Collateral benefits of restricted insecticide application for control of African trypanosomiasis on Theileria parva in cattle: a randomized controlled trial
详细信息    查看全文
  • 作者:Dennis Muhanguzi (70) (71)
    Kim Picozzi (71)
    Jan Hatendorf (72) (73)
    Michael Thrusfield (74)
    Susan Christina Welburn (71)
    John David Kabasa (70)
    Charles Waiswa (70)

    70. Department of Biomolecular and Biolaboratory Sciences
    ; College of Veterinary Medicine Animal Resources and Biosecurity ; Makerere University ; P.O. Box 7062 ; Kampala ; Uganda
    71. Division of pathway Medicine
    ; Centre for Infectious Diseases ; School of Biomedical Sciences ; College of Medicine and Veterinary Medicine ; The University of Edinburgh ; Chancellor鈥檚 Building ; 49 Little France Crescent ; Edinburgh ; EH16 4SB ; UK
    72. Department of Public Health and Epidemiology
    ; Swiss Tropical Institute ; Socinstrasse 57 ; Basel ; CH-4002 ; Switzerland
    73. University of Basel
    ; Petersplatz 1 ; Basel ; 4003 ; Switzerland
    74. Royal (Dick) School of Veterinary Studies
    ; The University of Edinburgh ; Edinburgh ; EH25 9RG ; UK
  • 关键词:Collateral benefits ; Endemic stability ; East coast fever ; p104 ; based PCR ; Restricted application protocol (RAP) ; T.parva ; Tororo district
  • 刊名:Parasites & Vectors
  • 出版年:2014
  • 出版时间:December 2014
  • 年:2014
  • 卷:7
  • 期:1
  • 全文大小:737 KB
  • 参考文献:1. Jongejan, F, Uilenberg, G (2004) The global importance of ticks. Parasitology 129: pp. S3-14
    2. Swallow, BM (1999) Impacts of trypanosomiasis on African agriculture. FAO, Rome
    3. Uilenberg, G (1995) International collaborative research: significance of tick-borne hemoparasitic diseases to world animal health. Vet Parasitol 57: pp. 19-41 CrossRef
    4. Kivaria, FM (2006) Estimated direct economic costs associated with tick-borne diseases on cattle in Tanzania. Trop Anim Health Prod 38: pp. 291-299 CrossRef
    5. Tosas, AO (2006) Theileria Parva: Inter- and Intra-Species Interactions in the Community of Endemic Pathogens of African Cattle. The University of Edinburgh, Edinburgh
    6. Perry, BD, Young, AS (1995) The past and future roles of epidemiology and economics in the control of tick-borne diseases of livestock in Africa: the case of theileriosis. Prev Vet Med 25: pp. 107-120 CrossRef
    7. Purnell, R (1977) East Coast fever: some recent research in East Africa. Adv Parasitol 15: pp. 83-132 CrossRef
    8. Deem, SL, Perry, BD, Katende, JM, McDermott, JJ, Mahan, SM, Maloo, SH, Morzaria, SP, Musoke, AJ, Rowlands, GJ (1993) Variations in prevalence rates of tick-borne diseases in Zebu cattle by agroecological zone: implications for East Coast fever immunization. Prev Vet Med 16: pp. 171-187 CrossRef
    9. Fevre, EM, Wissmann, BV, Welburn, SC, Lutumba, P (2008) The burden of human African trypanosomiasis. PLoS Negl Trop Dis 2: pp. e333 CrossRef
    10. Minjauw, B, McLeod, A (2003) Tick-borne diseases and poverty. The impact of ticks and tick- borne diseases on the livelihood of small-scale and marginal livestock owners in India and eastern and southern Africa. Research report, DFID Animal Health Programme. Centre for Tropical Veterinary Medicine, University of Edinburgh, UK
    11. Perry, B, Sones, K (2007) Poverty reduction through animal health. Science 315: pp. 333-334 CrossRef
    12. Kabayo, JP (2002) Aiming to eliminate tsetse from Africa. Trends Parasitol 18: pp. 473-475 CrossRef
    13. Torr, S, Eisler, M, Coleman, P, Morton, J, Machila, N (2002) Integrated control of ticks and tsetse. A report for the DFID Advisory and Support Services Contracts.
