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Purpose: Islamic concept of food consumption for human beings is derived from the term Tayyib which depicts both food safety and quality. Unlike the humans, though animals are not bound to any code of practice, yet with reference to the food animals their diet seeks the attention of Islamic jurisprudence. Animal feed is the preliminary Halal control point in Halal food supply chain when the matter comes to the animal derived ingredients. This paper aims to put forth a global view of animal feed in Halal perspective by showcasing firstly the global scenario of feed industry, feed compositions, hazards and regional regulations, secondly by highlighting the Halal and Tayyib integrity concerns over different feed compositions and addressing them through the global Halal standards and Islamic rulings issued by various Halal industry players. Design/methodology/approach: This research presents an interdisciplinary work of Islamic jurisprudence and feed science, which intertwines research on global feed compositions and the fundamental requirements of Halal and Haram jurisprudence. Findings: Animals are not the addressees of Quran and Sunnah; hence they are not bound to follow any code of religion. They are free to live and consume the way they like; in addition, Islam holds mankind responsible for their welfare and rights. Animal feed becomes an important subject for Islamic Jurisprudence only when the matter comes to the food animals. With reference to the food animals, animal feed is the preliminary control point of food supply chain, hence, it must be from halal source and must not cause harm to the human health. Originality/value: To our best knowledge, this paper is the first that attempts to elaborate on the global feed scenario including compositions and regulations in halal perspective.
Content may be subject to copyright.
* Corresponding author: Syed Fazal ur Rahim
SANHA Halal Associates Pakistan Pvt. Ltd., Faisalabad, Pakistan.
Copyright © 2022 Author(s) retain the copyright of this article. This article is published under the terms of the Creative Commons Attribution Liscense 4.0.
Global view of animal feed in halal perspective
Syed Fazal ur Rahim 1, * and Muhammad Abdullah Bin Masood 2
1 SANHA Halal Associates Pakistan Pvt. Ltd., Faisalabad, Pakistan.
2 Institute of Food and Nutritional Sciences, Pir Mehr Ali Shah Arid Agriculture University Rawalpindi, Pakistan.
GSC Advanced Research and Reviews, 2022, 11(01), 037069
Publication history: Received on 26 February 2022; revised on 28 March 2022; accepted on 30 March 2022
Article DOI: https://doi.org/10.30574/gscarr.2022.11.1.0093
Abstract
Purpose: Islamic concept of food consumption for human beings is derived from the term Tayyib which depicts both
food safety and quality. Unlike the humans, though animals are not bound to any code of practice, yet with reference to
the food animals their diet seeks the attention of Islamic jurisprudence. Animal feed is the preliminary Halal control
point in Halal food supply chain when the matter comes to the animal derived ingredients. This paper aims to put forth
a global view of animal feed in Halal perspective by showcasing firstly the global scenario of feed industry, feed
compositions, hazards and regional regulations, secondly by highlighting the Halal and Tayyib integrity concerns over
different feed compositions and addressing them through the global Halal standards and Islamic rulings issued by
various Halal industry players.
Design/methodology/approach: This research presents an interdisciplinary work of Islamic jurisprudence and feed
science, which intertwines research on global feed compositions and the fundamental requirements of Halal and Haram
jurisprudence.
Findings: Animals are not the addressees of Quran and Sunnah; hence they are not bound to follow any code of religion.
They are free to live and consume the way they like; in addition, Islam holds mankind responsible for their welfare and
rights. Animal feed becomes an important subject for Islamic Jurisprudence only when the matter comes to the food
animals. With reference to the food animals, animal feed is the preliminary control point of food supply chain, hence, it
must be from halal source and must not cause harm to the human health.
Originality/value: To our best knowledge, this paper is the first that attempts to elaborate on the global feed scenario
including compositions and regulations in halal perspective.
Keywords: Animal; Feed; Halal; Haraam; Tayyib; Najis
1. Introduction
Farm Animals have been a fundamental source to fulfill the multiple needs of mankind. They belong to kingdom
ANIMALIA and comprise of mammals and bird which are deliberately raised for food, fiber, fertilizer, draft work and
other similar agricultural purposes. The most common of these animals are cattle, sheep, goat, camel and poultry
worldwide [1].
About 12,000 years ago inhabitants of fertile crescent which was an ancient, civilized area extending between
Mesopotamia, Assyria and some nearby Egyptian regions had begun to raise animal for getting their meat as food, bone
for making tools, skin for making bags, fur for making cloths, and for drafting, and ploughing purposes [2]. It is quiet
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38
unknown how animals were fed intentionally or what could be their feeding system because the practices regarding the
rearing animal for food and services had occurred before humans learned writing. Moreover, during early stages of
animal husbandry people mostly follow free range grazing of animal to fulfill their own family needs. The secure and
reliable availability of food supplied from animals led human beings toward population growth, development of
residencies, trade and economic and urbanization. From the birth of Prophet Christ enough food had been available for
feeding world’s population that was exceeding than a figure of 200 million [2]. Moreover, at the end of 18th century,
sound and robust strategies for a fruitful agriculture had appeared which were causing a shift from subsistence farming
practices toward commercial farming that in turn guided way for desirable feeding system around 19th century. As the
time passes by, science and technology kept on progressing and improving techniques and methods, resultantly animal
husbandry embraces more efficient and dynamic form of technology and innovation. Thereby a road map toward
evolution of feeding industry comes into being.
All living organisms require food to live and so do the animals. However, the term food is mainly associated to human
beings and the word feed although defined slight differently by the standards of the various countries is used for any
food producing animals [3-6]. Hence feed is any material either in processed, semi-processed or in raw form when fed
to animals furnish nutrition and upon digestion and assimilation of such feed which is utilized by body results in
procuring energy, growth, development , reproduction and the maintenance and repair of body cells and tissues [3].
Basically, Animal feed is categorized as forage, fodder, and mixed feed, which is a commercial feed that usually exists in
the form of pellets or mash. The forages include non-processed plant material that is offered to animals in the form of
pasture, crop remains and vegetation (cereals) grazing while fodder are the processed plant materials both as roughage
which include freshly cut grass, hay, silage, haylage or other similar things and as concentrates that include cereal grains,
legumes and other by-products resulted during their processing. Mixed feeds include both forages and fodder together
with some other organic or inorganic materials called feed additives for achieving a particular objective such as
nutritional quality and usually comes in mashed form or as pellet.
Earlier, evidences of feed dated back to 19th century were found, when animals were fed grounded grain. However, it
was not a primary source but a secondary mean provided by early mills who were installed for human consumption. In
such case non-food or the leftover materials form these mills were fed to animals. Among cereals, oat was cheap and
less demanded for humans at that time; hence it was specifically grown and fed to animals, particularly horses. Although
in the beginning of 1800, there were commercial opportunities for feed formulation but such was limited to horses and
mule that were the mean of transportation and draft work in agriculture. They were reared separately in special houses
called “stables” and such houses were like modern petrol stations [7]. The demand of feed for mule and hoses was also
high and most of the biggest feed industries even existing today such as Cargill, ADM, Purina Mills and Ridley continued
production of value-added feed while requiring less scientific expertise.
Late in 19th century feed formulation had begun to govern under feed standard. Massachusetts was the first region to
be reported with batch method of feed manufacturing in 1870 [2]. But such manufacturing happened because the
industry followed the first book written on animal nutrition by Armsby and Henry in 1880s [8-9]. Cargill which was
typically a flour milling industry began to manufacture animal feed by 1884 after the corn gluten was manufactured for
the first-time in 1882. Similarly, in 1894 Purina Mills entered the race of feed manufacturing. During 1890s, these
emerging feed industries had utilized brewery as well as meat scrapes that were among the most nutritious by-products
to be incorporated in feed manufacturing [10]. Besides, the birth of feed industrialization came into being when the first
ray of 20th century’s sun lit up the universe and of 19th century remained in memories. There were several background
events that had caused such industrialization. One of such was the dumping of milling waste into water bodies. At that
time, feeding animals a balance diet was also being recognized as a valuable intervention regarding animal nutrition.
The chemical analysis of such mill waste initiated the commercialization of feed industry [2]. Being the religion of love
and affection Islam introduced a complete code of animal rights and welfare. Animals are the part and parcel of human
society, therefore Islam held mankind responsible for their lives, feed and good treatment. Islamic jurisprudence does
not proclaim any code of practice for animals; hence they are free to live and consume the way and whatever they like,
but it is not the case when mankind is addressed. Islam has laid down a complete code of human consumption by
decreeing the principle of Tayyib which encompasses food safety and food quality. Though the universe is crowded with
living and non-living organisms but each and everything is not allowed for human consumption. There are certain
restrictions Islam imposes on human diet. Since animals fulfill the multiple food needs of humans, hence their feed is
vital in the preview of Halal (allowed) or Haraam (prohibited). With the industrialization of feed and commercialization
of feed industry there are several doubtful and questionable ingredients in the context of Islam that are included to the
composition of animal feed. In this piece of literature, animal feed is discussed in halal perspective by summarizing
firstly the global scenario of feed industry, different feed standards and regulations, multiple feed ingredients and feed
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hazards, then by explaining the classical views of Islamic Jurists, latest Islamic rulings and global halal standards, and
lastly by giving the outcome of whole discourse.
2. Material and methods
This is a multi-disciplinary work stretching from important regional regulations to Islamic jurisprudence injunctions.
To constitute the research on global animal feed in halal perspective firstly the global scenario of feed production was
discussed along with the important regional regulations. These regulations were derived from multiple studies; each of
them was referenced respectively. Then the Halal and Tayyib integrity concerns were highlighted along with the
classical views of Islamic jurists. In the portion of integrity of Halal logo some crucial Islamic rulings and global Halal
standards were discoursed to address those concerns and highlight the sanctity of Halal logo. Different terminologies
from Islamic Jurisprudence were used, like, Hadith meaning sayings of the blessed Prophet (P.B.U.H.), Halal meaning
allowed, Haraam meaning prohibited, Makrooh meaning bitterly disliked, Najis meaning filthy in the eye of Islamic
jurisprudence, Tayyib meaning safety and quality. The reference Hadith books including Sunan an-Nasa'I, Sunan Abi
Dawud and Sunan Al Tirmidhi were used for Hadith derivation along with their relevant Hadith number. Some
revelations from Quran, the book revealed to the blessed Prophet Muhammad (P.B.U.H.) were also sited with their
respective numbers.
The material presented here is referenced to the multiple journals, books and a few reports written by international
organizations belong to animal feed industries. The paper is divided under various headings related to animal feed
industry and its halal perspective describing about the history, technological advancement in feed and feeding system,
concept of Halal and Tayyab in animal feed, Islamic jurisprudence about animal feed and a few feed borne-diseases of
importance to farm animals. The journals which have been referenced are Journal of Applied Animal Nutrition, MOJ
Food Processing & Technology (MOJFPT), Engineering, Research Journal of Agricultural Sciences, Journal of Nutritional
Health and Food Engineering, Environ Health Prospect, Aquaculture, Journal of General Internal Medicine,
Environmental Science & Technology, Bulgarian Journal of Agricultural Science, Journal l of Environmental Science and
Technology, Journal of Animal Science and Biotechnology, Nutrition Research Reviews, Emerging Infectious Diseases,
Clinical Infectious Diseases, Poultry Science, American Journal of Food Science and Nutrition, Toxins, Asian Journal of
Animal Sciences, Toxicon, Animal Feed Contamination, African Journal of Food Science, Proceedings of the Nutrition
Society, Journal of Nutrition, Veterinary & Human Toxicology, Chinese Journal of Animal Nutrition, Nutrition, Aqua feed
Formulation, Aquaculture Research, Animal Feed Science and Technology, Molecular Nutrition & Food Research,
Veterinary Record, British Medical Bulletin, Cerebellum, Asian-Australasian Journal of Animal Sciences, and Preventive
Medicine.
Among the books from where material has been taken are Principles of Animal Nutrition 3rd Edition (1908), Feed
Manufacturing Technology 5th Edition (American Feed Industry Association, 2005), Feeds and Feeding (1988),
International Directory of Company Histories (James Press, 2000), Recent Developments in Feed Technology (Ferket
and Stark, 2011), The Formula Feed Manufacturing Industry (USDA, 1988), Handbook of Naturally Occurring Food
Toxicants (Langer, 2018), Handbook of Zoonoses: Identification and Prevention (Colville and David, 2007), and
Contemporary Issues and Development in the Global Halal Industry (Saidin and Rahman, 2016).
3. Global Scenario of Feed Industry
According to Alltech, which is a globally recognized organization conducting surveys on animal feed industry, the feed
industry has come out with great productive potential and exceeded a figure above 1.2 billion metric ton [11]. Among
the North American region, which is the second largest producer of feed worldwide, two countries Canada and USA
dominated feed industry particularly the horse feed industry in the region [12]. The region produces about 1/3 of feed
for beef production while the prices are usually lower as compared to other regions and growth rate is almost flat. In
the Latin America, three countries; Brazil, Mexico and Argentina cover 75% of total regional production. Brazil, which
is World’s 3rd largest feed producer enjoys leading role in the production while Mexico, which is 5th largest leads the
regional feed production for beef and layer. The region’s growth rate remained 3rd highest for more than five years
mostly in aqua, horses and pet feed.
Europe is one of the fastest growing regions in the feed production and has been accounted for about 3% of feed tonnage
growth. The reason behind the growth is increased production of aqua and boiler feed. Regional feed production is
dominated by Russia which is 4th largest feed producer and has produced 37.6 million tons feed during the year 2017.
The other European countries contributing in feed production are Czech Republic, Poland, Hungary, Belgium, U.K.,
Ukraine and Romania. The region also remained the top pet feed producer.
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Asia-Pacific region is the leading feed production zone in the world contributing 35 % of global production. The
dominating country is China. Although the China’s growth rate of feed production was declined during the last 2 years
but remained as top feed producer and produced 186.86 million metric tons feed in the year 2017. There has been 3%
increase in regional feed growth rate resulting from increased pet feed production. The region also covered 77% of aqua
and 44% of layer feed production globally. Other countries contributing in the feed production are India, Thailand,
Pakistan, Japan, Taiwan and Vietnam.
Likewise, Asian region, Africa also contributes progressively to feed production especially to broiler and dairy feeds.
