STUDY OF AIR POLLUTANTS, PART (1): AMMONIA AND DUST EMISSIONS PATTERNS INSIDE POULTRY HOUSES

Document Type : Original Article

Authors

1 Assoc. Prof., Agric. Eng. Dept., Fac. of Agric., Cairo Univ., Giza, Egypt.

2 Currently loaned to the Fac. Of Meteorology, Environment and Arid Land Agriculture. KAU, Jeddah, KSA.

3 Assist. Prof., Agric. Eng. Dept., Fac. of Agric., Cairo Univ., Giza, Egypt.

4 Prof. of Animal Production, Fac. Of Agric. & Vet. Med., AL-Qassim Univ., Qassim, KSA.

Abstract

The poultry production sector in most Arabian countries has a great development due to economic trends and policy shifts occurring during the last years. Hence, there is an urgent need to quantify ammonia NH3 and dust inside poultry houses to obtain a real vision of ammonia emission both inside and outside poultry houses. The present research work aims to assess and study the pattern of emission of both ammonia and dust inside poultry houses. The familiar smell of ammonia (NH3) can be noticed from poultry houses. Also, many parts of the poultry farms produce ammonia either when they are not well managed or when the workers agitate the litter. Results of calculations have been compared with measurement and analysis of ammonia generated and emitted from a variety of holds of poultry in a previous study, where the results showed that the concentration and the rate of emission of ammonia varies with each location, size and type of house poultry, the internal temperature, air relative humidity, air velocity, time of day and age of birds. The results also indicated that the ammonia volatilization rate depends primarily on the surface of emission- emission-surface temperature - the difference in the concentration of ammonia emission between the surface and the surrounding air. This requires detecting its presence and a measure to indicate different levels of ammonia inside the house.