    14. de Haan, C, Umali, DL (1992) Public and private sector roles in the supply of veterinary services. Public and Private Roles in Agricultural Development, Proceedings of 12th Agricultural Sector symposium. The World Bank, Washington DC, pp. 125-137
    15. Holden, S (1999) The economics of the delivery of veterinary services. Rev Sci Tech 18: pp. 425-439
    16. Eisler, MC, Torr, SJ, Coleman, PG, Machila, N, Morton, JF (2003) Integrated control of vector-borne diseases of livestock 鈥?pyrethroids: panacea or poison?. Trends Parasitol 19: pp. 341-345 CrossRef
    17. Torr, SJ, Maudlin, I, Vale, GA (2007) Less is more: restricted application of insecticide to cattle to improve the cost and efficacy of tsetse control. Med Vet Entomol 21: pp. 53-64 CrossRef
    18. Bardosh, K, Waiswa, C, Welburn, SC (2013) Conflict of interest: use of pyrethroids and amidines against tsetse and ticks in zoonotic sleeping sickness endemic areas of Uganda. Parasit Vectors 6: pp. 204 CrossRef
    19. Okello, A, Welburn, S, Kabasa, JD, Waiswa, C, Rannaleet, A, Mitchell, M, Semakula, L (2011) Stamp Out Sleeping Sickness (SOS): An Innovative One Health Approach to Neglected Zoonotic Disease in Uganda. Ecohealth. 233 SPRING ST, NEW YORK, NY 10013 USA, pp. S72-S72
    20. Kabasa, JD (2007) Public-private partnership works to stamp out sleeping sickness in Uganda. Trends Parasitol 23: pp. 191-192 CrossRef
    21. Bauer, B, Kabore, I, Liebisch, A, Meyer, F, Petrich-Bauer, J (1992) Simultaneous control of ticks and tsetse flies in Satiri, Burkina Faso, by the use of flumethrin pour on for cattle. Trop Med Parasitol 43: pp. 41-46
    22. Selby, R, Bardosh, K, Picozzi, K, Waiswa, C, Welburn, SC (2013) Cattle movements and trypanosomes: restocking efforts and the spread of Trypanosoma brucei rhodesiense sleeping sickness in post-conflict Uganda. Parasit Vectors 6: pp. 281 CrossRef
    23. Norval, RAI, Perry, BD, Young, AS (1992) The epidemiology of theileriosis in Africa. Academic Press, London
    24. Coleman, PG, Perry, BD, Woolhouse, ME (2001) Endemic stability鈥揳 veterinary idea applied to human public health. Lancet 357: pp. 1284-1286 CrossRef
    25. Magona, JW, Greiner, M, Mehlitz, D (2000) Impact of tsetse control on the age-specific prevalence of trypanosomosis in village cattle in southeast Uganda. Trop Anim Health Prod 32: pp. 87-98 CrossRef
    26. Okiria, R, Okuna, NM, Magona, JW, Mayende, JS (2002) Sustainability of tsetse control by subsequent treatment of 10% of a previously treated Ugandan cattle population with 1%聽w/v deltamethrin. Trop Anim Health Prod 34: pp. 105-114 CrossRef
    27. Okello-Onen, J, Tukahirwa, EM, Perry, BD, Rowlands, GJ, Nagda, SN, Musisi, G, Bode, E, Heinonen, R, Mwayi, W, Opuda-Asibo, J (2003) The impact of tick control on the productivity of indigenous cattle under ranch conditions in Uganda. Trop Anim Health Prod 35: pp. 237-247 CrossRef
    28. Muhanguzi, D, Picozzi, K, Hatendorf, J, Thrusfield, M, Welburn, SC, Kabasa, JD, Waiswa, C (2014) Prevalence and spatial distribution of Theileria parva in cattle under crop-livestock farming systems in Tororo District, Eastern Uganda. Parasit Vectors 7: pp. 91 CrossRef
    29. Picozzi, K, Tilley, A, F猫vre, E, Coleman, P, Magona, J, Odiit, M, Eisler, M, Welburn, S (2002) The diagnosis of trypanosome infections: applications of novel technology for reducing disease risk. Afr J Biotechnol 1: pp. 39-45