Although the region remained expensive for feeding layers and broiler, it has achieved a growth rate near to 30% for
more than the last 6 years. The region also enjoyed the maximum increase in growth rate of about 10% in broiler feed.
Among the contributing countries are Egypt, Botswana, Mozambique, Zambia, Morocco, Nigeria and Uganda [13].
3.1. China Feed Industry
China, which is the largest country in terms of population, also keeps the similar position in feed industry [14]. In the
early days, wheat bran from the modern flour mills operated since 1930s was utilized by farms to feed their animals.
For the next 19 years starting from 1930s to 1949, no single feed mill was established in the country. Moreover, in the
following years political chaos along with the retarded economy and centralized governmental system caused the grain
production to be carried out exclusively for human’s consumption. As a result, the potential for establishing the feed
industry was hindered.
It was 1976 when dawn of the new era started dazzling China. A transition happened in Chinese policy building by global
trading and adopting new ideas and technological development from other regions of the world. This transition gave a
complete potential chance to build feed mills. During 1976, feed research institute was established. By the following
year, the ministry of commerce was also assigned a duty to do research over the methods and strategies followed by
Japanese, French and American feed industries [15]. Consequently, 14000 mills were built up to 1985 including both
large and small mills with an installed capacity of <1 ton/hour. During 1984, a draft plan was developed and published
to support goals and strategies for a period of 16 years starting from 1984 to 2000 [15]. Meanwhile, government
provided incentives and suspended imposition of taxes on the feedstuff, feed processing equipment along with 3-year
tax adjustment for the new mills and allowed tax free profit [16]. The initiative was much more welcomed by the
industries. 2 years later in 1986, specialized feed ingredients and supplementations were presented at a national level
conference. Resultantly, about 12 products got approval for the year 1987. Within a decade, compound feed became the
new focus and led the production up to 62.99 million tons during the year 1997 [17].
The ministry of commerce published China’s first feed standard in the year 1993, while the regulations regarding the
development of mixed or compound feed, packaging, storage and transportation of feed came in the year 1996.
Unfortunately, only about 10% of the industries qualified against the standards [15]. Therefore, State Council, LAO had
made enactments in the regulation of feed and the feed additives in the year 1999 [18]. From that time, Chinese feed
industry faced severe safety concerns for their feedstuffs. Resultantly in 2007, the presence of melamine and cyanuric
acid in pet feed, which were deliberately used to give high content of crude protein, resulted in kidney failure in animals.
This had elevated serious issues for the feed industry causing the recall of their feed by South Africans, Europeans and
Americans. Moreover, USDA had made it mandatory to inspect any sort of plant proteins which were to be imported
from China. Chinese officials had tried hard to resolve the problem and allowed U.S. FDA for inspection of their premises
and facilities. In the period 2008-2009, more focus was shown on feed adulteration and the associated crises. Hence,
during 2010, a revision was done in feed and feed additive regulation [18]. The period starting from 2010 to 2015,
showed an annual growth rate about 15% which was enough to declare the China as the largest feed producer of the
world [19]. But still China had to import soybean and distiller's dried grains or DDGs in significant amount [20]. Beside
this, China has focused the attention to put the country on track of self-reliance thereby avoiding western and other
imported items [21-22].
3.2. U.S. Feed Industry
The advancement in the U.S. feed industry came by the 20th century [2]. The need of industrialization though resulted
from establishment of farms, was significantly supported by allied factors such as the use of synthetically prepared
fertilizers in 1990 that resulted in increased crop yield [2]. This has further contributed a great deal of specialization
and expertise in crop and as well as livestock production, paving the way for feed industry to flourish. During early
periods before 1900, hammer mills were used to produce feed while by 1909, horizontal batch mixers came. Rapid
progress had been seen during 20th century’s first quarter but the whole industry became reformed after the
introduction of feed in pellet form by Purina Mills in 1920s. This technique usually involves the compressing of fine,
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variably dense, and unappealing feed ingredients into more uniform, palatable and easeful pellets. Mostly it was adopted
by the industries and as a result by 1930s, most industries excelled in producing pelleted feed.
Traditionally, Chicago and Minneapolis had hosted feed mills. Companies running the business of milling had
excessively been producing animal feed by utilizing the by-products resulting from the milling operation thereby
avoiding their disposal for profit. In early formulations milling by-products were blended with nutrients. Between
1940s & 1950s, rapid progress in science and technology was seen, thus, making feed formulation more complex than
before by incorporation of essential vitamins, trace minerals, and other antibiotics. At the sometime, the industry
progressed from milling companies to exclusive feed firms reaching above 2000 in numbers throughout the country.
Leaving the feeding hubs, small feed industries also stepped toward producing newly complex feed formulation through
utilization of batch mixer near the farms. This sort of transitional step opened way for more specialization and resulted
in extruded pet feed during the mid of 1950s.
The improvements and technological reforms consolidating the feed industry had continued to occur till the end of
1950s. The period ranging from 1960-1970s, showed the establishment of large feed mills alleviating normal
production about 200-500000 tons yearly. Another trend was also being seen in which large farms or the feedlots
started to build their own feed mills in an attempt to be more competent. Although, the trend had caused reduction in
number of farms but the existing ones became multiplied in size. Resultantly, in 50 years from 1950s to 2000, five
million farms declined to about 2.2 million. By 1975, focus toward automation of the industry was also carried out with
the main aim to increase efficacy of feed production while reducing the cost of feed per animal unit. The automation
technology continued improving various element of the feed industry some of which are logistics of receiving and
delivering ingredients, size and grounding of ingredients, batch mixing or other method, control of the process,
extrusion technology and pelleted feed formation etc. [23]. Consequently, the technology became much more diversified
over the last 5 decades leading to completely computerized system of operation, analysis of nutrients by in-line NIR
system and well-organized collection of data inside the feed.
3.3. Brazil Feed Industry
Since 1960, Brazil feed industry has been producing animal feeds and has become third largest feed producer of the
world [14]. Just like US and European feed industries, Brazilian companies that were doing milling and processing of
wheat, maize and barley became the early feed industries of the country. In 1940, wheat bran was used by early feed
industries to produce animal feed as such or for incorporation as an ingredient to make a complete feed for the first-
time. Resultantly, in the year 1941 a feed mill was established in Sao Paulo particularly to fulfill layer production that
was in its growing stage. With the passage of time demands became higher and higher, thus another feed industry
named cooperative’s feed mill entered the path to fulfill country needs especially for meat and broiler production.
The interesting feature of Brazilian feed industry which is normally integrated with production is that the feed is
produced by and fed to animals by the same company. This level of integration is highest among the poultry feed about
99% while about 80% for all feed types [2]. Additionally, most Brazilian feed industries are linked to each other. The
former employees of Purina Mills had established Mogiana or Guabi feed company in 1974. Within 6 years, Mogiana
attained significant share in the market even transcending then its parent company Purina. The executives of Mogiana
left the company and established Nutron after a period of 16 years in 1990s. Currently, pet feed industry escalated Brazil
to the second largest slot across the globe. Although, before 1990s the pet feed industry was hard to find, the
introduction of extruder together with improvement in techniques and equipment made Brazil to prosper about 25
times more productive than before within 25 years. Moreover, being leader in production of maize, soybean and other
feed ingredients, the future of Brazilian animal feed industry is more promising than the others.
4. Feed Ingredients
The study of animal nutrition and feed science has been divided into two sections. The first section focuses upon the
nutritional requirements while the other on the availability of these nutrients both naturally in plants and animals and
artificially or synthetically [24]. These essential nutrients are classified into macro nutrients and micro nutrients.
Among the macro-nutrients are carbohydrates and fat for energy or draft work and protein for growth, development
and maintenance. On the other hand, micro-nutrients include minerals, vitamins, antibiotics, and others play vital role
in the metabolism and utilization of macro-nutrients by the animals. For a balanced supply of feed to fulfill animal
requirements, scientists in their respective research organizations have formulated their own sets of standards and
regulations for each nutrient and specie’s type. Feed ingredients are not only derived from plants and animals but also
from pharmaceutical and other sources described as follows.
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4.1. Plant Based
Among the plant based materials used to develop the feed are forages, roughages, by-products of milling and sugar-cane
processing in the form of molasses, brewery industry in the form of DDGs, fruit and other similar food and non-food
industry [4].
4.2. Animal Based
There are certain Ingredients used in manufacturing of feed are significantly derived from animals. These ingredients
are legally used to manufacture the feed worldwide and are rendered protein meals and dried waste [25]. The rendered
protein comes in the form of meals of meat, blood, feather, eggs shells and hair of poultry, swine and ruminants while
the dried wastes of poultry, swine and ruminant are used either in dry processed form or as non-dry processed form.
Apart from these, by-products of marine industry also provide valuable feed ingredients in the form of fish liver oil and
meals of fish, crabs and shrimps [26]. Dairy industry also contributes its share in the form of dried milk, casein, whey
and cheese [27].
4.3. Mixed
Apart from the individual incorporation of ingredients from animals and plants combination of these from the two
aforementioned sources are also being used. Such a case includes used animal or plant fat, leftovers from restaurants,
bakeries, and cafeterias and the contaminated food that has been subsequently treated to make it suitable for feed
manufacturing [28].
4.4. Miscellaneous
These include the ingredients that are required for the maintenance and regulation of body functions and to promote
growth and development. These are antibiotics, vitamins, enzymes, additives, nutraceuticals, preservatives, drug
industry by-products, Arsenicals and Non-protein Nitrogen or NPN [4, 29].
5. Results of Global Feed Regulations
5.1. Feed ingredient Standards of China
The major standards that regulate manufacturing, packaging, storage and transportation of feed and feed ingredients
are as follow:
Table 1 Major Feed Standards of China
Name of Standard
Code
Ref
Feed Label Standard
GB 10648-2013
[30]
Feed Industry Terms
GB/T 10647-2008
Fish Meal
GB/T 19164-2003
Meat and Bone Meal
GB/T 20193-2006
Wheat Bran
NY/T 119-1989
Soybean Meal
GB/T 19541-2004
Rice Bran
NY/T 122-1989
China’s Feed Label Standard GB 10648-2013 defines the feed as a material processed by industries to feed animal and
include:
Single feeds
Feed additives
Premixes
Concentrates
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Formula Feed
Feed ingredients: The major raw materials used in manufacturing of feed by Chinese industry are corn, soybean and
fish meal. Mostly the feed ingredients are imported because of intensive agriculture system in the country. According to
[30], the ingredients along with their source are as follow:
5.1.1 Plant based
Barley grain
Brewers’ grains (wet)
Broad bean, seed
Corn grain
Distiller’s grains (w)
Oat grain
Pea, seed
Rapeseed meal
Rapeseed oil
Sesame oilcake
Soybean meal
Soybean oil
Sunflower seed meal
Wheat grain
Wheat bran
Wheat flour
5.1.2 Animal derived
Blood meal
Cattle stomach meal
Fat (pig)
Fat (fish oil)
Fishmeal (Peruvian)
Feather meal
Liver meal
Lung meal
Meat and bone meal
5.2. U.S. Feed Laws
Table 2 U.S. Feed Regulations
Feed ingredients
Feed mixtures
Ref
Food (FFDCA 201(f); 21 CFR 570.3(m))
Animal Feed and Food (FFDCA 201(f); 21 CFR
570.3(m))
[32]
Food Additive (FFDCA 201(s); 21 CFR 570.3(e))
Type C Medicated Feed (21 CFR 558.3)
Animal Feed (FFDCA 201(x)) GRAS (FFDCA 201(2); 21
CFR 570.30)
Feed Ingredients (AAFCO Official Publication)
Animal Drugs (Medicated feeds) (FFDCA 201(w))
Medicated Type A Article (21 CFR 558.3
The United States Food and Drug Administration (U.S. FDA) in their F, D, & C Act with section “f” defined feed as any
material used for feeding animals. The Association of American Feed Control Officials (AAFCO) in their Official
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Publication considers raw materials along with other ingredients for use to feed animals and pets. The American feed
industry also uses a diverse range of feed ingredients and has specified the limits for each type of the animal species [6,
31]. In U.S.A., feed and feed ingredients along with their definition and regulatory measures are governed under the
following laws.
Feed ingredients: According to The United States Federal Food, Drug, and Cosmetic Act (abbreviated as FFDCA, FDCA,
or FD&C) the feed ingredients is any components either wholly or partially or in combination added to the feed and
includes cereal grains and their by-products, oil seed meals, vitamins, minerals and additives.
Table 3 Raw material used by feed industries during the year 2015
Ingredient
Reference
Maize
[33]
Soybean meal
DDGs
Wet Distiller’s grain
Bakery meal
Others
Corn Gluten
Cotton seed meal
Wheat middling
Sorghum
Soybean hulls
Oat
5.2.1 Plant based
Following are the plant-based ingredients used in the formulation of feed.
Cereals
Among the cereals used in feed manufacturing are:
Wheat
Maize/corn
Barley
Oats
sorghum
More than 50% of the grain produced by U.S.A., which is 72% of total crop production, is fed to animals. Of these cereals
about 80% of maize is utilized for animal feed production and is mostly used for developing feed for poultry, swine and
beef cattle. Although corn is also organically produced but industrially the usage of genetically modified (GM) corn is
more than the organic corn. In the year 2005, about 52% of the US corn is genetically modified. Beside corn, sorghum is
also used by beef, poultry and swine feed industry [4].
Cereal Grain by-products
Beside the use of intact cereals grains, their by-products resulting from milling industries are also typically used by feed
manufacturers of dairy cattle. According to [25], These include the following ingredient:
Wheat mill feed
Germ
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Gluten
DGGs,
malt sprouts
brewer’s yeast
Hominy
Oilseed meals and cakes
According to [34], these are the by-products resulting from the processing or solvent extraction of oilseed crops and
include:
Soybean
Cottonseed
Canola
Sunflower
Linseed
Safflower
palm kernel
copra
Groundnut
Oilcakes are the by-products derived from the pressing operation carried during the oil extraction process whereas
meals are from solvent extraction. Soy meal individually supplies 75% of the protein fed to livestock. Moreover, about
60% of soybean produced is used by poultry, swine and cattle or livestock industry. Like Corn, Soybean being grown in
USA is also genetically modified and about 87% of the U.S. soybean was GM in the year 2005 [35-36].
Other Food Industry By-Products
Apart from oilseeds and cereals some other food industries such as sugarcane and fruit industries by-products are also
used by feed industries. These include the following ingredients.
