to Fusarium wilt. Plant Dis., 66(4) : 306-307. Nene, Y. L., J. Kannaiyan and M. V. Reddy (1981). Pigeonpea disease resistance screening technique. Information Bull. No. 9. Patancheru 502 324, Andhra Pradesh, India. International Crop Research Institute for the Semi-Arid Tropics, pp. 14. Patel, S. I., R. L. Patel, A. G. Desai and D. S. Patel (2011). Morphological, cultural and pathogenic variability among Fusarium udum and root dip inoculation for screening pigeonpea germplasm. J. Mycol. Pl. Pathol., 41(1) : 57-62. Prasanthi, L., B. B. V. Reddy, R. K. Rani and H. P. Naidu (2009). Molecular markers for screening Fusarium wilt resistance in pigeonpea (Cajanus cajan L. Millspaugh). Legume Res., 32(1) : 19-24.