• editor.aipublications@gmail.com
  • Track Your Paper
  • Contact Us
  • ISSN: 2456-8635 (NAAS Rating: 3.43)

International Journal Of Horticulture, Agriculture And Food Science(IJHAF)

Utilization of Garamycin for the control of bacterial disease: flacherrie in the larval instars of silkworm, Bombyx mori (L) (Race: Double Crossed)

Vitthalrao B. Khyade


International Journal of Horticulture, Agriculture and Food science(IJHAF), Vol-4,Issue-4, July - August 2020, Pages 139-153, 10.22161/ijhaf.4.4.2

Download | Downloads : 8 | Total View : 972

Share

The bacterial disease: flacherrie is the most significant parameter associated with the loss of silk yield. The loss of appetite; discharge watery feces and vomiting are the common symptoms of infection of bacteria to the larval instars of silkworm, Bombyx mori (L). The present attempt is dealing with utilization of antibiotic compound for the control of bacterial disease: flacherrie in the larval instars of silkworm, Bombyx mori (L) (Race: Bivoltine Double Hybrid). For the bacterial pathogens, the diseased black thorax septicemia infected larvae of silkworm, Bombyx mori (L) were crushed through the use of using mortar and pestle; the solution was filtered; the filtrate was centrifuged (at 4000-5000 rpm) for ten minutes; the precipitate (in the form of pellet) was used for bacterial inoculum. The bacterial sample (inoculum) was streaked in Luria Agar under aseptic conditions and processed for incubation (at 37ºC overnight). After 24 hours, the growth of bacteria was noticed, and it was further processed for sub culture. A bacterial sample was taken through the use of loop; centrifuged for 15 minutes at 4000 rpm and the precipitate (in the form of pellet) was dissolved in distilled water. Soon after the second moult, larval instars were divided into four groups (Untreated control group; Water treated group; Bacterial inoculum treated (infected) group and the group treated with Garamycin antibiotics, each with hundred individuals. The larvae of bacterial inoculum treated (infected) group and the group of larvae for antibiotics treatment were infected (treated) with the aqueous solution of bacterial inoculum. This treatment was carried out through smearing the solution bacterial solution onto the surface of leaves of mulberry, Morus alba (L) (M.5 Variety) leaf surface. The treated leaves were allowed for draining. The treated leaves were fed four times to the third instar larvae on the first day (100 grams of leaves for the group of hundred larvae for each time). For the second day and third day, the larvae were fed with normal untreated mulberry leaves. The water treated group of larvae was fed with mulberry leaves smeared with distilled water. The larvae of untreated control and antibiotics treated group were fed with normal untreated leaves for the days: first, second and third. The antibiotics treatment was followed on the fourth day of the third instar. Hundred grams of mulberry leaves were immersed in four hundred milliliter aqueous solution of Garamycin (40 microgam/ml distal water) for half an hour. The leaves were drained completely. The Garamycin treated leaves were used for the feeding on the fourth day (four feedings at the rate of 100 grams of leaves for the group of hundred larvae for each time). Thereafter, the larvae were fed with untreated mulberry leaves to all the groups of larvae of third, fourth and fifth instars. The haemolymph from the larvae (ten larvae from each group) was collected on the fifth day of the fifth instar and processed for electrophoresis. The hundred percent effective rate of rearing (ERR) were reported for the Garamycin treated group. Single female cocoon weight: 1.564 (±0.429) units with the shell ratio: 24.744 units and single male cocoon weight: 1.193 (±0.055) with the shell ratio: 22.967 units were reported for the Garamycin treated group. The variation was detected in the pattern of banding of the protein with significant polymorphism (88.3 percent) with two bands of monomorphic nature; twelve bands of polymorphic nature and three bands of “unique” nature.

Antibiotics, Bacterial Flacherrie, Bombyx mori, Garamycin.