Molasses
Citrus pulp
Apple pulp
Pomace pulp
Cranberry pulp meal
Pear cannery residue
Of these ingredients, citrus pulp is mainly used by feed manufacturer for feeding dairy cattle.
Forages
Among the forages, alfalfa and its associated product are only used by the feed industries. It is mostly utilized by
ruminants and includes the following feed ingredients
Sun-dried or dehydrated alfalfa meal
Alfalfa pellets,
alfalfa nutrient concentrate
concentrated alfalfa soluble
Miscellaneous plant products
Various other products from plants can also be used for feed development. A few of these are:
Oat and rice products
Nuts, seeds, and their by-products
Legumes and their by-products
Dried bakery waste
Dried bread
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Chocolate by-products
Coconut meal
Cookie by-products
Dried kelp
Dried roots and tubers
5.2.2 Animal based Ingredients
Animal feed ingredients also make a significant portion of the feed. During the year 2002, about 8.5 M metric tons of
rendered animal’s product had been used in feed development [28]. Of these rendered animal by-products, the
ingredients which are used in the formulation of feeds are as follow:
Meat meal
Bone meal
Poultry by-product meal
Poultry meal
Dried animal blood
Blood meal
Feather meal
Hydrolyzed leather meal
Egg shell meal,
Glandular meal
Hydrolyzed whole poultry,
Hydrolyzed hair
Unborn calf carcasses,
Animal digest,
Bone marrow (cooked or mechanically separated),
animal plasma,
Leather hydro lysate
The sources of such ingredients are divided into categories as follow
Slaughtered food producing land animals
The slaughtered animals are amongst the important source of by-products to be used in feed manufacturing. About 1/3
or even more of their body weight which includes blood, bone, feathers, and hides is non-edible for humans [37].
Died or Non-slaughtered animals
Apart from the by-products derived from slaughtered animals, non-slaughtered animals which according to compliance
policy guide no 7126.24 of U.S FDA are those animals that have died other than being slaughtered and include diseased
animals belong to food producing group and other non-food producing animals which are died as a result of road killing
or euthanization. The possible by-products to be legally used in animal feed as per U.S. FDA regulations are meal of
blood and meat, hydrolyzed hairs, digests and blood protein from these animals and various other similar by-products
[38].
Animals belong to 4 Ds “Dead, Dying, Diseased and Disabled”
The U.S.FDA has formulated the regulation of animals belong to 4-Ds group which include dead, nearly dead or dying,
diseased or ill and disabled animals [39]. As per regulation it is only allowable to use their by-products for non-
ruminants and for pet food [40]. Mostly animals belonging to 4-Ds are downer and dead cows.
Road killed or Euthanized Animals
Steve Traylor reported that it is not illegal to use road killed and non-food producing animals which are usually dogs
and cats in feed manufacturing [4]. FDA had conducted different surveys through 0.005% accuracy testing methods to
detect the presence of dog and cat DNA and of pentobarbital which are typically used for euthanization of cat and dogs
and other animals. But, they failed to get the both, the presence of DNA and the pentobarbital [39]. But beside all, some
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have doubted FDA’s result and assert some evidence regarding the use of euthanized pets to be used in feed
manufacturing [39].
Deer and Elk
Deer and Elk are also a source of ingredients used in feed manufacturing but their use for feed development is prohibited
for ruminants. Since they are very vulnerable toward TSE also called chronic wasting diseases or CWD, therefore
according to FDA’s regulation any deer or elk suffering from such disease is prohibited to be used in feed manufacturing
for any animals [41].
Blood
In the year 1997, FDA announced the banning of mammalian protein meal (including blood meal) to be used in feed
manufacturing for ruminants. However, the ban was delayed in an attempt to give feed manufactures and distributors
a proper duration to comply with the regulation [42]. Up to 1999, about 69% of feed mills in America were still using
blood commercially. This was however declined to 50% in 2003 and 39.6% in 2004 [43]. In 2004, after seeking
recommendations from international experts, FDA had made a draft proposal to curb the use of mammalian blood and
its associated products for ruminant feed manufacturing [44]. But the next year, the proposal could not be finalized due
to the fact mentioned above that most industries were using blood meal. Anyhow, after giving enough time to industries
for complying with the regulation, FDA had finalized its proposal that came into effect since 2008 [42].
Though U.S.FDA finalized its proposal, yet the immense pressure regarding blood products was developing. By year
2011, in its final ruling the U.S.F DA allowed blood and blood product that might pose risks for transmitting BSE in
mammals as feared by international experts in 2004, but according to FDA, such risk was very minimal as blood and
blood products used in ruminant feed manufacturing were heat processed prior to adding in feed. Hence, they included
blood products in non-prohibited mammalian protein. The categories are coming ahead.
Animal waste
Animal waste which is commonly called manure has been used by American feed manufacturers for the last three
decades. The waste can be from ruminants, poultry and swine and available both in dried and un-dried form. The
association of American Feed Control Officials (AAFCO) recommended that the animal waste that is to be used as feed
ingredient should be free from pathogenic organisms, pesticide residues, parasites and drug residues or at state
permitted levels [45]. The poultry waste as defined by AAFCO is the waste obtained from such commercially raised layer
or broiler that has not received any medicated or other hazardous substances. As per AAFCO regulation adopted since
1979, the waste material to be used in feed manufacturing must conform to the following’s recommendations.
o License or registration from the state
o Waste material to be assayed for the followings
Salmonella
E. coli
heavy metals
pesticides
drugs
parasitic larva or ova
mycotoxins
5.2.3 Marine by-products
There are certain by-products from marine industry used in the manufacturing of feed. On annual basis in U.S.A., about
30% of fish are caught for other than human consumption, hence used in making fishmeal and fish oil [46]. Generally,
fishmeal is produced from the fish that is not used for human consumption or used in limited amount such as small,
bony and oily species of pelagic, anchovy, herring, mackerel, and capelin. The trimmed parts of fish during its dicing for
human consumption and the other non-edible parts of fish are also used to manufacture fish meal. Fishmeal is maximally
utilized for making feed for fish. Following are the salient marine by-products used in formulation of animal feed [47].
Fishmeal
Condensed or dried fish solubles
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Crab meal
Shrimp meal
Fish oil
Fish residue meal
Fish liver and glandular meal
Fish protein concentrate
5.2.4 Fats
Fats to be used as feed ingredients can be obtained both from plants as well as animals. Among the possible ingredients
to be used by feed manufactures are as follow [45].
Tallow
Lard
Poultry fat
Vegetable fat/oil
Esters of fatty acids from plants and animals
Ethyl and non-glyceride esters from plants and animals
Vegetable-animal fat blends
Hydrolyzed polyesters of sucrose in the form of olestra (a substitute fat)
Corn syrup refinery insoluble
The feed generally contain fat up to 8% and as per AAFCO recommendations the fat or fat derived ingredients to be used
in feed manufacturing must fulfill the following conditions [45].
o Free of Dioxin or similar substances
o Fat from acceptable sources for feeding animals
5.2.5 Dairy products
The U.S. dairy industry also yields material for making animal feed. Among the possible ingredients are dried skimmed
milk, buttermilk, chocolate milk, whey or whey products, cheese rind, dairy food by-products, dried milk protein and
dried cheese and its associated dried cheese product [48].
5.2.6 Banned Harmful ingredients
The U.S. FDA and AAFCO have barred some ingredients to be incorporated in feed manufacturing. Following is a brief
note on such ingredients along with their sources.
Plants
FDA and AAFCO have made necessary regulation toward use of various herbs, botanicals and the dietary supplements.
Although various unapproved substances are being used by feed manufacturer, the AAFCO had conducted nationwide
interventions for curbing the use of such substances. Of these, the two substances such as “Kava” and “Comfrey” have
been banned to use as feed ingredient because of incidences of liver damage and other harmful outcomes both in
humans and animals [49].
Chemical Substances
Amongst the chemical substances, ball clay had been used as anticaking agent in the feed but upon its detection with
dioxin it has been banned in feed manufacturing [50].
Protein
Like European countries, FDA and AAFCO also have taken steps to curb against TSE and BSE through categorizing the
processed animal protein or PAP into the following three categories: Prohibited Mammalian Protein; Non-Prohibited
Mammalian Protein; Non-Mammalian Protein [51].
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Prohibited Mammalian Protein
It includes the following possible ingredient that are prohibited to be fed ruminants which include cattle, sheep, goats,
deer, elk, buffalo and antelopes [41].
o Animal By-Product Meal
o Animal digest
o Animal liver
o Bone meal, cooked
o Bone meal, steamed
o Cooked bone marrow
o Dried meat solubles
o Fleshing hydrolysate
o Food processing waste
o Glandular meal and extracted glandular meal
o Hydrolyzed hair
o Hydrolyzed leather meal
o Meat
o Meat and bone meal
o Meat and bone meal tankage
o Meat by-products
o Meat meal
o Meat meal tankage
o Meat protein isolate
o Mechanically separated bone morrow
o Restaurant food waste
o Stock/broth
o Unborn Calf Carcasses
Non-Prohibited Mammalian Protein
The following protein ingredient from mammals or ruminants is allowed to be used for ruminant feed manufacturing
[42].
o Milk products (milk and milk proteins)
o Gelatin
o Pure porcine
o pure equine protein
o Blood products
Non- Mammalian Protein
This class of protein Includes protein from plants, earth and from non-mammalian animal sources such as [4].
o Poultry
o Feather meal
o Fish meal
o Soymeal
o Gluten
Apart from the abovementioned ingredients, derived from multiple sources including plants and animals, there are
some other ingredients utilized for feed manufacturing. In this regard food producing places such as restaurants,
cafeterias and other similar places can also generate ingredients for feed manufacturers particularly for swine or non-
ruminants. As per regulations prevailing in the country, any food from the aforementioned places must be free from any
piece of glass, crockery, metal or other similar item and boiled for half an hour prior to feed animals [52].
Antibiotics industry also supply necessary microbial material in the form of spent mycelium of penicillium,
Streptomyces and other alike microorganisms for the synthesis of enzymes, amino acids, vitamins which are the widely
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used ingredients by the American feed mills. Although the use of these ingredients are legal according to FDA but the
organization is bound to set a limit for the microbial activity to maintain it below or equal to 2g/ton of cake which in
turn should be incorporated in feed about 3lb for every tonnage of feed [53].
Probiotics are also used in feed manufacturing. These are live strains of beneficial microorganism such as bacteria and
yeast and are widely utilized by feed industries. AAFCO has listed about 45 microorganisms that can be used for this
purpose. The common of these organisms are the species of Lactobacillus and Aspergillus Niger [54]. Also, the American
feed industries utilize a diverse range of minerals from micrograms to traces. Among the mostly utilized mineral are Ca,
P, K, Zn, and some potentially toxic ones such as Ar, Cd, Hg, Pb and Se etc. within the specified limits as per FDA an
AAFCO regulations. Furthermore, animal feed is fortified with vitamins to fulfill the nutritional need of animals. Enzymes
are the other elements used in American feed industry.
5.3. European Feed Regulations
According to European Standard EC 767/2009, the feed is any material either in raw or processed form obtained from
plants, animals and industrial by-products with the principal objective to fulfill the nutritional needs of the animals. It
may or may not contain feed additives which are normally incorporated during oral feeding of animals [55].
Table 4 EU Regulatory standards defining terminologies and Legal definitions for Feed Ingredients and Feed Mixtures
Feed ingredients
Feed mixtures
Ref.
Feed (Reg.178/2002)
Premixtures Reg. 1831/2003
[32]
Feed Material (Reg. 767/2009)
Compound Feed
Feed Additive (Reg. 1831/2003)
Complete Feed
Processing Aids (Reg. 1831/2003)
Complementary Feed
Daily Ration (Reg. 1831/2003)
Mineral Feed
Veterinary Medicinal Product
Milk Replacer
Dietetic Feed (Reg. 767/2009)
During the year 2016, meat, poultry and other animal derived products had contributed an approximate share of 150
billion €, generated jointly by 28 EU member states which was equal to 39% of total value resulting from farm
production (56). During the same year, animal feed being an important driver of the feed industry was fed with the
approximation of 480 M Tones in the member states. It includes about 50% of roughages, 10% farm produced grains,
30% industrially produced compound feeds and 10% other purchased feed stuffs [56].
EU contributes 16% of the global compound feed production which has been reached up to 1103.4 million metric tons
[14]. During the year 2018, there had been an increase in growth rate of about 4% as compared to 2017[14]. Among the
important regional players of compound feed are Germany, Spain and France that remained the leaders as compared to
other EU countries in terms of total production. Germany leads in cattle and pig feed while France enjoys the leading
position in the poultry feed industry. In the year 2016, the production of poultry feed industry was risen by 2% while
the cattle feed industry remained constant and the swine feed industry suffered 1% decreases in its production [56].
5.3.1 Ban on use of processed animal protein or PAP
Since 2001, there had been a ban on the use of processed animal protein or PAP for food producing farm animals
particularly ruminants. Initially the ban was imposed for feeding such protein to sheep, goat and cattle but later on it
was expanded to cover all the farm animals [57]. The reason behind the ban was health concern regarding the spread
of Bovine Spongiform Encephalopathy or BSE and Transmissible Spongiform Encephalopathy or TSE in humans. The
European TSE regulations enforced from July 2017, have laid down the following regulatory measures toward
utilization of animal based protein in the development of animals feeds [58].
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Table 5 Allowed and not allowed protein type with regard to animals
Source/ Protein Type
Ruminants
Non-Ruminants
(Except Fish)
Fish
PAP derived from ruminants including blood meal
N/A
N/A
N/A
PAP derived from non-ruminants including blood meal and PAP
from insect, but excluding fishmeal
N/A
N/A
A
Ruminants derived gelatin and collagen
N/A
N/A
N/A
Ruminants Blood products
N/A
N/A
N/A
Fish Meal
N/A*
A
A
Non-Ruminant blood products
N/A
A
A
Hydrolyzed protein derived from skin and hides other than
ruminants and non-ruminants
N/A
N/A
N/A
Hydrolyzed protein derived from skin and hides of ruminants as well
as non-ruminants
A
A
A
Non-Ruminants derived gelatin and collagen
A
A
A
Egg or egg products
A
A
A
Milk or milk products including colostrum
A
A
A
Animal derived di and tri phosphate of Ca
N/A
A
A
Other animal proteins excluding the aforementioned ones
N/A
A
A
In the above table, A stands for Allowed or Authorized while N/A for Not Allowed or Not Authorized; N/A* means it is authorized to incorporate fish
meal in milk replacer only for non-weaned ruminants.; Data obtained from European Commission regulations [59] laid down for TSE or BSE
contamination with the animal’s feed.
