Yield and Chemical Composition of Chlorella species cultivated in Pig, Poultry and Cow Dungs in southern Nigeria

  • Vaikosen S E
  • Nwokoro S O
  • Orheruata A M
Keywords: Chlorella species, animal dungs, Actinomycetes

Abstract

A study was conducted to examine the yield and chemical composition of chlorella species, a single cell protein (SCP), cultivated on poultry, pig and cow dungs in southern Nigeria. The experiments were carried out using the completely randomized design in plastic bowls instead of ponds usually used for the culture. The cultures were enhanced by inoculating them with Actinomycetes bacterium which helps to break down the nutrients available in the organic materials for the chlorella species utilization. The yields of the chlorella from the poultry, pig, cow dungs and the control were 131.26, 128.42, 119.55 and 32.65, respectively, in 4 days harvesting interval. The crude protein values of 39.77% for poultry, 35.3% for pig, 35.3% for cow were not significant different values also range between 5.4 to 7.30% for ether extract while crude fibre varies between 4.64 to 5.47%.  The ash contents were generally high in all cultures and there was no significantly difference  (P>0.05) except the culture with pig dung having ash content of 10.90%. The nitrogen free extract content was significantly different (P<0.05) with the highest value obtained from poultry culture at 39.77%. The results have shown that chlorella species cultured in poultry droppings yielded the highest crude protein of 39.77%. For the cultivation of chlorella species, poultry dung is therefore recommended. Chlorella species is a suitable alternative source of protein in animal feeds.

 

References

Aronson, G.M. Berner, E.S., Eubinsky, A.C. 1980. Chlorella as protein source. Journal on Nutrition Report International 4.31-43

Berker, E.W. 1984.Biotechnology and exploitation of the green Alga Chlorella vulgaris in India. Journal Biomass 4:1-19

Berker, E.W. 1986. Nutritional properties of microalgae: protentials and constraints. In (CRC Handbook of microalgae Mess culture ed. By Richmond A. pp 420-438

Brady, N.C, Weil, R.R. 1999. The nature and properties of soils 12 ed. Prentice Hall, Upper Saddle River, New Jersey 07458 pp. 881

Culvest, C.C., Margan, N.O., Eby, H.J. 1971. Biodegraded Hen Manure and Adult House flies. Their nutritional value to the growing chicks. In: Livestock waste management and population Abatement. Proceedings international symposium livestock waste, Columbus, Ohio. Pp 320.

Chamorro, G. 1980. Etude toxocologue de l’algue spirulina plank pilote productice de proteins (Spirulina de sosa texcocoss UF/MEX/78/048, UN/DO/10. 387:1-177

Cheesbrough, M. 2000. District Laboratory Practice in Tropical Countries. Prt. 11 Edition, Cambridge University Press. Pp. 433-443

Davis, I.F, Sharkey, M.J, William, D. 1995. Utilization of sewage. Algae in association with paper in diets of sheep. Journal of Agriculture and Environment 2:333-338
Eddy, B.P. 1996. The suitability of source Algae for mass cultivation of good food with special reference to chlorella vulgaris. Journal of Experimental Botany 7.372-380.
Eusebio, J.A. 1980. Pig production in the Tropics London group Ltd. Longman House Burnt Mill Harlow Essex. Pp 115-119

Ganowski, J., Usunova, K. Karabashev, G. 1975. Effect of microalgae Scanadosmus acitus on the digestibility of calves and on some blood parameters. Journal of Animal Science 12:77-83

Goluke, C.G., Oswald, W.J. 1965. Harvesting and Processing Sewage growth planktonic Algae. Journal of the water pollution control federation 37:47-98

Hills, C. 1978. Food from sunlight planetary survival for Hungry people. Boulder Greek, C.A World Hunger Research Project. University of Trees. Trees press. London. Pp. 188-195

Hinf, H.E., Heltman, H. 1967. Sewage grow algae as a protein supplement for swine Animal production 9:135-141

Hinzt, H.E., Heitman, H. Weir, W.C., Torrell, D.T., Myers, J.H. 1966. Nutritive value of Algae grown on sewage. Journal of Animal Science 25:675-681

Khatun, M. Huque, K.S, Chowdnuary, S.A., Nahar, Q. 1994. Chlorella and Scenedesnus. Isolation, identification and mass cultivation for feeding cattle. In: A report on the use of algae as potential feed supplement for cattle. Bangladesh Livestock Research Institute Savor, Dhaka 1341 Bangladesh. Pp 1-8

Khatun, M. Kamal, A.S.M. 1993. Mass culture of chlorella vulgaris in national media, cowpea, pea shell and spinacl stalks. Bangladesh Journal of Scientific and Industrial Research 22:91-112.

Medha, A., Lacey, J., Goodfellow, M. 1981. Selective isolation and enumeration of actinomycetes using Ritampicin Journal of Applied Microbiology 41:13-23

Oswald, W.J. Beneman, J.R., Koopman, B.I. 1977: Production of Biomass from fresh water Aquatic system. Concepts of large scale Bioconversion systems using microalgae. In proceedings of fuels from Biomass symposium. Pp 59-81 Champion 111 University of Illinois.

Phang, S.M. 1990. Algae production from Agro-industrial and Agricultural wastes in Malaysia. Malaysian Journal of Sciences 19: 415-418.

Phang, S.M, 1992. Algae production from Agro-industrial and agricultural wastes. Role of algae in livestock fish integrated farming system. Proceedings of the FAO/IPT workshop on integrated livestock-fish production of Malaya. Kuala Lumpur Malaysia. Pp 49 - 56

Shimsaku, H., Nobuya, N., Yuji. T., Toshiaki, N. Kazuyoshi. O., Masao A. 1988. Identification and characterization of Actinomycetes useful for semi-continuous Treatment of Domestic Animal Feed. Applied and Environmental Microbiology 54(8) Pp. 2058-2063.

Yakoub, K. Umar, D.M. Tousuf N. 1992. Single cell protein production from Peniciliun Javancum treated with rice husk. 4th ed. Inlene Tripp. Weavers and Potter, B.A. Eds. Sindh Pub. Jarushoro. Pp. 232-242.
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