[1] Taha, R. H. (2002): Physiological changes of diseased mulberry silkworm, Bombyx mori L. M. Sc. thesis, Ain Shams Univ., Faculty of Science.
[2] Choudhury, A.; A. Guha; A. Yadav; B. Unni and M. Roy (2002): Causal organism of flacherie in the silkworm Antheraea assama Ww: isolation, characterization and its inhibition by garlic extract. Phytother. Res., 16: S89-S90.
[3] Babu, M. S.; G. Gopalaswamy and N. Chandramohan (2005): Identification of an antiviral principle in Spirulina platensis Bombyx mori against nuclear polyhedrosis virus (bmnpv). Indian J of Biotechnology, 4: 384-388.
[4] Samson M.V. 1995. Flacherie in Bombyx mori L. Indian Silk. 33(11): 31-32.
[5] Tanada, Y. and H. K. Kaya (1993): Insect pathology. Academic Press, San Diego, P.666.
[6] Acharya, A.; S. Sriram; S. Sehrawat; M. Rahman; D. Sehgal and K. P. Gopinathan (2002): Bombyx mori nucleopolyhedrovirus: Molecular biology and biotechnological applications for large-scale synthesis of recombinant proteins. Curr. Sci. 28: 455-465.
[7] Subramanian, S.; P. Mohanraj and M. Muthuswamy (2009): New paradigm in silkworm disease management using probiotic application of Streptomyces noursei. Karnataka J. Agric. Sci., 22 (3): 499-501. Sammour, R.; M. A. Hamoud; A. S. Haider and A. Badr (1993): Electrophoretic analysis of the seed proteins of some species in the genus Lotus. Feddes Repertorium, 104 (3): 251-257.
[8] Venkatesh, K. R. And A. Srivastava (2010): Relevance of antibiotics with reference to sericulture industry. I.J.S.N., 1(2): 97-100.
[9] Aarti Sanjay Dhumal, Pragati Pramod Shinde, Vitthalrao Bhimasha Khyade (2019). The Aqueous Solution of Antibiotics Norfloxacin for Total Protein Contents in the Fifth Instar Larvae of Silkworm, Bombyx mori (L) (Double Hybrid Race) [(CSR2XCSR27)] x [(CSR6XCSR26)]. Journal of Modern Chemistry & Chemical Technology. ISSN: 2229-6999 (Online), ISSN: 2321-5208 (Print) Volume 10, Issue 3.www.stmjournals.com
[10] Phillips, I.; M. Casewell; T. Cox; B. Groot; C. Friis; R. Jones; C. Nightingale; R. Preston and J. Waddell (2004): Does the use of antibiotics in food animals pose a risk to human health? A critical review of published data. J. of Antimicrobial Chemotherapy, 54(1): 76-278.
[11] Hou, Y.; Y. Zou; F. Wang; J. Gong; X. Zhong; Q. Xia and P. Zhao (2010): Comparative analysis of proteome maps of silkworm hemolymph during different developmental stages. Proteome Science, 8:45.
[12] Tanaka, H. and M. Yamakawa (2011): Regulation of the innate immune responses in the silkworm, Bombyx mori. ISJ, 8: 59-69.
[13] Jannatun Nesa, Abdul Sadat, Danieli F. Buccini, Ahmet Kati, Amit K. Mandal and Octavio L. Franco (2020). Antimicrobial peptides from Bombyx mori: a splendid immune defense response in silkworms. The Royal Society of Chemistry (RSC Adv., 2020, 10): 512 – 523.
[14] Krishnaswami, S., Narasimhana, M. N., Suryanarayana, S. K. and Kumaraj, S. (1978). Sericulture Manual –ll: Silk worm Rearing. F A O , United Nation’s Rome: 131.
[15] Krishnaswamy, S. (1978): New technology of silkworm rearing. Central Sericultural Research and Training Institute, Central Silk Board, India, Bulletin (2):1-23.
[16] Khyade V. B. (2004). Influence of juvenoids on silk worm, Bombyx mori (L). Ph.D. Thesis, Shivaji University, Kolhapur, India.
[17] Aneja, K. R. (2003): Experiments in microbiology, plant pathology and biotechnology. New Age International (P) Limited Publeshers, 4th Edition. P.376