5.3.2 Feed Ingredients
The Product Environmental Footprint Category Rules (PEFCR) published a five year (2009-13) average report to
elaborate the major feed ingredients. It is explored as follows:
Cereals
Cereals are one of the major feed ingredients used for manufacturing feed and include common and durum wheat,
barley, maize, rye, sorghum, oats, triticale and others.
Table 6 List of ingredients used in percentage for feed development in Europe
Feed ingredients
Usage by Feed Industries (%)
Cereals
50
Food & Bioethanol Industry by products
11
Dried forage
1.5
Pulses
1.5
Dairy products
0.5
Oil and Fat
2
Oil seed cake or meal
26.5
Additives, Minerals and Vitamins
3.5
Others
4
Data on Feed material consumption by the compound feed industry in EU 28 member countries [56].
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Tapioca
According to the European Feed Manufacturers' Federation (FEFAC), about 100% of tapioca produced in the region is
used as feed in the Europe and accounted for 0.1% of the total raw material used by feed manufacturers [5].
Food & Bioethanol Industry by products
The total contribution of this group has about 15% of the feed production. In includes the following ingredients from
the domestic as well as imported food industry [56].
Domestic wheat bran from wet milling
Domestic wheat feed from wet milling
Wheat bran from flour milling
Wheat middling from flour milling
Imported Corn gluten as feed
Domestic maize germ from wet milling
Domestic maize gluten as feed from wet milling
Domestic maize gluten meal from wet milling
Domestic maize bran from maize dry milling
Protamylasse from potato starch production
Domestic molasses from sugar beet
Imported molasses
Domestic dried pulp from sugar beet
Imported dried beet pulp
Imported citrus pulp
On the other hand, it includes the following from the ethanol producing industry.
Domestic DDGS from Wheat
Domestic DDGS from Maize/Corn
Domestic DDGS from Barley
Domestic DDGS from Rye
Domestic DDGS from Triticale
Imported DDGS only from Corn/Maize
Vegetables oils
Among the vegetable oil or related products, the ingredients include palm oil and rapeseed oil.
Oil seed meals
Among the oil seed meals both from domestic as well as imported meals used for feed development are
Groundnut meal
Domestic soya meal
Domestic rapeseed meal
Domestic sunflower meal
Domestic cotton meal
Palm kernel meal
domestic linseed meal
domestic maize meal
imported copra meal
Imported soya meal
Imported sunflower meal
Animal derived products
Normally the animal derived ingredients are regulated under the special regulation passed mostly due to health
concerns to humans, like PAP when fed to ruminants. Only those animals by products are allowable that are listed as
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category III of EU Regulation EC-1774/2002 [59]. The ingredients both domestically obtained and the imported ones
used in feed development are as follow:
Animal fat
Imported fish meal or marine meal
Domestic fish meal
Marine meal
Fish oil (marine oil)
Whey powder
Milk powder
Minerals, Additives, Vitamins
The following ingredients come under this group to be incorporated in EU feed by industries
L-Lysine HCl
DL-Methionine
L-Threonine
L-Tryptophan
Calcium carbonate
Mono calcium phosphate
Sodium chloride
Sodium carbonate
Phythase
Trace elements premix including ZnO, CuSO4 and ZnSO4
Vitamin’s premix
5.4. Feed Regulations of Malaysia
In Malaysia, the feed industry is regulated by “Animal Feed Act 2009” that came into force by the year 2013, with
principle focus on ensuring safety and quality of the animal feed during the whole supply chain starting from
manufacturing till consumption by animals. The act was supported by the Animal Feed Board. In order to facilitate the
implementation “Feed Regulations 2012” and “Animal Health and Welfare Bill 2012” were also enacted. The act defines
feed to be all forms of single or multiple material including fresh as well as processed or semi-processed that is meant
for feeding animals which according to act are mammals (except humans), marine creatures, amphibians, reptiles, birds
(including chicken, duck, quail and ostrich) and insects. The ingredients used by Malaysian feed industries [60] are as
follow:
5.4.1 Plants based
Following are the plant-based ingredients used by the Malaysian feed industry.
Cereal and Cereal by-products
These are mostly used for feeding monogastric animals such as poultry up to the extent of 80%. Among the commonly
used cereal by Malaysian feed industries are:
Wheat and its by-products
Maize
Sorghum
Millet
Rice and its by-products
Oilcakes and oil meals
These are the by-products obtained from vegetables oil extraction industries. The materials to be used in feed
manufacturing are meals and cakes which are obtained through the process of pressing and solvent extraction
respectively.
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Groundnut oilcake
Coconut oilcake
Palm kernel oilcake
Cottonseed cake
Sunflower seed cake
Soyabean meal
Rubber seed oilcake
Linseed oilcake
Sesame oilcake
Legumes Legumes are also used by feed manufacturers but not commonly as feed ingredient. Normally these are used
as fodder. The possible sources are:
Red gram or Dahl
Chick pea
Egyptian bean
Lentil
Leucaena
Lucerne or alfalfa
Saman or cow tamarind
Mung bean
Horse gram
Cow pea
Sesbania
Forages/Fodder
Lucerne or Alfalfa
Kangkong or swamp cabbage
Sago palm
Roots and Tubers
Roots and tubers are commonly grown for human consumption but can be used for feeding fish because of high starch
content and also being useful material for industries. The most commonly used are:
Sweet potato and its by-products
Cassava
5.4.2 Animal based
Among the animal-based ingredient are
Land animals and their byproducts
o Meat meal and its associated by-products
o Blood and its associated by-products
o Bone meal
o Hydrolyzed poultry feather meal
o Milk or milk by-products
Pupae and larvae of silkworm and other insects
Marine animal by-products
o Shrimp meal
o Fish silage
o Fish oil
o Fish meal
o Trash fish
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5.4.3 Mixed feedstuffs
Besides animals and plants, there are some other ingredients to be used in feed manufacturing for a particular purpose.
These include
Leaf protein concentrate, LPC
Cane molasses
DDGs
Brewer's spent grains
Brewer's yeast
Fats
Algae
Yeast
Bacterial protein or SCPs (single-celled proteins)
5.5. Feed Standards of Pakistan
Pakistan being an agriculture country is attempting to gain global market share of the feed industry. Like other countries
it also has formulated standard and Acts for feed ingredients. Poultry feed is the largest feed sector of feed industry in
Pakistan with 1,168 billion Rupees investment. Unfortunately, the cattle feed industry could not flourish like poultry
feed industry. Mostly, it starts and ends on fodder, crop residues and agro-industrial by-products such as oil seed cakes
and meals [61].
Table 7 Cereal and Cereal by-products for Poultry feed
Nutrient
Maize
Wheat
Sorghum
Barley
Broken Rice
References’
Crude Protein (%)
8
10
9
8
7
[63]
Crude Lipid (%)
3
1
2
2
1
Crude fiber (%)
4
5
4
10
4
Moisture (%)
13
12.5
12
12.5
12.5
Ash (%)
2.5
2.5
2.7
3.5
2
Aflatoxin (ppb)
50
10
10
10
10
Table 8 Vegetable protein as feed ingredient
Nutrient
Crude Protein
(%)
Crude Lipid
(%)
Crude fiber
(%)
Moisture
(%)
Ash
(%)
Aflatoxin
(ppb)
Ref.
Rape Seed Meal
32
1
13
10
7
20
[63]
Canola Meal
32
1
12
10
7
20
Sunflower Meal
22
1
24
10
8
200
Soybean Meal
42
1
8
10
7
20
Sesame Meal
35
1
8
12
12
20
Linseed Oil
Cake
25
5
10
10
7
50
Maize Oil Cake
16
7
14
10
4
100
Maize Gluten
Meal
20
1
9
10
8
100
Maize Gluten
feed
52
1
1
10
3
100
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Rice Protein
Meal
30
2
2.5
10
3.5
20
Rice Polishing
10
13
12
12
10
50
Wheat Bran
12
4
11
12
7.5
20
Rice Bran Meal
12
0.2
14
12
12
50
Gaur Meal
10
4.5
12
10
7
50
Pulses Meal
10
2.5
20
10
8
50
Among the materials to be used by feed industries are crop residues, cultivated fodder (19%), cereal/legume grains and
by-products, and oil cakes, meals and animal protein with their shared values 45 %, 19%, 6% and 2% respectively [62].
According to PS: 233-2013(4th Rev), which is the standard for poultry feed, feed is a complete ration to be fed to the
pullet developer from 12 weeks of age up to a period when 5% of egg production stage is reached. Poultry feed is derived
from the multiple sources in Pakistan, the important feed ingredients along with their composition are given below as
per PS: 233-2013 (4th Rev).
Table 9 Animal protein as feed ingredients
Nutrient
Crude Protein (%)
Crude Lipid (%)
Crude fiber (%)
Moisture (%)
Ash (%)
Ref.
Fish Meal
44
5
1.5
10
26
[63]
Meat Meal
60
15
3
10
22
Blood Meal
41
7
3.5
6
6.2
Poultry Meal
45
10
1
10
8
6. Feed Hazards
The animal feed industry is an important driver of poultry and livestock industry worldwide with 40-60% of the cost
related to feed [64]. Feed safety is one of those parameters that determine the feed quality and make the feed free from
any hazardous ingredient or by allowing such ingredient with in the tolerable range [64]. Among the hazards mostly
encountered in feed worldwide are environmental, bacterial, fungal, viral, plant and animal-based contaminants [65].
6.1. Environmental
Environment is the home to many natural, organic, inorganic and various other contaminants such as heavy metals
including Ar, Cd, Pb and Hg, pesticides such as organ chlorine, organophosphate and pyrethroid compounds along with
their residues, radio nucleotides and industrial effluents containing dioxins and polychlorinated biphenyls or PCB [66-
67].
6.2. Bacterial
The bacterial contamination of animal feed that normally happen during the whole supply chain from pre-harvest to
post-harvest is either due to use of contaminated material for manufacturing of feed or due to contamination during
transportation at mill or farm. The possible pathogens having hazardous impact on both humans as well as animals
include Salmonella, E. coli O157:H7, Enterococcus, Yersinia, Campylobacter and Clostridium [68-69]. The widespread
availability of animal manure on farm and the practice of feeding poultry litter to ruminants were the 2 the most
prominent indicator of E. coli contamination of feed. The prevalence of Listeria monocytogenes, which is associated with
silages and their processing methods, may result in abortions, meningitis, encephalitis and septicemia in animals as well
as humans if remain in the feed particularly pet feed that has more human contact than other feeds [65]. However,
adequate treatment of the raw material during the feed processing may either eliminate or reduce the presence these
pathogens to acceptable limits [70].
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6.3. Fungal
Like bacteria, it is quite common that feed or its raw material may become contaminated by fungi or its subsequent
mycotoxin causing mycosis in animals. Globally, their prevalence among the animal feedstuffs is a serious problem
particularly in tropical and subtropical region where climatic conditions favor their proliferation [71]. The feedstuffs
vulnerable to fungal contamination include cereals and legumes such as wheat, maize, rice, rye, sorghum, millet, and
groundnuts [72]. The important species include Aspergillum, Penicillium, Fusarium and Alternaria while the toxins such
as aflatoxins, ochratoxin A, citrinin, zearalenone and fumonisins [73].
6.4. Plant based or Phyto-toxins
Plants have adaptive mechanism supported by certain toxins and anti-nutritional substances such as lectins, goitrogens,
protease inhibiter, gossypols, cyanogens, phyto-oestrogens, tannins, pyrrolizidine alkaloids, glucosinolates and
saponins for providing protection to their stored food material against microorganism, insects, birds and other plant
eating animals [74]. Lectins usually abundant in cereal, legumes and tubers, in higher concentration cause local necrosis,
edema, inflammation and hemorrhages of GI tract, impaired immunity, reduction in body weight, anorexia and
eventually death of animal [75]. About 6000 plant species, belonging to borages, legumes and sunflower family contain
over 350 pyrrolizidine alkaloids which cause hepatotoxicity, genotoxicity and cancer in animals [76]. Saponins, which
are the low molecular weight secondary metabolites have been found in 100 plant families particularly Agavaceae,
Dioscoreaceae, Liliaceae, Fabaceae, Araliaceae and Caryophyllaceae and cause hepatogenous photosensitization
hypocholesterolemia, haemolysis and spermicidal effect in animals particularly sheep [77]. Tannins, mostly present in
leguminous forages particularly sorghum may reduce rumen activity, enzymatic activity, voluntary feed utilization,
nutrient absorption, wool growth and weight gain by animals [78]. Gossypols, which are the pigment found both freely
and in bounded form in cottonseed meal used for feed manufacturing, may lead to several physiological abnormalities
in animals such as hypertrophy, dilated cardiomyopathy, decreased oxygen in blood, and reduced reproductive
potential [79-81]. Protease inhibiter, normally rich in legumes, particularly trypsin and chymotrypsin inhibitors are
associated with enlargement of pancreas, reduced enzymatic activity in GI tract, abdominal and facilitating endogenous
loss of amino acids, hence effecting the overall growth and performance of animals [82-84].
Glucosinolates or GLs, represent another important toxin belonging to crucifers such as mustard, rapeseed, broccoli,
Brussels sprouts, cabbage and cauliflower of which rapeseed is normally used in feed manufacturing and result in
reduced feed intake, goiter, hepatic and renal hypertrophy and eventually death upon higher concentrations [85].
Cyanogens are the “Hydrogen Cyanide or HCN” forming secondary metabolites commonly present in plants such as
cassava, linseed seed, sorghum, clovers and other leguminous forages [76]. They include amygdalin, dhurrin, linamarin,
linustatin, lotaustralin, neolinustatin, prunasin and sambunigrin, which upon hydrolysis release HCN that is associated
with retardation of growth and neurological complications in animals [86]. Phyto-oestrogens refers to a wide range of
isoflavonoid compounds particularly genistein, genistin, zearalenone, zearalenol and formononetin, present in forages,
legumes and clovers, causing tumor and reproductive disorders in animals particularly cattle where it leads to Mastitis
and Infertility and sheep where it causes clover diseases in which animal has reduced ovulation and conception [87].