    30. Ahmed, HA, MacLeod, ET, Hide, G, Welburn, SC, Picozzi, K (2011) The best practice for preparation of samples from FTA(R)cards for diagnosis of blood borne infections using African trypanosomes as a model system. Parasit Vectors 4: pp. 68 CrossRef
    31. Becker, S, Franco, JR, Simarro, PP, Stich, A, Abel, PM, Steverding, D (2004) Real-time PCR for detection of Trypanosoma brucei in human blood samples. Diagn Microbiol Infect Dis 50: pp. 193-199 CrossRef
    32. Skilton, RA, Bishop, RP, Katende, JM, Mwaura, S, Morzaria, SP (2002) The persistence of Theileria parva infection in cattle immunized using two stocks which differ in their ability to induce a carrier state: analysis using a novel blood spot PCR assay. Parasitology 124: pp. 265-276
    33. Konnai, S, Imamura, S, Nakajima, C, Witola, WH, Yamada, S, Simuunza, M, Nambota, A, Yasuda, J, Ohashi, K, Onuma, M (2006) Acquisition and transmission of Theileria parva by vector tick, Rhipicephalus appendiculatus. Acta Trop 99: pp. 34-41 CrossRef
    34. Ocaido, M, Otim, C, Okuna, N, Erume, J, Ssekitto, C, Wafula, R, Kakaire, D, Walubengo, J, Monrad, J (2005) Socio-economic and livestock disease survey of agro-pastoral communities in Serere County, Soroti District, Uganda. Livest Res Rural Dev 7: pp. Art. #93
    35. Murray, M, Gray, A (1984) The current situation on animal trypanosomiasis in Africa. Prev Vet Med 2: pp. 23-30 CrossRef
    36. Hursey, B, Slingenbergh, J (1995) The tsetse fly and its effects on agriculture in sub-Saharan Africa. World Anim Rev 2: pp. 67-73
    37. Machila, N, Emongor, R, Shaw, AP, Welburn, SC, McDermott, J, Maudlin, I, Eisler, MC (2007) A community education intervention to improve bovine trypanosomiasis knowledge and appropriate use of trypanocidal drugs on smallholder farms in Kenya. Agr Syst 94: pp. 261-272 CrossRef
    38. Magona, JW, Walubengo, J, Olaho-Mukani, W, Jonsson, NN, Welburn, SW, Eisler, MC (2011) Spatial variation of tick abundance and seroconversion rates of indigenous cattle to Anaplasma marginale, Babesia bigemina and Theileria parva infections in Uganda. Exp Appl Acarol 55: pp. 203-213 CrossRef
    39. Staroverov, SA, Sidorkin, VA, Fomin, AS, Shchyogolev, SY, Dykman, LA (2011) Biodynamic parameters of micellar diminazene in sheep erythrocytes and blood plasma. J Vet Sci 12: pp. 303-307 CrossRef
    40. Magona, JW, Walubengo, J, Olaho-Mukani, W, Jonsson, NN, Welburn, SC, Eisler, MC (2008) Clinical features associated with seroconversion to Anaplasma marginale, Babesia bigemina and Theileria parva infections in African cattle under natural tick challenge. Vet Parasitol 155: pp. 273-280 CrossRef
    41. Bohning, D, Greiner, M (1998) Prevalence estimation under heterogeneity in the example of bovine trypanosomosis in Uganda. Prev Vet Med 36: pp. 11-23 CrossRef
    42. Bourn, D, Grant, I, Shaw, A, Torr, S (2005) Cheap and safe tsetse control for livestock production and mixed farming in Africa. Aspect Appl Biol 75: pp. 81
    43. Vale, G, Mutika, G, Lovemore, D (1999) Insecticide-treated cattle for controlling tsetse flies (Diptera: Glossinidae): some questions answered, many posed. Bull Entomol Res 89: pp. 569-578 CrossRef
    44. Brownlow, AC (2007) Evaluation of a novel method for controlling bovine trypanosomiasis; a longtudinal study in south-eastern Uganda. The University of Ednburgh, Edinburgh, UK
    45. Vale, GA, Grant, IF (2002) Modelled impact of insecticide-contaminated dung on the abundance and distribution of dung fauna. Bull Entomol Res 92: pp. 251-263 CrossRef