Keywords

Main Subjects


Aarnink, A. J. A., D. Swierstra, A. J. van den Berg and L. Speelman. 1997. Effect of types of slatted floor and degree of fouling of solid floor on ammonia emission rates from fattening piggeries. J. of Agric. Eng. Res.66 (2): 93-102.
Abdelbary, K. M.;  M. H. Hatem; N. E. Gohar and  A. E. Ghaly. 2004. Engineering and environmental studies on ammonia emitted from poultry houses. Conf. of Environ. & Sustainable Dev., 44th Ann. Sci. Week Activities, The Supreme Council of Sci., Al Baath Univ., Syria.
Alchalabi, D. A.; H. H. Person and A. Rhan. 1996. Use of CO2 and NH3 levels as minimum ventilation rate for poultry houses in winter. AMA. 27 (2): 71 - 74.
Bailey, J. A. ; P. Amyotte   and F. I. Khan. 2010. Agricultural application of life cycle iNdeX (LInX) for effective decision making. J. of Cleaner Prod.  18: 1703-1713.
Bartali, E. and F. Wheaton. 1999. Handbook of Agricultural Engineering. Volume II. Animal Production & Aquaculutral Engineering. ASAE. 2950 Niles Roads, St. Joseph, Michigan  49085-9659.  USA.  
Buiter, J.J., and S.J. Hoff. 1998. Ammonia distribution in a pit-ventilated confinement building: One-half scale model study.  Transactions of the ASAE. 41 (6): 1817 - 1827.
Carr, L. E., F. W. Wheaton, and L. W. Donglass. 1990. Empirical models to determine ammonia concentrations from broiler chicken litter. Trans., ASABE. 33 (4): 1337 - 1342.
Curtis, S. E. 1983. Environmental Management in Animal Agriculture. The Iowa State University Press., Ames, Iowa 50010. 
Dugba, P. N., R. H. Zhang, T. R. Rumesy, T. G. Ellis. 1999. Computer simulation of a two-stage anaerobic sequencing batch reactors systems for animal wastewater treatment. Trans., ASABE. 42 (2): 471 - 477.
Hellickson, M. A., and J. N. Walker. 1983. Ventilation of Agricultural Structures. ASABE .2950 Niles Roads, St. Joseph, Michigan  49085-9659.  USA.
Hinz, T., and S. Linke. 1998(a).  A comprehensive experimental study of aerial pollutants in and emissions from livestock buildings, Part 1: Methods. J. of Agric. Eng. Res. 70 (1): 111 - 118. 
Hinz, T., and S. Linke. 1998(b).  A comprehensive experimental study of aerial pollutants in and emissions from livestock buildings, Part 2:  Results. J. of Agric. Eng. Res. 70 (1): 119 - 129.
Hobbs, P. J., T. H. Misselbrook, T. R. Cumby. 1999. Production and emission of odours and gases from ageing pig waste. J. of Agric. Eng. Res. 72 (3): 291 - 298.
Ibrahim, M. H. 1998. A study on ammonia control in a poultry environment. Misr J. of Agric. Eng.15 (3):523-533.
Lo´pez, M. C.; A.J.A. Aarnink ; Y. Zhao; S. Calvet and  A. G. Torres 2010. Airborne particulate matter from livestock production systems: A review of an air pollution problem. Environ. Pollution. 158: 1–17.
Monteny, G. J. 2001. Quantify ammonia emissions from buildings, stores and land application.
Monteny, G. J.; D. D. Schulte; A. Elzing and E. J. J. Lamarker. 1996. Predicting modelling of ammonia emissions from cubicle dairy cow houses. Internal Conference on Air Pollution from Agric. Operations. MidWest Plan Service. P.215-220.Westin Crown Center, Kansas City, Missouri, USA.
Phillips, V.R.; M. R. Holden; R. W. Sneath; J. L. Short; R. P. White; J. Hartung; J. Seedorf; M. Schroder; K. H. Linkert; S. Pedersen; H. Takai; J. O. Johnsen; P. W. G. Groot Koerkamp; G. H. Uenk; R. Scholtens ;J. H. M. Metz C. M. Wathes. 1998. The development of robust methods for measuring concentrations and emission rates of gaseous and particulate air pollutants in livestock buildings.  J. of Agric. Eng. Res. 70 (1): 11 -24.
Rose, C. C. and N. E. Davis. 1989.  Selecting and using ammonia sensors.  Poultry-Misset.  5 (5): 30 - 31.
Roumeliotis, T.S.; B.J. Dixon and B.J. Van Heyst. 2010(a). Characterization of gaseous pollutant and particulate matter emission rates from a commercial broiler operation part I: Observed trends in emissions. Atm. Environ. 44: 3770-3777.
Roumeliotis, T.S.; B.J. Dixon and B.J. Van Heyst. 2010(b). Characterization of gaseous pollutant and particulate matter emission rates from a commercial broiler operation part II: Correlated emission rates. Atm. Environ. 44:3778-3786.
Verdoes, N.; J. A. M. Voermans and C. E. P. Van Brakel. 1996. New housing systems for pigs: Dutch policy, ammonia emission and costs. Int. Conf. on Air Pollution from Agric. Operations. MidWest Plan Service. P.103-109.Westin Crown Center, Kansas City, Missouri, USA.
Wheeler, E. F.; R. W. J. Weiss and E. Weidenboerner. 1999. Evaluation of instrumentation for the measurement of aerial ammonia in poultry houses.  ASABE Paper No. 99-3188. An ASAE/CSAE Ann. Int. Meeting, Toronto, Canada.
Wynne, J.C.1995.Options for managing odor. Report. The Swine Odor Task Force. North Carolina  Agricultural Research Service. North Carolina, USA.
Xin, H., I. L. Berry and G. T. Tabler. 1996. Minimum ventilation requirement and associated energy cost for aerial ammonia control in broiler houses.  Trans., ASABE. 39 (2): 645 - 648.
Xue, S. K. and S. Chen. 1999. Surface oxidation for reducing ammonia and hydrogen sulfide emission from dairy manure storage. Trans., ASABE. 42 (5): 1401 - 1408.
Yang, Y., J. C. Lorimor and H. Xin.  2000. Nitrogen losses from laying hen manure in commercial high-rise layer facilities. Trans., ASABE. 43 (6): 1771 - 1780.
Zhang, R. H, D. L. Day, L. L. Christianson, and W. P. Jepson.   1994. A computer model for predicting ammonia release rates from swine manure pits. J. of Agric. Eng. Res. 58 (4): 223 - 229.
Zhang, R. H.; P. N. Dugba and D. S. Bundy. 1997. Laboratory study of surface aeration of anaerobic lagoons for odor control of swine manure. Trans., ASAE. 40 (1): 185 - 190.