Goitrogens, include a diverse range of antinutritional substances such as glucosinolates, isothiocyanates, thiocyanates,
cyanogenic glucosides and nitriles possessing anti-thyroid activity and are responsible for development of goiter in
animal upon long-term feeding with plant materials such as white clover, cassava, cabbage and other crucifers [87].
6.5. Animal based or Zootoxins/Mad Cow Disease as the potentially harmful Disease
Bovine Spongiform Encephalopathy or BSE, commonly known as Mad Cow Disease is one of the fatal neurodegenerative
diseases of food producing animals, appeared for the first time in Great Britain during 1983. Since its outbreak, this
disease has resulted 180,000 cases globally. [88]. It has been suggested that the disease was indeed the mutated form
of “scrapie” which is also a fatal neurodegenerative disease of sheep and goat resulting from a misfolded protein called
prion [89]. Its prevalence in cattle particularly the dairy cattle might be the result of feeding animal derived protein
from the infected sheep or goat to cattle or other ruminants. The reason behind using word “spongiform” is due to the
spongy or holey appearance of BSE infected animal brain [89]. The main feed ingredient that was among the vector for
BSE are PrPS infected meat and bone meal which are acronymically known as MBM [88]. This MBM and the by-products
resulting from the process to develop MBMs is extracted from the non-edible waste material from poultry and other
food producing animals and from the carcasses of died stock [90]. The mostly practiced technique was rendering, in
which the obtained raw material was firstly dewater, defatted and then grinding the remaining proteinaceous material
for making MBMs.
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6.6. Global Prevalence
The global prevalence of BSE was resulted from trading of cattle and other bovine related products particularly the feed
composing MBMs, and other mammalian derived rendered proteins. Therefore, the risk of BSE was addressed by
classification into 4 categories by the Scientific Steering Committee of the European Commission [90]. The European
countries are among the native region to be affected with BSE while BSE can also be detected in USA, Canada, Falkland
and in Oman [90]. The following table highlighted the first appearance of BSE in many countries across the globe.
Table 10 Country wise cases
Country
Year of Fist Case
No. of cases reported
Reference
Great Britain
1986
180892
[90]
Northern Ireland
1988
2160
France
1991
969
Portugal
1991/1994
988
Switzerland
1999
460
Germany
1992/2000
389
Netherlands
1997
78
Japan
2001
22
Canada
1993/2003
6
USA
2004/2005
2
Saudi Arabia
0
6.7. Ban on mammalian derived protein
Lately in 1987, for the purpose of addressing the problems caused by the epidemics of BSE, countries such as UK and
USA imposed ban on the use of mammalian protein in feed manufacturing for ruminants [91]. Unfortunately, being
allowed to use in swine and poultry feed, the cross-contamination appeared to occur for years. Additionally, together
with longer incubation period, the disease was failed to be diagnosed through preclinical tests. Although the ban was
imposed and cattle were prohibited from feeding mammalian derived MBMs, the animals were still carrying the infected
PrPs due to year long incubation periods [90]. As a result, the entry of BSE into food supply chain was expected.
Therefore, in 1989, for the purpose of protecting public health ban was also imposed on the offal that might be carrying
BSE agents. The ban was also imposed on the use of over 6-month-old cattle’s head except tongue in animal feed and
even the head of sheep and goat for humans [92]. By 1990s, BSE was discovered in felines or the domestic cats and
became transmitted to pig experimentally [90,93]. Addressing the prevalent problems, the offal ban was expanded to
cover all species of mammals and birds in the same year 1990. In Europe Union, the ban regarding the BSE was
converted into law by the year 2000 [90]. The virulence of disease was even more for 46-year-old cattle and having an
average incubation period of 2 months.
7. Discussion
The division of feed in to multiple categories is dependent upon the nutritional value and intended use. Different
countries have differently stated and defined these feed types but common of all these are compound feed, energy feed,
protein feed, supplement feed, premixes, concentrates, and roughages, medicated feed and feed additives. Amongst
these the compound feed is said to be a mixture manufactured while using two feed materials with or without the
incorporation of feed additives and intended to be fed orally to animals. Moreover, it is recognized either as complete
or as complementary feed. The word “complete” means feed which is compositionally suitable as daily ration while the
word “complementary” means feed that is required to be mixed with other feed because of high amount of some
substances (EC 767: 2009) [55].
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Energy of feed usually manufactured from varyingly refined cereal grains and other vegetable crops such as wheat,
maize, oats, barley, sorghum, potato, wheat bran and middling, corn cobs, rice bran and beetroot pulp. Of all these
ingredients the most commonly used ingredient is maize [118]. Protein feed prepared from ingredients containing more
than 20% protein both from plant as well as animal source. The plant-based ingredients are seed oil meal and cakes and
maize gluten meal while the animal based are meals derived from various land animals such as blood, bone and meat
meal and from marine animals such as fish meal [4]. Supplementary feed is a type of feed normally used along with basic
feed ingredients for improving the nutritional value of the final feed and may be either rich in protein, energy or rich in
minerals and vitamins [94].
Premixes are a feed type that comprises high concentration of one or more substances such as Vitamins, mineral or drug
and is usually offered along with complete feed [95]. Concentrates often include grain and grain by-products such as
wheat bran, oil seed cake and skim milk. These are usually diluted or mixed with other feed thereby making a
supplementary or complete feed. Roughages are the plant-based category of feed consisting of hay, silages, pasture, and
rangeland plants [96]. Medicated feeds a special type of feed offered to animal only in case of disease and usually contain
one or more veterinary drugs as considered by U.S. FDA and usually categorized as Type A, B and C depending upon
whether used directly or by dilution [96].
Feed additives are non-nutritive substances including enzymes, probiotics, herbs and antibiotics which are intentionally
added along with basic feed ingredients for manufacturing compound or other feed type for the purpose of enhancing
growth, feed uptake, palatability, and for preservation purposes [97].
Various ingredients are allowed to be used by different feed manufacturers all over the world. Chinese feed
manufacturer mostly use corn, soybean, sorghum, barley, DDGs, cotton seed meal, rape seed meal and fish meal [98].
EU regulatory standard have listed about 166 ingredients belonging to cereals, pulses, forages, roughages, oilseed cakes
and meal, other plants and fruits, vitamins, mineral, feed additives and animal by-products to be used in manufacturing
of animal feed [32]. American feed industries use about 900 approved ingredients of which the three feed ingredients
corn, soybean meal and DDGs together contribute more than 75% of the raw materials used by American feed
industries. The Canadian feed regulation classified feed ingredients into 7 classes which are dry forages and roughages,
pasture, range plants and forages fed Green, silages, energy feeds containing cereal grains , by-products from milling
and brewing industries, molasses, vegetable fat and other wastes from bakeries and other food industries, protein Feeds
containing oil seed meals and cakes, fish meal, meals of blood, bone and feather, animal fat, and other by-products from
poultry, cattle and marine animals, mineral products and Vitamin and yeast products [99]. According to Indian
standards the ingredients are categorized as greens containing berseem and alfalfa meal, grain and their by-products,
oilseed meals and cakes, root crops and tuber, animal by-products containing fish meal, meat meal, bone meal and blood
meal and meat scrap, minerals and vitamins and waste containing material resulting from brewing industries, silkworm
industry, fruit processing industry and other similar industry by-products provided that animal protein is not allowed
for cattle feeds [100-101]. In Pakistan, the standards allowed ingredients from plant in the form of various forages,
cereal grain and their by-products, oil seed meal and cakes and animal derived ingredients such as fish meal, blood meal
and bone meal [63].
The discussion around the feed types and ingredients in Halal feed supply chain is dependent upon the basics of Halal
and Tayyib integrity in feed production. Halal industry is stretching its wings and paving its way with phenomenal
velocity. Halal logo is becoming the mark of soul satisfaction as well as product safety worldwide, which can be easily
witnessed through the remarkable growth of the Halal industry. After food, cosmetics, pharmaceuticals, nutraceuticals,
tourism and some other industrial products and services animal feed is also attracting the attention of global halal
market. Thus, the need to highlight the concerns repugnant to Halal and Tayyib integrity and to address them from the
latest Halal industrial regulations has become need of the time.
7.1. Halal and Tayyib Integrity in Feed Production
Islam is one of the fastest growing religions in the world with major religious status in 49 countries worldwide and
population status prospected to a range of 2.97 billion which is 29.7% of total world’s population. Asia and Africa are
the 2 most inhabited Muslim regions covering 61.7% and 35% population share respectively while about 10% of the
world Muslims lives in Europe. Besides, it has been forecasted that by 2050 US Muslims population would reach to a
figure of 8.09 million becoming the second largest religious group [102]. As Muslims continue their robust growth it is
quite expected that Islam would replace Christianity as the world’s largest religion by 2070 [103].
Eating and drinking are very sensitive issues in Islam. The universe is packed with living and non-living organisms but
each and everything is not allowed for consumption in Islam. Islam has imposed certain number of restrictions in this
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regard. Halal connotes permissibility and Haram denotes prohibition. In halal related literature, the discussion often
revolves around the main prohibitions, namely the consumption of pork, blood, carrion, and even Halal animals not
slaughtered according to Islamic requirements, intoxicants and products thereof. In contrary to what is explicitly
prohibited, there are Halal (allowed) food sources, like a mammal or bird amongst the land animals and their products,
like eggs and milk, to be deemed as suitable for Muslim consumption they should be solely herbivores (e.g. sheep, goat,
camel, cattle, rooster, pigeon, dove, quail and sparrow), similarly for an aquatic animal to be held suitable for Muslim
consumption, that must be from fish family and also be fit for human consumption [104]. Since Muslims are meat lovers,
they eat certain animals after being slaughtered in accordance with the Islamic rules, therefore the feed of the animals
on which they grow and live is also very important as per the Islamic Jurisprudence.
As aforesaid that the development of animal feed requires a blend of animal and plant raw material together with some
material from pharmaceutical and other industries. These raw ingredients although economical and readily available
raise serious concerns for Muslims due to presence of Haraam and doubtful ingredients. One of the common practices
followed worldwide both in developed and developing countries including Pakistan is utilizing animal waste in feed
formulation. It is mostly practiced compensating expense related to feed and to reduce the disposal problem of the bulk
waste generated from these animals [105]. Therefore, Muslims all over the world begun to uplift the significance of Halal
and Tayyib integrity in developing animal feed and raise questions over the Halal status of the current feed.
Currently the feed industries around the globe utilizes a very diverse range of ingredients and raw materials for
manufacturing feed, starting from plant derived ingredients to the animal derived and other ingredients resulting from
non-food industries and some food service premises. About the plant and plant derived by-product’s ingredients, the
Halal and Tayyib integrity shows no concerns except for the DDGs which are the by-products resulting from brewery
industry thereby raising concerns since the alcoholic beverages are held prohibited in Islam. Amongst the animal
derived ingredients such as marine derived ingredients are allowed but the ingredients derived from land animals and
other non-food sources there are several critical control points to be checked. One of the most critical issues is the
derivation of ingredients from the pig that has been declared totally unlawful and impure. Similarly, the dogs and the
cat which are euthanized and evident to be used by some feed industries in USA for ruminants could also be a critical
control point in Halal integrity as both these animals are held Haraam in Islam. Blood which is used as an ingredient
also causes questions since it has been rendered Haraam in Islam. Fat is also significantly utilized by feed manufacturers,
therefore raises CCPs due to the possibility of the non-Halalness of the source. The animal by-products such as meat
meal, bone meal and feather meal including the animal waste which are either obtained from swine or cattle and poultry
seek the attention of Halal and Tayyib integrity. The use of PAP from mammalians or ruminants which has been found
to be associated with TSE and BSE also raises concern for meeting the Halal and Tayyib integrity from public as well as
animal heath point of view. The use of probiotics is also a questionable area as the microorganism could be from the
Haraam media or Haraam animal source. These are the critical concerns to be addressed by Islamic Jurisprudence.
7.2. Islamic Jurisprudence with regard to Animal Feed
Islam lays no code of life for the animals to live, consume and behave; it is the mankind that has been addressed in this
regard. They are free to live the way they like and consume and behave the way they have been natured to do so. Islamic
Jurisprudence does not restrict them as it does when the matter comes to the mankind. Islam provides them with the
code of welfare binding the humans to take care of the animal’s lives and feed. Animal welfare denotes the state of the
animal and the treatment it receives during the whole life span. This includes animal care, animal husbandry and
humane handling.
Fundamentally they have been created to fulfill the multiple needs of the mankind. Islam directs humans not to waste
their lives and holds them responsible for their well-being and feed. Once the Prophet (P.B.U.H.) said, "there is no person
who kills a small bird or anything larger for just nothing, but Allah, the Mighty and Sublime, will ask him about it”. When
the Messenger of Allah was asked about “nothing”, He (P.B.U.H.) replied: "that you slaughter it and eat it, and do not cut
off its head and throw it aside” (Sunan an-Nasa'I, 4349). On another occasion the Messenger of Allah said: “An ant stung
a prophet. He ordered a colony of ants to be burned. Allah revealed to him: because an ant stung you, you have perished
a community which glorifies Me” (Sunan Abi Dawud 5266). It is reported that the Messenger of Allah (P.B.U.H.) said that
a woman punished her cat by imprisoning it until it died of hunger. Because of this, she entered the Fire (was sent to
hell). [106].
In Halal Food Supply Chain, animal feed is considered as the initial Critical Control Point in ensuring the halal integrity
of animal-based food products. The threats and uncertainties in the halalness of the animal feed may consequently affect
the halal status of the halal food products, thus drive the attention of the Islamic Jurisprudence. In this context the
Islamic Jurisprudence defines and describes some important principles for the animal’s feed mentioned as follow.
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Animals are not the addressees of the Allah (SWT) with regard to Halal and Haraam, hence they are not bound
to the code of Islam. Primarily they have been created to cater the multiple needs of human beings, as Allah
(SWT) proclaims in Quran, “Allah it is Who hath appointed for you cattle, that ye may ride on some of them, and
eat of some - Many benefits ye have from them - and that ye may satisfy by their means a need that is in your
breasts, and may be borne upon them as upon the ship” (Quran, 40:79-80). In the said context they attract the
injunctions from Islamic Jurisprudence.