    46. Vale, GA, Grant, IF, Dewhurst, CF, Aigreau, D (2004) Biological and chemical assays of pyrethroids in cattle dung. Bull Entomol Res 94: pp. 273-282 CrossRef
    47. Norval, RA, Lawrence, JA, Young, AS, Perry, BD, Dolan, TT, Scott, J (1991) Theileria parva: influence of vector, parasite and host relationships on the epidemiology of theileriosis in southern Africa. Parasitology 102 Pt 3: pp. 347-356 CrossRef
    48. Mahoney, DF, Ross, DR (1972) Epizootiological factors in the control of bovine babesiosis. Aust Vet J 48: pp. 292-298 CrossRef
    49. Mettam, R, Carmichael, J (1936) Turning sickness, a protozoan encephalitis of cattle in Uganda. Its relationship with East Coast fever. Parasitology 28: pp. 254-283 CrossRef
    50. Bruce, D, Hamerton, A, Bateman, H, Mackie, F (1910) Amakebe: a disease of calves in Uganda. Proceedings of the Royal Society of London Series B, Containing Papers of a Biological Character 82: pp. 256-272 CrossRef
  • 刊物主题:Parasitology; Infectious Diseases; Tropical Medicine; Entomology;
  • 出版者:BioMed Central
  • ISSN:1756-3305
文摘
Background Tick and tsetse-borne diseases (TTBDs) constrain livestock production in tropical and subtropical regions of the world. Of this community of endemic diseases, East coast fever (T.parva) is the most important tick-borne disease (TBD) accounting for 70% of all losses due to TBDS in this region where control efforts target either tsetse or TBDs and seldom both. In those instances where simultaneous pyrethroid insecticide TTBD control is implemented, collateral benefits of tsetse control on TBD control have not been quantified. In the interest of guiding future TTBD control efforts, the effect of restricting pyrethroid insecticides to the legs, belly and ears (RAP) of cattle for tsetse and trypanosomiasis control on T.parva prevalence in crop-livestock production systems in Tororo district, south-eastern Uganda was determined. Methods We randomly allocated 16 villages to diminazene diaceturate (DA) and 3 graded RAP (25%, 50% and 75% of village herd sprayed respectively) treatment regimens. All cattle were ear-tagged, treated with diminazene diaceturate (DA) and those in regimens 2-4 received monthly graded RAP. Blood samples taken fourteen days post DA treatment and once three monthly were analysed by molecular techniques for T.parva. Results In total, 8,975 samples from 3,084 animals were analysed. Prevalence of T.parva varied between 1-3% in different treatment regimens. RAP regimens were associated with slightly lower average risk of infection compared to DA. However, the confidence interval was broad and the result was not statistically significant. There was no evidence of a dose response relationship between graded RAP and T.parva prevalence. These findings are discussed herein with regard to endemic stability development to different TBDs. Conclusions We found only a slight effect of RAP on T.parva infection. Since sample size determination was based on trypanosomes incidence, the study was underpowered given the low T.parva prevalence. While the findings need to be confirmed in future studies, the observed slight reduction in the risk of infection with T.parva might not compromise endemic stability.
NGLC 2004-2010.National Geological Library of China All Rights Reserved.
Add:29 Xueyuan Rd,Haidian District,Beijing,PRC. Mail Add: 8324 mailbox 100083
For exchange or info please contact us via email.