Friday, April 3, 2015

Farming ducks

Commercial meat ducks may be reared in indoor or outdoor systems. When the birds reach the desired weight at around 42 to 56 days old they are sent for slaughter.


Rearing systems

Indoor

The majority of commercial meat ducks reared in the UK are reared in indoor systems. Typically, several thousand birds are raised together within a building. Straw is usually provided to cover the floor.

Ducks are given specially formulated diets and are provided with access to water for drinking. However, farmed ducks may not be given access to an open water source for bathing, or if they do have an open water source, this may not be suitable.

Some ducks, particularly Barbary ducks, may have the ends of their bills trimmed to try to reduce the risk of any damage to other birds caused by pecking. However, the most commonly used breed of meat duck in the UK - the Pekin - is not beak trimmed.


Free-range

Birds are provided with housing similar to that described for indoor production, with the addition of access to an outdoor range area during the day.


End of rearing

Once birds reach the desired weight for slaughter of around 3.1 to 3.5 kilogrammes, usually at around 42 to 56 days of age, they are caught, placed in transport crates and transported to an abattoir for slaughter.


Numbers of farmed ducks

Around 14.3 million ducks (primarily a Pekin cross breed) were reared for meat in the UK in 2012¹.
¹FAOSTATS. (2014) Production: Livestock primary [online]. Rome. Food and Agriculture Organization of the United Nations: Statistics Division. [Accessed 13.10.14]


Breeds

The most commonly used breed of duck in commercial meat production in the UK is the domestic/common duck, in particular the Pekin.

Find out about some of the key welfare issues for meat ducks.
 
 
 
Publish Date: Feb 04, 2014
Rearing ducks is very good business
Recently, Benjamin Akena, a student of tourism at the university, sold 150 ducks and got sh2m. PHOTO/Jackie Nambogga
newvision
Vision Group in partnership with dfcu bank and the Netherlands Embassy in Uganda is searching for Uganda’s best farmers. Harvest Money is profiling nominated farmers every Tuesday until September when a panel of judges shall select Uganda’s best farmers. Sh150m and a fully sponsored trip to the Netherlands await the best farmers who will be announced in October.
By Jackie Nambogga
Many people dislike ducks because of their uncontrollable behaviour like dumping waste all over the place. By contrast, Benjamin Akena, the 22-year-old student of Makerere University (Jinja branch) pursuing a bachelor’s degree in tourism is proud of his ducks’ farm.
The project, which sits on a 100ftx50ft piece of land, fetches him enough money to cover both his tuition fees and other necessities. Akena’s project is located at his elder brother’s homestead in Triangle Zone, Njeru town council in Buikwe district.
How he started
Akena started rearing ducks during his Senior Six vacation in 2010. Initially, he kept ducks for home consumption, but his attitude changed after he visited his friend, Bob Otto, who owns a piggery and also rears ducks in Njeru town council.
Otto was earning millions of shillings from his ducks and Akena felt an irresistible urge to follow suit. “We used to eat the eggs for breakfast and reared ducks for meat, but when I told my brother Lalobo how Otto’s project was faring, he bought the idea and discouraged me from giving the family the eggs and ducks for meat. This is how I managed to multiply the numbers in a short time,” he says.
Running the farm
Since ducks need plenty of water to survive, Akena constructed a pond for them on the same small piece of land. He uses a water pump to channel the water into the pond. The dirty water in the pool is not wasted. Every after three days, Akena uses the water to irrigate the flowers and the grass in the compound. To mow the grass, Akena uses a tractor and a manual mower.
The tractor cuts and pelts the grass into small pieces, making it easy for the ducks to feed on. Akena improvised a five-litre jerryycan, which he fixed on the mower, to act as a grass harvester.
The grass which is not used to feed the ducks is used as mulch in the flower gardens Akena also improvised a candler, which he uses to test the eggs during the first week of the brooding period to establish if the embryo is forming or not. The candler contains a florescent bulb, which is enclosed into a long paper-like tube.
He powers the candler with a generator. Unlike chicken eggs, which take 21 days to hatch, those of ducks take about 35. Akena manages his project alone because it does not require much effort.
Unlike chicken which are highly susceptible to diseases, Akena says ducks are rarely attacked by disease. “I have never bought any drugs for my ducks all these years. This is a good venture because it is not expensive and tiresome compared to rearing chicken,” he says.