The jurisprudence of pure Najis and Mutanajjis (contaminated with Najis) shall apply to the animal feed. In the
first case any substance which is purely Najis shall not be fed to the animals either halal or Haraam as per the
Hanafi’, Maliki and ShafiI’ Schools of thought, whereas Imam Ahmad bin Hanbal and Imam Malik in another
view is of the opinion that pure Najis can be fed to the Haraam animals (non-edible). Since they are not meant
for consumption, therefore, they can be fed with such substances, they added [107]. Hanafi’ and ShafiI’ Schools
argue that any substance which is rendered purely Najis by Islam is not amongst the goods that have economic
value in the eye of Islamic Jurisprudence, thus cannot be sold or purchased, hereafter cannot be fed to the
animals either Halal or Haraam e.g., wine, blood, pig etc. In case of Mutanajis feed the animals either Halal or
Haraam can be fed with such feed as per all the prominent Schools of Jurisprudence. For instance, if any Najis
component, e.g. blood as blood meal along with the other non-Najis components is incorporated in the feed,
then the consideration with regard to Halalness of that feed shall be given depending upon the quantity of that
Najis component, if the Najis component is lesser in quantity as compared with the other non-Najis components
of the same feed then the feed shall be rendered Halal, otherwise it shall be deemed Haraam as per the Hanafi’,
MalikiI’ and ShafiI’ Schools of Jurisprudence, whereas Imam Ahmad bin Hanbal is of the view that an animal can
be fed with such feed with the condition that such animal shall not be slaughtered before the expiry of three
days from the day when that was fed with such feed. In the mentioned case the rule of Mutanajjis (contaminated
with Najis) has been applied with regard to the juristic deduction of the multiple schools of Jurisprudence [108].
7.2.1 Integrity of Halal Logo
These are the classical juristic views of the prominent Schools of jurisprudence. With reference to the modern-day Halal
industrial standardization and certification, the Halal integrity demands even stricter criterion. The relaxation which
was shown regarding the Mutanajjis (Contaminated with Najis/non-halal) feed in classical juristic views of the
prominent schools in the pre-industrial standardization and certification era might not be shown in modern-day halal
industrial standardization and certification age. When the feed is claimed, proclaimed, labeled and sold to be Halal, it
requires the complete traceability of the Halalness of the feed supply chain. Halal logo represents the sanctity of Halal,
hereafter it is repugnant to the sanity of the halal certification that a feed is rendered halal while having non-halal
components. There is a need to understand the distinction between the halal certified feed and non-certified feed, as
per the Islamic jurisprudence the later one can have the non-Halal components in minute amount while the first one
cannot, cementing and shielding the sanctity of halal logo. In the recent past some crucial Fatwas (Islamic rulings) have
also been issued by the important halal industry players restricting the scope of classical adjudications and reflecting
the said distinction mentioned above.
The Fatwa (Islamic verdict) from Malaysian Fatwa issuing authority prohibits feeding aqua cultured fish with feed
derived from Najs (filth) and animal waste [109], for the purpose of maintaining the sensitivity of Muslim community
in the country [109] This is supported by the one issued by Indonesia which prohibits the production and trading of
animal feed that contain swine elements or other non-halal animals [110]. The fatwa of Brunei on the other hand,
discourages the practice of feeding animals with filthy feeds and selling those animals without proper quarantine
process [110]. Apart from these crucial Islamic rulings global halal standards also highlight the issue in a same way:
The Standards and Metrology Institute for Islamic Countries (SMIIC) is a subsidiary organ of the Organization
of Islamic Cooperation (OIC) established for standardization purpose. Recently the SMIIC has issued a fresh
version (2019) of food standard encapsulating the requirements for halal foods. The said standard (OIC/SMIIC
1) has included the feed for food producing animals in its scope, meaning by, like the halal food no non-halal
ingredient shall be included to the feed of food producing animals. Hereafter, in its clause 5.1.1.2 for non-Halal
animals, those farmed Halal animals which are intentionally and continually fed with harmful, or Najis
(Contaminated with Najis/non-halal) feed have been categorized as non-halal animals for food purpose.
Malaysia which is one of the halal market leaders in its freshly issued halal food standard, MS. 1500-2019,
proclaims under the clause 4.5.1.1.1 that farmed halal animals which are intentionally and continually fed with
Najis (Contaminated with Najis/non-halal) are non-halal for food purpose.
United Arab Emirates (UAE), an emerging halal market leader in its standard for slaughtering, UAE. S 993-2015
under the clause 4.1.4 states that the animals should be fed fodder produced from halal sources.
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Pakistan an important member of SMIIC, in the recently issued halal food management system standard, PS:
3733-2019, Part ii, includes the feed in scope meaning by like the halal food no non-halal ingredient shall be
incorporated in halal feed. Moreover, in part one of the said standard which is meant for terms and definitions
under the clause 3.17 declares those farmed halal animals which are intentionally and continually fed with Najis
(contaminated with Najis/non-halal) bitterly disliked for food purpose.
In addition to the Islamic rulings (Fatwas) all these important global Halal standards ensure the sanctity of the
halal logo on animal feed product by asserting that the source of the animal feed must be wholly Halal, no non-
Halal component shall be allowed.
7.2.2 Islamic Concept of Jallalah
The concept of eating food in Islam is based upon food safety. Only that food is allowed to be consumed which is held fit
for consumption. The Islamic concept of Jallalah encapsulates those halal animals that wander around feces, dung and
other impurities. The word JALLALAH comes from the word JULLAH, which means feces or dung in Arabic [111]. Since
these Halal animals consume filth, and resultantly the natural texture, taste and smell of the milk or meat of such animals
get changed, therefore, Islamic jurisprudence while assuming the milk or meat of such animal not fit for human
consumption professes certain details and criterion for Jallalah animals. In this regard it is important to highlight some
related Hadiths from the prophet (P.B.U.H.) prior to discoursing the opinions of different schools of thought.
The prohibition against eating and drinking the meat and milk of Jallalah animals, even a ban on riding them has been
narrated in the multiple Hadiths regarding such animals. It can be seen from Hadith narrated by Ibn-e-Umar, in which
the Prophet (P.B.U.U) prohibited eating the meat and drinking the milk of an animal which feeds on filth (Sunan Abi
Dawud, 3785). There were also another Hadiths compiled in Sunan Abu Daud (hadith number 3786 and 3787) and
Sunan Al-Tirmidhi (Hadith number 1824 and 1825) with similar prohibitions. The prohibition of riding al-jallalah
animals is narrated in Sunan Abi Dawud, in Hadith number 2557 and 2558. There are almost thirteen hadiths which
narrate the bar on Jallalah animals [112].
Based upon the above-mentioned Hadiths, majority of the jurists opine, when a bad odor starts emitting from the flesh
or the sweat of the Jallalah animal or a change is observed in the texture of milk or meat of such animal, it will be
Makrooh (bitterly disliked) to eat its meat, eggs, and drink its milk, and even riding such animal. Imam ShafiI’ and Imam
Ahmad Ibn-e- Hanbal in their one opinion has the same decree which the majority of the jurists have, while in another,
they both are of the opinion that consuming the meat, milk and egg of such animals would be rather Haraam [113].
Imam Malik paved his juristic way differently and opined that consuming the meat, milk and egg of such animal and
riding them is Halal [114]. The basic principles of sensory evaluation of food or the source of the food including the
texture, odor, taste, visual, etc. have been the same over centuries in the mankind history. With the passage of time and
with the induction of modern technology only the methods get changed. Regarding the Jallalah animals the classical
jurists had considered this evaluation; hereafter some of the jurists cemented their opinion on the results of the sensory
evaluation while some paved their way regardless of the said evaluation. Following are the detailed versions of the
various jurists.
Imam Abu Hanifah
According to Hanafi’ School of Fiqh, it is Makrooh to consume the meat, egg and milk of an animal (Jallalah) that eats
filth and as a result of eating such filth bad odor starts releasing from its sweat or the texture of meat or milk gets
changed. While decreeing an animal to be Jallalah, Hanafi’ School of Fiqh considers both, firstly, consuming filth,
secondly, classical sensory evaluation. Once the animal is deemed Jallalah, it requires quarantine process in Islamic
Jurisprudence prior to consumption. Imam Abu Hanifah fixed the quarantine periods for various Jallalh animals
depending upon their size. He fixed ten days for camels and cattle, four days for sheep and goats, three days for fowls.
In another opinion attributed to him, there is no specific period for quarantine process. The Jallalah animals will be
encaged and imprisoned and fed with pure feed until their filth is flushed out and the status of impermissibility changed
to permissibility [113].
Imam Malik
Maliki School of Fiqh is of the opinion that it is Halal to consume the meat, milk and eggs of the Jallalah animals even
when it releases the bad odor. This school of thought cemented its opinion on the fact that fundamentally the animal is
halal; therefore, its dieting habit would not be considered. These Muslim jurists permitted the consumption of meat,
milk and eggs of animal that is being fed with filth based on the argument that animal could not be regarded as Najs due
to the habits of eating filth [107].
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Imam ShafiI’
ShafiI’ School opines in an opinion that it is Makrooh to consume the meat, eggs and milk of Jallalah animals, while in
another opinion he renders the consumption of such animals’ haram. ShafiI’ School based their opinions wholly on
feeling the bad odor from such animals or observing the change in the texture of the milk of such animals. According to
him, if such happenings do not occur, it would be halal to consume such animals beside the fact that these animals feed
on filth. Regarding the quarantine process of the Jallalah animals, the Shafi’I School opines that camel should be
quarantined for forty days, while goat and chicken are for seven and three days respectively [112].
Imam Ahmad Ibn-e-Hanbal
Unlike Imam ShafiI’, Imam Ahmad cemented his opinion with respect to Jallalah animals on their dieting habit. If such
animal consumes filth, according to his first opinion it would be Makrooh to consume such animals and in his second
opinion he rendered it Haram, regardless of the fact that either such animals release the bad odor or not, or the change
in the texture of milk is observed or not. The advocates of this view use the literal meaning of the hadiths mentioned
above to support their opinion on the illegality of consuming Jallalah animals [115]. As for the quarantine period, Imam
Ahmad states that both birds and animals should be quarantined only for three days.
In this Islamic Jurisprudence dialogue, the reason due to which Islamic scholars had suggested the quarantine process
is the unpleasant smell and other changes that a Jallalah animal possesses as a result of eating impurities. Hence, the
reason for the prohibition should be removed in order to change the status of the Jallalah animal from prohibited to
permitted. The quarantine process is therefore suggested as a mechanism of purification to eliminate the impurities
from the contaminated animals. Though the different periods for quarantine process have been given by the jurists, yet
the strong opinion agreed upon among the Islamic jurist is that there is no definite measure or period regarding the
purification period [116-117]. The important matter in this regard is that the Jallalah animal shall be purified, it does
not matter how many days it takes.
8. Conclusion
After an overview of the globally manufactured feed, its ingredients, global standards and regulations, the Halal and
Tayyib integrity concerns, different views of classical Islamic Schools of thought, sanctity of halal logo, global Halal
standards and the concept of Jallalah, following points are concluded as findings of this whole discourse. The following
points are in-line with the halal certification to ensure the integrity of the halal logo on animal feed. The classical juristic
adjudication on the other hand professes softer and easier outcomes as has been stated earlier.
Animals are not the direct addressees of Quran and Sunnah; therefore, they are not supposed to follow any code
of religion. They are free to live and consume the way they like; in addition, Islam holds mankind responsible
for their welfare and rights. Animal feed becomes an important subject for Islamic Jurisprudence only when the
matter comes to the food animals.
Islamic Concept of food is based upon Tayyib (food safety); therefore, any ingredient in animal feed which
resultantly causes hazards to human health shall be deemed non-halal. The burden of responsibility to affirm
anything injurious to health lies on the shoulders of feed scientists and the concerned experts.
All the mineral based feed ingredients are halal unless held hazardous to human health, hereafter; di-calcium
phosphate, marble powder, limestone etc. may be used in the manufacturing of animal feed as long as these are
not considered injurious to human health.
Fundamentally all the agro based feed ingredients are halal unless deemed hazardous to human health.
Distillers' dried grains with solubles (DDGS) that come as a byproduct of alcoholic beverage industry shall be
held non-halal.
Ingredients derived from aquatic animals for animal feed are halal unless held hazardous to human health. In
this regard, fish meal is rendered halal.
Ingredients derived from amphibious animals for animal feed are held non-halal.
Ingredients derived from halal terrestrial, or ariel animal being slaughtered in compliance with Islamic
slaughtering rules are halal to be used in animal feed except blood. Blood derived ingredients are held non-
halal. Ingredients derived from other than halal animals or from halal animals not slaughtered in accordance
with Islamic rules shall be considered non-halal. In this regard, blood meal is rendered non-halal, while bone
meal and meat meal derived from the halal animal with the said condition are deemed halal. Same is the case
in poultry by-products meal, only halal slaughtered poultry by-products meal is rendered halal with the
exception of blood. All these ingredients are deemed halal provided that they must not cause harm to the human
health.
GSC Advanced Research and Reviews, 2022, 11(01), 037069
64
Jallalah animals shall be kept under quarantine process prior to consumption.
To conclude the whole discourse, it can be asserted that the feed of the animal must be from Halal source and is of such
nature that it must not cause harm to the animal and resultantly to the human being.
Compliance with ethical standards
Acknowledgments
The authors would like to thank Dr. Abid Masood, technical advisor Halal Food Council of Europe, Mufti Yousuf Abd ul
Razaq, CEO SANHA Halal Associates Pakistan and Dr. Mufti Syed Arif Ali Shah, Certification Manager SANHA Halal
Associates Pakistan for their valuable support.
Disclosure of conflict of interest
The authors have no competing or conflict of interest.
References
[1] Canadian Council on Animal Care. CCAC guidelines on: the care and use of farm animals in research, teaching and
testing [Internet]. Ottawa: Canadian Council on Animal Care; ©,2009 [cited 2022 Feb 20]. Available from:
https://ccac.ca/Documents/Standards/Guidelines/Farm_Animals.pdf
[2] Coffey D, Dawson K, Ferket P, Connolly A. Review of the feed industry from a historical perspective and
implications for its future. J Appl Anim Nutr. 2015; 4:1-11.