[18] Suparna, M. K.; G. Mallikarjun; S. S. Ingalhalli; V. Shyamkumar and A. A. Hooli (2011): Role of antibacterial proteins in different silkworm strains against flacherie. The Bioscan, 6 (3): 365-369.
[19] Lammli, U. K. (1970): Cleavage of structural proteins during the assembly of the head of bacteriophage T4. Nature, 227: 680 -685.
[20] Norman, T. J. and Baily (1955). Some Problems in the Statistical Analysis of Epidemic Data. Statistical Methodology (Journal of Royal Statistical Society) First published: January 1955. Doi.10.1111/j.2517-6161.1955.tb00178.x
[21] Vitthalrao B. Khyade and Manfred Eigen (2018). Key Role of Statistics for the Fortification of Concepts in Agricultural Studies. International Academic Journal of Innovative Research Vol. 5, No. 3, 2018, pp. 32-46. ISSN 2454-390X www.
iaiest.com
[22] Sammour, R.; M. A. Hamoud; A. S. Haider and A. Badr (1993): Electrophoretic analysis of the seed proteins of some species in the genus Lotus. Feddes Repertorium, 104 (3): 251-257.
[23] Rottenberg, A.; E. Nevo and D. Zohary (2000): Genetic variability in sexually monomorphic and dimorphic populations of Populus euphratica (Salicaceae). Can. J. Forest. Res., 30: 482-486.
[24] Huang, L.; T. Cheng; P. Xu; D. Cheng; T. Fang and Q. Xia (2009): A Genome wide survey for host response of silkworm, Bombyx mori during pathogen Bacillus bombyseptieus infection. PLoS One, 4(12): e8098, www.plosone.org.
[25] Tanaka, H. and M. Yamakawa (2011): Regulation of the innate immune responses in the silkworm, Bombyx mori. ISJ, 8: 59-69.
[26] Fujiwara,Y. and O. Yamashita (1992): Gene structure of Bombyx mori larval serum protein (BmLSP). Insect Mol. Biol., 1 (2): 63-69.
[27] Izumi, S.; A. Fujie; S. Yamada and S. Tomino (1981): Molecular properties and biosynthesis of major plasma proteins in Bombyx mori. Biochim Biophys Acta, 670: 222-229.
[28] Kim, E. J.; H. J. Park and T. H. Park (2003): Inhibition of apoptosis by recombinant 30K protein originating from silkworm haemolymph. Biochemical and Biophysical Research Communications, 308 (3):523-528.
[29] Naletova, E. A.; T. A. Egorova and I. B. Filippovich (1982): Isolation and properties of carboxylesterase from haemolymph of the silkworm Bombyx mori L. Biokhimiia Moscow Russia, 47 (11): 1844 -1851.
[30] Nakahara,Y.; S. Shimura; C. Ueno; Y. Kanamori; K. Mita; M. Kiuchi and M. Kamimura (2009): Purification and characterization of silkworm hemocytes by flow cytometry. Dev. Comp. Immunol., 33 (4): 439-448.
[31] Kaito, C.; N. Akimitsu; H. Watanabe and K. Sekimizu (2002): Silkworm larvae as an animal model of bacterial infection pathogenic to humans. Microbial Pathogenesis, 32(4): 183-190.
[32] Hossain, M. S.; H. Hamamoto; Y. Matsumoto; I. M. Razanajatovo; J. Larranaga; C. Kaito; H. Kasuga and K. Sekimizu (2006): Use of silkworm larvae to study pathogenic bacterial toxins. J Biochem. (Tokyo), 140: 439-444.
[33] Yamakawa, M. and H. Tanaka (1999): Immune proteins and their gene expression in the silkworm, Bombyx mori. Developmental and Comparative Immunology, 23: 281-289.
[34] Vitthalrao B. Khyade (2020). Utilization of Garamycin for the control of bacterial disease: flacherrie in the larval instars of silkworm, Bombyx mori (L)(Race: Double Crossed). International Conference on Agriculture, Environmental and Rural Development (AERD-2020) held on July 22-23, 2020. Ref. No.:-IRDCP/AERD-072020/12.