Influence of feed additives for chickens on the quality of eggs laid and related risks
DOI:
https://doi.org/10.12775/JEHS.2021.11.09.031Keywords
Antibiotics, Chicken eggs, Phytobiotics, Antibiotic growth stimulants, PoultryAbstract
A chicken egg is a valuable animal product that has served people for centuries. Research carried out over the last dozen or so years shows that society's knowledge about them is still relatively small. The research cited in the text shows that only 23% of respondents know that the color of a hen's egg shell depends on the breed of the hen, and not on the way it is fed. As a result, some consumers choose eggs in the store by choosing their color instead of the official markings on each individual egg. Chickens' nutrition has a direct impact on the quality of the eggs they lay. Chickens fed with fodder with antibiotics lay eggs in which we can find the same antibiotics that the animal ate with the food. It has many side effects, however, the greatest of which seems to be bacterial drug resistance, caused by the use of the same strong antibiotics in the nutritional industry and in human hospital medicine. Bacteria have developed various resistance mechanisms. For example, Enterococcus spp. Has developed resistance to vancomycin, Salmonella Typhimurum to tetracyclines, sulfonamides and fluoroquinolones. However, it is possible to use antibiotics in poultry treatment, but it is very important in this case to strictly observe the grace periods necessary to eliminate the antibiotic from the animal's body. Some of the world's governments, aware of the dangers of such a state of affairs, are trying to combat the phenomenon of feeding poultry with antibiotic growth stimulants by introducing new norms, orders and bans in their countries. Antibiotics such as avoparcin, zinc-bacitracin and spiromycin have been discontinued. Chicken egg producers are finding newer and newer ways to circumvent these recipes. Non-antibiotic feed additives such as probiotics, phytobiotics, and specific herbs are used. An effective way to combat this phenomenon may be to educate the public on this topic.
References
Trziszka T., Różański H., Polanowski A., 2013, Eggs as a very promising Skurce of biomedical and nutraceutical preparations: a review, J. Life Sci 7: 862-877.
Walczak J., Bocian S., Trziszka T., Buszewski B., 2016, Hyphenates analytical methods in determination of biologically active compounds in hen`s eggs, Crit. Rev. Anal. Chem. 46: 201-212.
Commission Regulation (EC) No. 889/2008 of September 5, 2008. laying down detailed rules for the implementation of Council Regulation (EC) No 834/2007 on organic production and labeling of organic products with regard to organic production, labeling and control.
Regulation of the Minister of Agriculture and Rural Development of February 15, 2010. on the requirements and procedure for keeping farm animal species for which protection standards have been defined in the regulations of the European Union (Journal of Laws 2010.56.344).
Kowaliszyn B., Sitkowska B., Mroczkowski S., 2012, Consumer knowledge and beliefs about chicken eggs, University of Technology and Life Sciences in Bydgoszcz, breeding review No. 7-9 / 2012.
Wengerska K., Woronowa A., Wajcht A., Wargala E., 2020, Consumer preferences in the Lublin region, In: Research and Development of Young Scientists in Poland, Life Sciences - fauna and animal husbandry (pp. 102-108), Publisher : Young Scientists, Poznań.
Charon K., Świtoński M., 2000, Animal genetics, Wyd. Science. OWN.
Liu WB, Chen SR, Zheng JX, Qu LJ, Xu GY, Yang N., 2010, Poult Sci. 89: 1110-1114.
Moreno J., Osorno JL, Morales J., Merino S., Tomas G., 2004, J. Avian Biol. 35: 300-304.
Zhang LC, Ning ZH, Xu GY, Liu ZZ, 2006, Poult. Sci. 85: 546-549.
Johnston NP, Jefferies LK, Rodriguez B., Johnston DE, 2011, Pult. Sci 90 (5): 1074-1079.
Brzóska F., Śliwinski B., 2018, The influence of feed enzymes on the productivity, carcass quality and intestinal digestibility of amino acids in broiler chickens fed diets containing post-extraction rapeseed meal, Rocz. Science. Zoot., 45: 25–48.
Michalik-Rutkowska O., Brzóska, F., Pietras M., Śliwiński B., 2017, The effect of conversion of post-extraction soybean meal with rapeseed cake in diets for broiler chickens on body weight, carcass quality and apparent intestinal digestibility of amino acids, Rocz. Science. Zoot., 44: 223–246.
Reichert M., Kozaczyński W., Karpińska TA, Bocian Ł., Jasik A., Kycko A., Świątkiewicz M., Świątkiewicz S., Furgał-Dierżuk I., Arczewska -łosek A., Strzetelski J., Kwiatek K, 2012, Histopathological study of internal organs of experimental animals fed with genetically modified corn and soybean meal, Bull. Vet. Inst. Pulawy, 56: 617–622.
Szczurek W., 1997, Preliminary evaluation of the effectiveness of feed enzymes in the feeding of fattening chickens with a mixture with a high proportion of overheated rapeseed meal.
Campbell LD, Slominski BA, Stanger NE, 1987, Influence of cecectomy and diet ary antibiotics on the fate of ingestes intact glucosinolates in poultry, Proceedings 7th International Rapaseed Congress, Poznań, 1704-1709.