[3] Malomo GA. , Ihegwuagu NE. Some Aspects of Animal Feed Sampling and Analysis. In: Stauffer, MT, editor. Ideas
and Applications Toward Sample Preparation for Food and Beverage Analysis [Internet]. London: IntechOpen;
2017 [cited 2022 Feb 20]. Available from: https://www.intechopen.com/chapters/57363 doi:
10.5772/intechopen.70856.
[4] Lefferts L, Kucharski M, McKenzie S, Walker P. Feed for food producing animals: a resource on ingredients, the
industry, and regulation [Internet]. Baltimore; The Johns Hopkins Center for a Livable Future; ©,2007 [cited
2022 Feb 20]. Available from: https://clf.jhsph.edu/sites/default/files/2019-05/animal_feed.pdf .
[5] Product Environment Footprint Category Rules. Feed for food producing animals [Internet]. Luxembourg;
European Comission; ©, 2018 [cited 2020 Feb 20]. Available from:
https://ec.europa.eu/environment/eussd/smgp/pdf/PEFCR_feed.pdf
[6] Association of American Feed Control Officials. Animal Feed Labeling Guide [Internet]. Champaign; Association
of American Feed Control Officials (AAFCO); ©, 2018 [cited 2020 Feb 20]. Available from:
http://otscweb.tamu.edu/Laws/PDF/AAFCO_Labeling_Guide.pdf
[7] Schoeff RW, Fairchild FJ, Bursiek B, Castaldo D. History of the formula feed industry. In: Schofield EK, editor. Feed
manufacturing technology V. 5th ed. Arlington, VA: American Feed Industry Association; 2005. p. 211.
[8] Armsby HP. Principles of Animal Nutrition. 3rd ed. New York: John Wiley and Sons, Inc.; 1908. p. 312315.
[9] Henry WA. Feeds and Feeding: a hand book for student and stockman. Madison, WS; The author; 1898. p.171.
[10] Pederson J. Purina Mills, Inc. History. In: the author, editor. International directory of company histories Vol 32.
Detroit, Mich.: St. James Press. 2000; p. 376-379.
[11] International Feed Industry Federation. Annual Report 2020/21 [Internet]. Luxembourg; International Feed
Industry Federation (IFIF), ©, 2021 [cited 2021 Feb 20]. Available from: https://annualreport.ifif.org/wp-
content/uploads/Annual-report-2020-21-download.pdf
[12] Alltech. 7th Annual Global Feed Survey. [Internet]. Lexington; Alltech, ©, 2018 [cited 2020 Feb 20]. Available
from: https://go.alltech.com/hubfs/GFS2018%20Brochure.pdf?hsCtaTracking=a5b7e25c-9ffc-49fa-9155-
172c7eb289f7%7C0bb51f65-30c4-40e0-b48b-76a14eacf4d3
[13] Wet WD. Chairman’s report 2018/2019 [Internet]. Pretoria; Animal Feed Manufacturers Association (AFMA), ©,
2019 [cited 2021 Feb 20]. Available from: https://www.afma.co.za/download/chairmans-report-2020
21/?wpdmdl=10261&refresh=624735a4d46a81648833956
GSC Advanced Research and Reviews, 2022, 11(01), 037069
65
[14] Alltech. 8th Annual Global Feed Survey. [Internet]. Lexington; Alltech, ©, 2019 [cited 2020 Feb 20]. Available
from: https://www.alltech.com/sites/default/files/2019-01/GFS_Brochure_2019_English%20FINAL.pdf
[15] Hsu H, Lopez M. China. Washington DC: USDA; 2000.
[16] Feltenstein A, Ha J. China-Animal feed sector study.[Internet]. China; The World Bank, ©, 1993 [cited 2020 Feb
20]. Available from: https://documents1.worldbank.org/curated/en/711281468011120155/pdf/multi-
page.pdf
[17] National Bureau of Statistics of China. China statistical yearbook. China: China Statistics Press; 2014.
[18] Enting I, Wang B, Zhang X, Van Duinkerken G. The animal feed chain in China: opportunities to enhance quality
and safety arrangements. The Hague; Ministry of Agriculture, Nature and Food Quality, Netherlands; 2010.
[19] IBIS World. Animal Food Manufacturing in China: Market Research Report [Internet]. New york: IBIS World; ©
2022 [cited 2022 Feb 20]. Available from: https://www.ibisworld.com/china/market-research-reports/animal-
food-manufacturing-industry/
[20] Wan F. The Quest to feed China: First, feed the animals. [Internet]. Forbes Asia; Forbes Magazine Inc, USA, ©,
2014 [cited 2020 Feb 20]. Available from: https://www.forbes.com/sites/fredawan/2014/10/21/feed-the-
animals/?sh=3c55b03834a3
[21] Cai H. Past and the future of the China feed industry: Presentation at Symposium, marking 20 years of Alltech in
China, Beijing. Lexington: Alltech; 2014.
[22] Blaustein L. Hit us where it hurts: China’s ban on U.S. agricultural products grows [Internet]. USA: Harris Bricken;
2014 [cited 2020 Feb 20]. Available from: https://harrisbricken.com/chinalawblog/chinas-ban-on-u-s-
agricultural-products-grows/
[23] Ferket P, Stark C. Report on recent Developments in Feed Technology. Raleigh: Dept of Poultry Science North
Carolina State University; 2011.
[24] Egan AR. Animal Nutrition and Feed Science. Engineering. 2017; 3(5): 5867.
[25] U.S. Department of Agriculture. The Formula Feed Manufacturing Industry, 1984 (SB-785). Washington DC: U.S.
Department of Agriculture, Economic Research Service; 1988.
[26] Bhosale SV, Bhilave MP, Nadaf SB. Formulation of fish feed using ingredients from plant sources. Res J Agric Sci.
2010; 1(3): 2847.
[27] Tanboly ES, El-Hofi M. KHORSHID. Recovery of cheese whey, a by-product from the dairy industry for use as an
animal feed. J Nutr Heal Food Eng. 2017; 6(5): 14854.
[28] Sapkota AR, Lefferts LY, McKenzie S, Walker P. What do we feed to food-production animals? A review of animal
feed ingredients and their potential impacts on human health. Environ Health Perspect. 2007;115(5):66370.
[29] Benbrook CM. Antibiotic drug use in US aquaculture. [Internet]. Sandpoint, Institute for Agriculture and Trade
Policy; © 2002 [cited 2021 Feb 20]. Available from: https://www.iatp.org/sites/default/files/421_2_37397.pdf
[30] Food and Agriculture Organization (FAO). China: Feed and Feed Ingredient Standards. [Internet]. Rome,
Aquaculture Feed and Fertilizer Resources Information System, FAO; © 2022 [cited 2022 Feb 20] . Available
from: https://www.fao.org/fishery/affris/feed-and-feed-ingredient-standards/china-feed-and-feed-ingredient-
standards/en/.
[31] Food and Drug Administration. Federal food, drug, and cosmetic act [Internet]. USA: Food and Drug
Administration (FDA); © 2022 [cited 2022 Feb 20]. Available from:
https://www.govinfo.gov/content/pkg/COMPS-973/pdf/COMPS-973.pdf.
[32] International Feed Industry Federation. Annual Report 2012/13. [Internet]. Luxembourg; International Feed
Industry Federation (IFIF); © 2021 [cited 2021 Feb 20]. Available from: https://ifif.org/wp-
content/uploads/2018/06/IFIF-annual-report-201213.pdf
[33] Decision Innovative Solution. U.S. Animal Food Consumption Report. [Internet]. Arlington: American Feed
Industry Association (AFIA); © 2022 [cited 2022 Feb 20]. Available from:
https://www.afia.org/pub/?id=49AB0CF7-F3ED-766D-F8F0-82EEB09179C8.
[34] Rich K. Industry & Trade Summary: Animal Feeds [Internet]. Washington, DC: U.S. International Trade
Commission (USITC); © 2022 [cited 2022 Feb 20]. Available from: usitc.gov/publications/332/pub3275.pdf
GSC Advanced Research and Reviews, 2022, 11(01), 037069
66
[35] Taylor MR, Tick JS. Post-market oversight of biotech foods. [Internet]. Washington, DC: Pew Initiative on Food
and Biotechnology; © 2003 [cited 2022 Feb 20]. Available from:
https://media.rff.org/archive/files/sharepoint/WorkImages/Download/RFF-RPT-biotechfood.pdf.
[36] National Agricultural Statistics Service. Acreage. [Internet]. Washington, DC: U.S. Department of Agriculture; ©
2005 [cited 2022 Feb 20] Available from: https://downloads.usda.library.cornell.edu/usda-
esmis/files/j098zb09z/794080336/g445cg31n/Acre-06-30-2005.pdf.
[37] Irshad A, Sharma BD. Abattoir by-product utilization for sustainable meat industry: a review. J Anim Prod Adv.
2015;5(6):68196.
[38] Center for Veterinary Medicine Office of Regulatory Affairs. Compliance Policy Guide 7126.24: Rendered Animal
Feed Ingredients. Rockville: Food and Drug Administration (FDA); 1988.
[39] Center for Veterinary Medicine Office of Regulatory Affairs. Report on the risk from pentobarbital in dog food.
[Internet]. Rockville: Food and Drug Administration (FDA); © 2002 [cited 2022 Feb 20]. Available from:
https://www.fda.gov/about-fda/cvm-foia-electronic-reading-room/food-and-drug-administrationcenter-
veterinary-medicine-report-risk-pentobarbital-dog-food.
[40] Association of American Feed Control Offcials (AAFCO). Official Publication. Champaign; Association of American
Feed Control Officials (AAFCO); 2004.
[41] Food and Drug Administration (FDA). Guidance for Industry 158: Use of Material From Deer and Elk in Animal
Feed. [Internet]. Rockville: Food and Drug Administration (FDA); © 2013 [cited 2022 Feb 20]. Available from:
https://www.govinfo.gov/content/pkg/FR-2003-09-16/pdf/03-23559.pdf.
[42] National Grain and Feed Association. FDA’s BSE-Prevention Regulations for Feed and Feed Ingredients.
[Internet]. Washington, DC: National Grain and Feed Association (NGFA); © 2011 [cited 2022 Feb 20]. Available
from: https://www.ngfa.org/wp-content/uploads/NGFA-BSE-Prevention-Feed-Guidance.pdf.
[43] Gill C.Top ten feed makers worldwide. Feed Manag. 2004; 56: p.38-40.
[44] US Department of Agriculture. The secretary’s foreign animal and poultry disease advisory committee’s
subcommittee report on measures relating to bovine spongiform encephalopathy (BSE) in the United States.
Washington, DC: US Department of Agriculture (USDA), 2004:p.2.
[45] Association of American Feed Control Offcials (AAFCO). Official Publication. Champaign; Association of American
Feed Control Officials (AAFCO); 2005.
[46] Food and Agriculture Organization (FAO). Animal Disease Outbreaks Hit Global Meat Exports [Internet]. 2002.
Available from: www.fao.org/newsroom/en/news/2004/37967/index.html
[47] Tacon AGJ, Metian M. Global overview on the use of fish meal and fish oil in industrially compounded aquafeeds:
Trends and future prospects. Aquaculture. 2008;285(14):14658.
[48] Audic J-L, Chaufer B, Daufin G. Non-food applications of milk components and dairy co-products: A review. Lait.
2003;83(6):41738.
[49] Bent S. Herbal medicine in the United States: review of efficacy, safety, and regulation. J Gen Intern Med.
2008;23(6):8549.
[50] Holmstrand H, Gadomski D, Mandalakis M, Tysklind M, Irvine R, Andersson P, et al. Origin of PCDDs in ball clay
assessed with compound-specific chlorine isotope analysis and radiocarbon dating. Environ Sci Technol.
2006;40(12):37305.
[51] Association of American Feed Control Offcials (AAFCO). Official Publication. Official Publication. Champaign;
Association of American Feed Control Officials (AAFCO); 2011.
[52] Waller JC. Byproducts and unusual feedstuffs. Feedstuffs. 2010;9:1822.
[53] Food and Drug Administration (FDA) Compliance Policy Guide 7126.31. The Use of Antibiotic Drug Residue By-
Products in Animal Feed” (Sec. 682.200), issued 10/1/82 [Internet]. 1982. Available from:
www.fda.gov/ora/compliance_ref/cpg/cpgvet/cpg682-200.html
[54] Food and Drug Administration (FDA) Compliance Policy Guide 7126.41. Direct-Fed Microbial Products”(Sec.
689.100), issued 5/2/88 and revised 3/95 [Internet]. 1995. Available from:
www.fda.gov/ora/compliance_ref/cpg/cpgvet/cpg689-100.html
[55] Regulation EC. No 767/2009 of the European Parliament and of the Council of 13 July 2009 on the placing on the
market and use of feed, amending European Parliament and Council Regulation (EC) No 1831/2003 and
GSC Advanced Research and Reviews, 2022, 11(01), 037069
67
repealing Council Directive 79/373/EEC, Commission Directive 80/511/EEC, Council Directives 82/471.
EEC.;83(228):1-36.
[56] The European Feed Manufacturers' Federation. Annual Report 2017-2018. Bruxelles: The European Feed
Manufacturers' Federation (FEFAC); 2018.
[57] Naumova NA, Lukin AL, Erlikh VA. Quality and nutritional value of pasta products with added ground chia seeds.
Bulg. J. Agr. Sci. 2017;23:860-5.
[58] European Parliament and Council Regulation E. Legislation on Transmissible Spongiform Encephalopathies
(TSE) and on related feed and food controls European Parliament resolution of 6 July 2011 on EU legislation on
Transmissible Spongiform Encephalopathies (TSE) and on related feed and food controls. Off J Eur Union; 2011.
[59] EC-1774/2002. EC-1774/2002: Laying down rules for the prevention, control and eradication of certain
transmissible spongiform encephalopathies. Off J Eur Union; 2002.
[60] Malaysian Feed-Millers Association. Corn & animal feed & corn industry in Malaysia [Internet]. Malaysia:
Malaysian Feed-Millers Association, © 2017 [cited 2022 Feb 20]. Available from:
http://www.doa.gov.my/index/resources/aktiviti_sumber/sumber_awam/penerbitan/kertas_pembentangan/
seminar_jagung_bijian_2017/kertas_pembentangan13.pdf.