The swimming pool Akena constructed for his ducks

Market linkages
Akena, who started with 12 ducks in 2010, now boasts of 233.Of these, 150 are female A mature female duck costs sh15,000, while a male duck goes for between sh20,000 to sh30,000, depending on the size. He also sells ducklings at sh10,000 each.
Most of his clients are from Nwoya district, where duck meat is on high demand. Recently, he sold 150 ducks and bagged sh2m. If well-fed, ducks lay between 15 to 20 eggs per month.
A a tray of duck eggs goes for about sh11,000. Most of his clients who buy eggs are chapatti and cake bakers within the area. “I have a female client who bakes cakes and pays for the eggs in advance. The demand for eggs is so high compared to my production,” Akena laments.
He earns between sh50,000 and sh80,000 weekly from eggs alone.
Investing in knowledge
Akena does not miss New Vision’s pull-out Harvest Money published every Tuesday, which he confesses has given him a lot of information on farming. “My brother buys New Vision every day, but he makes sure that he keeps for me that of Tuesday because I must read Harvest Money,” he says.
In July last year, Akena bought two geese (a male and female), popularly known as water fowl, from Kenya at sh300,000. This was after he researched on the Internet and discovered that goose meat was on high demand in Kenya, the United States of America and France.
“I am trying to multiply the geese as I did with my ducks. Recently, the female goose laid seven eggs, but it failed to hatch any due to poor brooding,” he says.
However, when he discovered that one of the eggs was still good, he gave it to a duck which was brooding and it hatched an offspring.
Achievements
Akena says he does not feel the pinch to fuel the motorcycle he uses to go for lectures. “I used to incur high transport costs to attend lectures, but ever since my mother, Lucy Uma, a retired nurse, gave me the motorcycle she used to ride while going to work, transport is no longer a big challenge.
Akena went to Negri P/S in Gulu district and to Kalinabbiri P/S, where he completed his Primary Seven. Later, he joined St. Lawrence SS in Kampala for his O’ and A’level.

Akena mowing the grass in the family compound. He uses the grass to feed the ducks
*********************
The economics of rearing ducks (By online sources)
Rearing ducks is a well-paying venture, especially because there is a high demand for their eggs and meat. There are also several advantages that accrue to farmers rearing ducks. For starters, ducks are rarely attacked by infections like other poultry breeds as long as they are kept in the right environment.
Ducks are great rummagers and are quite happy to eat the snails, flies and bugs in your garden and compound. Unlike raising chickens, ducks will not destroy your flowers or your vegetables if you let them loose in your garden.
Ducks are a vital player in the farm’s ecology by eating snails, slugs and other bugs in your vegetable garden. They also provide rich manure to enrich your soil.
However, foraging for food is not enough for a duck if you want it to be a good layer and a fat bird for your table. You will need to supplement their diet with chopped tomatoes, maize bran, duck marsh or remains of foods from a meal.
A farmer should also make sure he provides his ducks with lots of fresh drinking water, which is an absolute requirement. A clean bucket of water each day allows the ducks to drink and wash, if you can get a suitable automatic drinker, big enough for the ducks to immerse their heads, then that is even better.
A farmer should note that a duck that does not have access to water to clean its eyes on a regular basis will go blind. Where possible, create a pond for the ducks to swim and play in.
If ducks do not have access to water, they start showing abnormal behaviour and may fly off in search of water and never come back. Clean the ponds regularly.

