The Environmental Reality of Meat Slaughterhouses in Baghdad Governorate
DOI:
https://doi.org/10.33193/eJHAS.23.2026.448Keywords:
Slaughterhouses, organic pollution, soil pollution, water pollution, solid waste, physical and chemical propertiesAbstract
Slaughterhouses are essential facilities for processing red and white meat, providing high-quality processed meat. However, they contribute to environmental pollution through the large quantities of waste they generate, which is often disposed of untreated in surrounding water and soil. This waste contains a high percentage of organic matter and toxins, leading to significant changes in the physical and chemical properties of the soil and water used in the slaughtering process, increasing the microbial load in these ecosystems, and consequently degrading their quality. This research concludes that the slaughterhouses in Baghdad are traditional and do not follow modern methods of slaughter or waste management. There are three fully operational or partially operational slaughterhouses in Baghdad: Al-Dora, Al-Karkh, and Al-Sha'la. These are insufficient given the population of Baghdad Governorate. Only three out of 22 slaughterhouses are operational for poultry. These slaughterhouses release liquid waste, such as blood that accumulates near them, and solid waste, including offal and damaged hides. They also release gaseous waste in the form of foul odors from discarded internal organs, causing discomfort and annoyance to residents in nearby housing complexes. This waste increases soil acidity, dissolved salts, and ammonia, which in turn causes unpleasant and uncomfortable odors due to the organic decomposition of the waste. Furthermore, this waste contributes to an increase in fungi and pathogenic bacteria in the soil, leading to soil contamination. Chemical and biological pollution, as well as water and air pollution.
References
2. البيئة, و. (2021). قسم المخلفات الصلبة تقرير حالة البيئة في العراق، بيانات غير منشورة.
3. البيئة, و. (2021). قسم النشاط الزراعي ، تقرير حالة البيئة في العراق ، بيانات غير منشورة.
4. التخطيط, و. (2022-2023). هيئة الإحصاء ونظم المعلومات الجغرافية. المجموعة الإحصائية ، الباب السابع عشر إحصاءات بيئية.
5. جاسم, م. ،. (2016). المجازر العصريه وأهميتها لصحة المستهلك. مركز بحوث السوق وحماية المستهلك ، جامعة بغداد.
6. شاكر, م. س. (2023 ). واقع المجازر في بعض محافظات العراق وسبل المعالجة والإصلاح. الحوار المتمدن ،العدد 7656.
7. شذى, ا. (2023). الزراعة: مجازر بغداد قديمة ومتهالكة،2023/01/28 . جريدة الصباح ، بغداد. , https://alsabaah.iq/70809-.html.
8. شفق, ن. (2025). استهلاك اللحوم الحمراء يفوق قدرة إنتاج المجازر، 2025/03/24 . شفق نيوز، العراق, https://shafaq.com/ar .
9. عبدالله, ص. (2023.). معالجة مياه الصرف الصناعي في الوطن العربي. الدار العربية للعلوم الناشرين.
10. محمد, ع. ا. (2013 ). مجزرة الشعلة النموذجية واللحم الطازج. مركز بحوث السوق وحماية المستهلك ، جامعة بغداد.
11. وزارة البيئة. (2018). قسم النفايات الصلبة, تقرير حالة البيئة في العراق،بيانات غير منشورة.
12. وزارةالبيئة. (2021). قسم النشاط الزراعي،. تقرير حالة البيئة في العراق ، بيانات غير منشورة.
13. ياسر, ع. ا. (2008). تأثير مخلفات مجازر الحيوانات على البيئة وطرائق معالجتها، . مدونة وطن.
14. Abubakar, G. A. (2014). Impact of abattoir effluent on soil chemical properties in Yola, Adamawa State, Nigeria. International Journal of Sustainable Agricultural Research, 1(4), , 100-107.
15. Bukola. (24 August 2022). Margaret Popoola. Biodegradable Waste, DOI: 10.5772/intechopen.107910.
16. Cyprian Y. Abasi*, O. G. (2024). Emmanuel P. Salvation and Odontimi Nimighaye,The Impacts of Abattoir Waste on Soil and Water Quality: A Review ,. Department of Chemical Sciences, Niger Delta University Wilberforce Island, Bayelsa State, Nigeria.
17. James Sheridan. (April 2007.). Sources of Contamination During Slaughter and Measures for Control,. Journal of Food Safety 18(4):321 – 339 ,.
18. Maduka, H. C. (2005). Water pollution and man’s health. . The internet journal of gastroenterology, , 4(1), 1-11.
19. Mozhiarasi1, V. (2025). Thillai Sivakumar Natarajan2. ,Slaughterhouse and poultry wastes: management practices, feedstocks for renewable energy production, and recovery of value added products, REVIEW ARTICLE, Volume 15, pages 1705–1728.
20. Rani R. (2021). Management of biodegradable waste. Journal of Biotechnology and Biomaterials, 11(6):132. ISSN: 2155-952X.
21. Sheridan, J. (April 2007.). Sources of Contamination During Slaughter and Measures for Control, . Journal of Food Safety 18(4):321 – 339 , .
22. USGS. (June 5, 2018.). Water Science School ,. Dissolved Oxygen and Water, .
23. water, e. (July 9,2025. ). Organic Compounds,. https://www.elgalabwater.com/organic-compounds.
24. Williams ID, K. J. (2003). Green waste collection and the public’s recycling behaviour in the Borough of Wyre, . England. Resources, Conservation and Recycling. ;38(2):139-159., DOI: 10.1016/s0921-3449(02)00106-4.ISSN 0921-3449.
25. Wizor, C. H. (2019). Effects of Municipal Abattoir Waste on Water Quality of Woji River in Trans-Amadi Industrial Area of Port Harcourt, Nigeria: Implication for Sustainable Urban Environmental Management. International Journal of Geography and Geology,, 8(2), 44-57.