Smulikowska S., 2002, The brown color of egg shells limits the use of rapeseed forage in laying hens nutrition, Pol. Poultry. 12: 18-19.
Palander S., Näsi M., Ala-possi I., 2004, Rapeseed and soybean products as protein surces for growing Turkey of different ages, Brit. Poultry. Sci. 45: 664-671.
Różańska H., 1999, Doctoral dissertation. The influence of antibiotic residues on the results of microbiological tests, Puławy.
Van den Bogaard AE, Stobberingh EE, 2000, Epidemiology of resistance to antibiotics. Links between Animals and humans, Int. J. Antimicrob. Agenst. 14: 327-335.
Wegener HC, 2003, Antiobiotics in Animals feed and their role in resistance development, Curr. Opin. Microbiol. 6: 439-445.
Bates J., Jordens JZ, Griffiths DT, 1994, Farm Animals as a putative reservoir for vankomycin resistant enterococcal infection in Man, J. Antimicrob. Chemother. 34: 507-516.
Robredo B., Singh KV, Baquero F., Murray BE, Torres C., 2000, Vankomycin-resistant enterococci isolated from Animals and food,Int J Food Microbiol. 54 (3): 197-204.
Bager F., Madsen M., Christensen J., Aarestrup FM, 1997, Avoparcin used as a growth promotor is associated with the occurrence of vankomycin-resistant Enterococcus faecium on Danish poultry and in pig farms, Prev. Vet. Med. 31: 95-112.
Aarestrup FM, 1998, Association between decreased susceptibility to a New antibiotic for treatment of human diseases everninomycin, and resistance to an antibiotic used for growth promotion in an Animals, avilamycin, Microbial Drug Resistance - Mechanisms Epidemiology and Disease 4, 137-141.
Aarestrup FM, Kruse H., Tast E., Hammerum AM, Jensen LB, 2000, Associations between the use of antimicrobial agents for growth promotion and the occurrence of resistance among Enterococcus faecium form broilers and pigs in Denmark, Finland and Norway, Microbial Drug Resistance 6: 63-70.
Delsol AA, Randall L., Cooles S., Woodward MJ, Sunderland J., Roe JM, 2005, Effect of the growth promoter avilamycin on emergence and persistence of antimicrobial resistance in enteric bacteria in the pig, J. Appl. Microbiol. 98: 564-571.
Różańska H., 2012, Antibiotic residues in food in terms of their inappropriate use in animals, In: Veterinary pharmacy in Poland - rational use of antibiotics - science and practice, Puławy.
Posyniak A., 2012, Antibiotics in food - presence and control of residues. In: Veterinary pharmacy in Poland - rational use of antibiotics - science and practice, Puławy.
Council Regulation (EC) 2921/98 of December 17, 1998. amending, with regard to the withdrawal of authorizations for certain antibiotics, Directive 70/524 / EEC concerning feed additives.
Regulation (EC) 1831/2003 of the European Parliament and of the Council of 22 September 2003 on additives for use in animal nutrition.
Koreleski J., Świątkiewicz S., 2006, Ban on the use of feed antibiotics - what next? Pasze Przemysłowe 2/3: 22-29.
DANMAP: Use od antimicrobial agents and occurrence of antimicrobial resistance in bacteria from food Animals, foods and humans in Denmark. Danish Institute for Food and Veterinary Research, 2004.
Janik A., Koska M., Paluch U., Pieszka M., Barowicz T., 2006, Zootechnical News, R, XLIV, 1, 3-9.
Ezema C., Chukwuemeka E., 2012, Comperative Clinical Pathology 21 (1): 73-76.
Lipiński K., Kaliniewicz J., Tywończuk J., Stasiewicz M., 2011, Scientific Annals of the Polish Society of Animal Production 7 (2): 29-35.
Libudzisz Z., 2008, Lactic fermentation bacteria, In: Technical microbiology (ed. Z. Libudzisz, K. Kowal, Z. Żakowska), T.2. He will publish Science. PWN, Warsaw.
Śliżewska K., Biernasik J., Libudzisz Z., 2006, Scientific Papers of the Lodz University of Technology, Food chemistry and Biotechnology 984 (70): 79-91.
Kalsum U., Soetanto H., Achmanu., Sjofjan O., 2012, International Journal of Pultry Science, 11 (4): 311-315.
Zhou Z., Wang W., Liu W., Gatlin DM, Zhang Y., Yao B., Ringo E., 2012, Aquaculture, 370-371, 150-157.
Vidal M., Forestier Ch., Charbonnel N., Henard S., Rabaud Ch., Lesens O., 2010, Journal of Clinical Microbiology, 48 (7): 2595-2598.
Matsumoto M., Kurihara S., Kibe R., Ashida H., Benno Y., 2011, PloS ONE, 6 (8): 1-12.
Downloads
Published
How to Cite
Issue
Section
License
Copyright (c) 2021 © The Author(s)
This work is licensed under a Creative Commons Attribution-NonCommercial-ShareAlike 4.0 International License.
The periodical offers access to content in the Open Access system under the Creative Commons Attribution-NonCommercial-ShareAlike 4.0
Stats
Number of views and downloads: 518
Number of citations: 0