[61] Zia UE, Mahmood T, Ali MR. Dairy development in Pakistan. [Internet]. Rome: FAO; © 2011 [cited 2022 Feb 20].
Available from: https://www.fao.org/3/al750e/al750e.pdf
[62] Small and Medium Enterprises Development Authority. Prefeasibility study on animal feed mill. Lahore, Ministry
of Industries & Production Government of Pakistan; 2017.
[63] PS:2332012. Pakistan Standards: Poultry Feed (4th Rev). [Internet]. Karachi: Pakistan Standards & Quality
Control Authority (PSQCA); © 2012 [cited 2022 Feb 20]. Available from:
http://www.psqca.com.pk/cs/AGRICULTURE AND FOOD - 43/PS 233-2012 FOR Poultry Feed 4th Rev..pdf 2012.
[64] Den Hartog J. Feed for food: HACCP in the animal feed industry. Food Control. 2003;14(2):959.
[65] J. RP, Suhas SJ, K.S. A, Gaurav S, Chala ME. Contaminants and Toxins in Foods and Feeds. ournal Environ Sci
Technol. 2016; 2(1): 829.
[66] Bampidis VA, Nistor E, Nitas D. Arsenic, cadmium, lead and mercury as undesirable substances in animal feeds.
Sci Pap Anim Sci Biotechnol. 2013; 46(1): 1722.
[67] Van Barneveld RJ. Understanding the nutritional chemistry of lupin (Lupinus spp.) seed to improve livestock
production efficiency. Nutr Res Rev. 1999; 12(2): 20330.
[68] Mead PS, Slutsker L, Dietz V, McCaig LF, Bresee JS, Shapiro C, et al. Food-related illness and death in the United
States. Emerg Infect Dis. 1999; 5(5): 607.
[69] Crump JA, Griffin PM, Angulo FJ. Bacterial contamination of animal feed and its relationship to human foodborne
illness. Clin Infect Dis. 2002;35(7):85965.
[70] Jeffrey JS, Kirk JH, Atwill ER, Cullor JS. Prevalence of selected microbial pathogens in processed poultry waste
used as dairy cattle feed. Poult Sci. 1998;77(6):80811.
[71] Guchi E. Implication of aflatoxin contamination in agricultural products. Am J Food Nutr. 2015;3(1):1220.
[72] Kana JR, Gnonlonfin BGJ, Harvey J, Wainaina J, Wanjuki I, Skilton RA, et al. Assessment of aflatoxin contamination
of maize, peanut meal and poultry feed mixtures from different agroecological zones in Cameroon. Toxins (Basel).
2013; 5(5): 88494.
[73] Abdel-Wahhab MA, Kholif AM. Mycotoxins in animal feeds and prevention strategies: A review. Asian J Anim Sci.
2008; 2(1): 725.
[74] D’Mello JPF. Contaminants and toxins in animal feeds. In: Jutzi S, editor. Assessing Quality and Safety of Animal
Feeds. Rome: Food and Agriculture Organization (FAO); 2004, p.10728.
[75] Vasconcelos IM, Oliveira JTA. Antinutritional properties of plant lectins. Toxicon. 2004; 44(4): 385403.
[76] Monbaliu S, Van Peteghem C, De Saeger S. Detection and determination of natural toxins (mycotoxins and plant
toxins) in feed. In: Fink-Gremmels J, editor. Animal feed contamination. Philadelphia: Woodhead Publishing;
2012.p.286-325.
[77] Soetan KO, Oyewole OE. The need for adequate processing to reduce the antinutritional factors in plants used as
human foods and animal feeds: A review. African J food Sci. 2009; 3(9): 22332.
GSC Advanced Research and Reviews, 2022, 11(01), 037069
68
[78] Wallace RJ. Antimicrobial properties of plant secondary metabolites. Proc Nutr Soc. 2004;63(4):6219.
[79] Skutches CL, Herman DL, Smith FH. Effect of dietary free gossypol on blood components and tissue iron in swine
and rats. J Nutr. 1974;104(4):41522.
[80] Aletor VA. Allelochemicals in plant foods and feedingstuffs: 1. Nutritional, biochemical and physiopathological
aspects in animal production. Vet Hum Toxicol. 1993;35(1):5767.
[81] Jiao HC, Hou NN, Jiang MJ, Song ZG, Liu H. Effect of dietary free gossypol levels on liver gossypol accumulation,
performance, and egg quality of laying hens. Chin J Anim Nutr. 2015;27:320717.
[82] Kumar S, Verma AK, Das M, Jain SK, Dwivedi PD. Clinical complications of kidney bean (Phaseolus vulgaris L.)
consumption. Nutrition. 2013;29(6):8217.
[83] Glencross B. Understanding the nutritional and biological constraints of ingredients to optimize their application
in aquaculture feeds. In: Nates SF, editor. Aquafeed Formulation. Tokyo: Academic Press; 2016. p.3373.
[84] Krogdahl Å, Penn M, Thorsen J, Refstie S, Bakke AM. Important antinutrients in plant feedstuffs for aquaculture:
an update on recent findings regarding responses in salmonids. Aquac Res. 2010;41(3):33344.
[85] Tripathi MK, Mishra AS. Glucosinolates in animal nutrition: A review. Anim Feed Sci Technol. 2007;132(12):1
27.
[86] Rietjens IMCM, Martena MJ, Boersma MG, Spiegelenberg W, Alink GM. Molecular mechanisms of toxicity of
important food‐borne phytotoxins. Mol Nutr Food Res. 2005;49(2):131–58.
[87] Langer P. Naturally occurring food toxicants: goitrogens. In: Rechcigl S, editor. Handbook of Naturally Occurring
Food Toxicants. 1st ed. New York: CRC Press; 2018.p.10130.
[88] Boujon C, Serra F, Seuberlich T. Atypical variants of bovine spongiform encephalopathy: rare diseases with
consequences for BSE surveillance and control. Schweiz Arch Tierheilkd. 2016; 158(3): 1717.
[89] Colville JL, David LB. Zoonotic diseases: Bovine Spongiform Encephalopathy (mad cow disease. In: the author,
editor. Handbook of Zoonoses: Identification and Prevention. St. Louis: Mosby/Elsevier Inc., 2007.p.357.
[90] Bradley R, Collee J, Liberski P. Review articleVariant CJD (vCJD) and Bovine Spongiform Encephalopathy (BSE):
10 and 20 years on: part 1. Folia Neuropathologica. 2006;44(2): 93-101.
[91] Doherr MG, Zurbriggen A, Hett AR, Rüfenacht J, Heim D. Geographical clustering of cases of bovine spongiform
encephalopathy (BSE) born in Switzerland after the feed ban. Vet Rec. 2002;151(16):46772.
[92] Smith PG, Bradley R. Bovine spongiform encephalopathy (BSE) and its epidemiology. Br Med Bull.
2003;66(1):18598.
[93] Silva JF, Correia JJ, Ribeiro J, Carmo S, Orge L. Feline spongiform encephalopathy: first confirmed case reported
in Portugal. Cerebellum. 2006;3:x200.
[94] Saha UK, Sonon LS, Hancock DW, Hill NS, Stewart L, Heusner GL, et al. Common terms used in animal feeding and
nutrition. 2010;
[95] Avitech. Manufacturing A Quality Premix [Internet]. 2006. Available from:
http://www.thepoultrysite.com/articles/518/manufacturing-a-quality-premix/
[96] Schnepf R. US Livestock and poultry feed use and availability: Background and emerging issues. [Internet].
Washington DC: Congressional Research Service; © 2011 [cited 2022 Feb 20]. Available from:
http://nationalaglawcenter.org/wp-content/uploads/assets/crs/R41956.pdf
[97] Wenk C. Herbs and botanicals as feed additives in monogastric animals. Asian-Australasian J Anim Sci. 2003;
16(2): 2829.
[98] Gale F. Development of China’s feed industry and demand for imported commodities. [Internet]. Washington DC:
US Department of Agriculture (USDA); © 2015 [cited 2022 Feb 20]. Available from:
https://www.ers.usda.gov/webdocs/outlooks/36929/55490_fds-15k-01.pdf?v=1509.5
[99] SOR/83-593. Feeds Regulations, 1983 (SOR/83-593). [Internet]. Ottawa: Minister of Justice, Canada; © 2022
[cited 2022 Feb 22]. Available from: https://laws-lois.justice.gc.ca/PDF/SOR-83-593.pdf
[100] IS 2052 : 2009. Indian standard compound cattle feed (4th Rev). [Internet]. New Dehli: Bureau of Indian Standard,
India; © 2009 [cited 2022 Feb 22]. Available from: https://law.resource.org/pub/in/bis/S06/is.2052.2009.pdf
GSC Advanced Research and Reviews, 2022, 11(01), 037069
69
[101] IS 1374 : 2007. Indian standard poultry feeds-specification (5th Rev). [Internet]. New Dehli: Bureau of Indian
Standard, India; © 2007 [cited 2022 Feb 22]. Available from:
https://law.resource.org/pub/in/bis/S06/is.1374.2007.pdf
[102] Desilver D, Masci D. World’s Muslim population more widespread than you might think. [Internet]. Washington
DC: Pew Research Center; © 2017 [cited 2022 Feb 22]. Available from: https://www.pewresearch.org/fact-
tank/2017/01/31/worlds-muslim-population-more-widespread-than-you-might-think/
[103] Rudgard O. Islam will be largest religion in the world by 2070, says report. [Internet]. London: The Telegraph;
© 2017 [cited 2020 Feb 20]. Available from: https://www.telegraph.co.uk/news/2017/03/01/islam-will-
largest-religion-world-2070-says-report/
[104] Raheem SFU, Demirci MN. Assuring Tayyib from a food safety perspective in Halal food sector: a conceptual
framework. MOJ Food Process Technol. 2018;6(2):1709.
[105] Haapapuro ER, Barnard ND, Simon M. Animal waste used as livestock feed: dangers to human health. Prev Med
(Baltim). 1997; 26(5): 599602.
[106] Al Bukhari M. n.d. Al‒Adab‒ul‒Mufrid. Daar ul Tawqal Naijah, Beirut.
[107] Hammad N, al-Azhari BI al-H, Abu N. Penggunaan bahan-bahan yang haram & najis di dalam makanan & ubat-
ubatan. Kuala Lumpur: Al-hidayah Publishers; 2004.
[108] Shah SAA. Shariah Standards for Animal feed. [Internet]. Karachi: SANHA Halal Associates Pakistan (Pvt)Ltd.;
© 2017 [cited 2022 Feb 20]. Available from: https://www.sanha.org.pk/shariah-standard-animal-feeds
[109] Mesyuarat Jawatankuasa Fatwa Negeri Selangor “Status Kesucian Ikan Yang Diberi Makanan Tidak Halal”, Bil
(10) dlm. Mufti 500-3/2. Lihat juga, Kertas Kerja Untuk Pertimbangan Muzakarah Jawatakuasa Fatwa Majis
Kebangsaan Bagi Hal Ehwal Ugama Islam Malaysia, Kertas JKF bil; 2006.
[110] Kerajaan JM. MakanIkan yang DiberiMakanNajis. In: Penerbitan B, Penerangan, editors. Isu-isuproduk halal:
fatwa mufti kerajaan. Batu caves: Al-Hidayah House of Publisher, Brunei; 2012: 404.
[111] Ibn-e-Mandhur M. Lisan ul Arab. Beirut: Dar Kotob Ilmiyah (DKI), Lebanon; 2000.
[112] Saidin N, Rahman FA. Halal Feed for Halal Food: An Exploratory Study of the Malaysian Legal and Regulatory
Framework on Animal Feed. In: Manan SK, Abd Rahman F, Sahri M, ed(s). Contemporary Issues and Development
in the Global Halal Industry. Springer; 2016; 14151.
[113] Ministry of Awqaf and Islamic Affairs. Encyclopaedia of Islamic Jurisprudence. 45th ed. Kuwait: Ministry of Awqaf
and Islamic Affairs; 2007.
[114] Al-Zurqani M bin‘Abd al. Baqi. Sharah al-Zurqani ‘ala Muwatta’al-Imam Malik. Kaherah: Maktabah al-Thaqafah
al-Diniyyah; 2003.
[115] Wahbah A-Z. Al-Fiqh al-Islami WaAdillatuhu. 2nd ed. Damascus: Dar al-Fikr; 1984.
[116] Nawawi AZM. Al-Majmu’ Syarh al-Muhadhab li al-Syirazi. Jeddah: Maktabah al-Irsyad; 1990.
[117] Al-Akiti MA. Contaminated Animal Feed [Internet]. Online: IslamQA; © 2003 [cited 2022 Feb 22]. Available from:
https://islamqa.org/shafii/qibla-shafii/33278/contaminated-animal-feed-jalla-jilla-julla-wa-jallala.
[118] Lean IJ, Van Saun R, DeGaris PJ. Energy and protein nutrition management of transition dairy cows: Metabolic
diseases of dairy cattle. Vet. Clin. North Am. Food Anim. Pract. 2013, 29, 337366.
... Apart from that, the use of vegetable waste such as fine rice bran and soybean meal is also more beneficial for the environment and can be obtained at a cheaper price. The plant-based feed ingredients that have been used reach a presentation of 90% of the total feed formulation regardless of the region, however the high use of plant-based feed is also feared to result in an increase in anti-nutritional compounds which interfere with the absorption of nutrients in the feed [4]. Antinutrients in the form of phytate have quite a large negative effect on most animals, namely strong binding to minerals such as Fe, Zn, Ca, Mg, Mn, Cu, Se, and Ni, as well as protein and starch [5]. ...
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... According to ref. [28], showed not in every country, feed certification regulated as feed mill's commitment, although internationally accepted certification is required for feed mills to penetrate regional or international markets. A study of halal food [98] showed that feed is the preliminary control point of food supply chain; hence, it must use certified halal feed as the source of halal food products. It was emphasized that all halal feed additives used must not cause harm to human health. ...
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... Khususnya, hewan yang dibesarkan dan disembelih di peternakan Halal diperlakukan berbeda dan biasanya diberi pakan yang sehat. Tidak seperti peternakan komersial yang menggunakan banyak bahan kimia dan antibiotik, petani halal biasanya berpegang pada praktik etis untuk memberikan makanan yang higienis dan aman untuk digunakan (Rahim & Masood, 2022). b. ...
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