The pump Akena uses to feed water to the ducks’ swimming pool
If the pond is costly to sink, then one can sink an old plastic or metalling drum. However, make sure that you construct it in such a way that all ducks and ducklings can get access it easily. When it comes to housing, the other thing to note with ducks is that they cannot climb.
Therefore, it is important that the door of the house is low enough for the ducks to go through easily. Ducks are also good at laying eggs and if one has a good breed one can get up to 200 eggs per year per bird if it is fed well.
Ducks start laying eggs at around six months of age. If you are going to let your ducks hatch their eggs naturally be carefully and do not touch the eggs of change the nest when it starts laying eggs. In cases where it leaves the eggs you can still hatch them by putting them under a brooding chicken.
However, due to the large size of the duck eggs a chicken can only comfortably sit on seven to 10 duck eggs. You will need to make sure that the eggs are sprinkled with water regularly, especially towards the last few days. Ducks fatten fast and can be ready for eating after three months.
If well-fed, ducks can weigh up to 5kg in six months. One thing that you need to know is that the ducks reach a time when they stop adding on weight, however much you feed them. This stage is called the moulting stage.
Dairy goat farming in Kenya is emerging as a high-return option for Kenyan small-scale farmers, although it remains hobbled in some regions by marketing and distribution challenges, even as the sector soars in other nearby regions.
Promotion of Dairy goats in Kenya started way back in the 1950’s by white settlers but it was not until 1980’s that Germany sponsored an integrated small livestock project that scaled the activities around Mt. Kenya.  As the project winded up in the year 1993, farmers came together through registered groups and formed the Dairy Goats Association of Kenya (DGAK) for sustainability of dairy goat projects.  The project targeted small scale farmers with little sizes of land that could not sustain large stock and since then DGAK has spread over the country including western Kenya.
Dairy goat in Kenya that produces 5 L of milk per day
It is one of the easiest types of dairy farming and therefore good for farmers in the urban and peri-urban areas. Goats do not require one to own a big land to rear them and they are less expensive to buy as compared to cattle.The goat’s prices depend on the age, type and gender.
Why goat farming?
Dairy goat farming is an important enterprise especially for farmers with small parcels of land. Goat’s milk has much more benefits compared to cow’s milk. A goats milk is considered more easily digestible, the milk fat globules in goats milk are smaller than those in the cow’s milk, calcium content are higher in goat’s milk and iron contents lower in goat’s milk. The goat’s milk is also richer in most vitamins than cow’s milk.
Dairy Goat Farming in Kenya
Dairy Goat Farming in Kenya
Types of dairy goats reared in Kenya
The common breeds of dairy goats in Kenya even though are foreign breeds are Toggenburg, Boer, Saanen, British Alpine, German Alpine, Anglo Nubian, Angora, Oberhauzen. These goats survive on different climatic conditions. It is best for one to contact the Local Livestock Production Experts on the most suitable breeds or cross-breeding program in your area.
Feeding the dairy goat.
All the goat requires is good health for better yields. Good feeding increases milk production. Dairy goats can feed on the following: Calliandra, leucena, desmodium, mulbury, nappier grass, rhodes grass, sweet potato vines, fodder trees, hay…
Hay. Dried feed
The feed should be chopped and the goat should be given clean water and enough mineral salts. The mineral block should be kept dry. A healthy goat will produce an average of 4litres of milk every day.
Housing
Good housing keeps the goats healthy. It should have a raised floor to keep the goats dry and the roof not leaking. The feeding troughs should be easy to clean.
Raised goats house
Worms and pneumonia are the most common diseases on the goats. The symptoms of worms are worms or eggs in the goat’s stool, poor health and low milk production or a thin or poor coat. This is normally treated by de-worming. If the goat is sneezing, coughing has heavy breathing and tends to isolate itself from others, consult a veterinary because these are symptoms of pneumonia. Also ensure that the goats are free from ticks and fleas. If you spot them or realize that the goat keeps rubbing itself or looses hair by tail, spray the goat, the house and the surrounding. Also spray any new goat coming into the house.

More about dairy goat farming in Kenya

Unlike local goats, dairy goats are bred for milk production and can produce up to 10 times that of the locals. They multiply fast, kidding twice a year often producing twins or triplets. The quality of milk and the prices are higher than a cow’s milk.
You require only a half hectare of Elephant (nappier) grass (penisetum puperum) grass to support five dairy goats. Establish a source of fodder by planting or buying fodder locally. Fodder should make the bulk of goat feed. Supplement feeds such as legume species commonly used as pasture or fodder in Kenya like Calliandra, Leucaena, Desmodium, grains and milling by-products, minerals, and molasses provide essential nutrients, such as protein, energy and minerals, to support milk production. If possible grow fodder shrubs around the edges of the plot. The fodder should be able to last a whole year. Other feeds include maize stover, sweet potato vines, banana peels and weeds. Preserve feeds when in surplus in form of hay, dried fodder legumes, leaves and maize stover.
Before buying and moving your goats, consult with the nearest veterinary or livestock office for suitable breed of dairy goats to your area and information on vaccinations against contagious caprine pleuropneumonia (CCPP), pulpy kidney, tetanus and orf.
Construct a good house with raised slatted floor, good ventilation, feed and water troughs.
Feeding the goats
Ensure you are feeding sufficient forage and supplements for high level of milk production.
Provide roughages (like Napier grass) and supplements. Napier grass should be chopped into approximately 3-cm-long pieces. Energy supplements include molasses, cereals or milling by-products (bran, pollard). Protein supplements include cotton seed cake, Calliandra leaves, Leucaena leaves, sweet potato vines, Desmodium, fishmeal and dairy meal.
A simple supplement can be made at home. For every 6 scoops of whole cereal grains, add half a scoop of fishmeal or any of the following: cotton seed cake, Calliandra leaves, Leucaena leaves, sweet potato vines or Desmodium. Finally add a tablespoonful of mineral mixture. Mix well before feeding.
Increase supplement by ½ kg per day during the last month of pregnancy. When in milk, allow ½ kg of supplement for every 3 litres of milk produced.
Breeding of dairy goats

Identify a good breeding male goat which has no deformities, with two well-developed testicles, strong feet and legs, good body condition and high libido. Libido is observed by the ability of the male to vigorously detect and mate with females on heat. These qualities will ensure successful mating.
One male is needed for every 25 females. This male can be communally owned provided sexually transmitted diseases and other communicable diseases such as brucellosis are controlled.
Mate females two months after kidding. Introduce a male and leave it with the female goats for 2 to 3 weeks. If possible mate all your female goats at the same time to ensure kids are born at the same time and therefore ease management.
Breed females when in good body condition. Select those with a soft udder, two functional teats and strong teeth and legs. Manage reproduction in goats ensuring that first mating should be about 16 months of age because breeding too early can result in weak kids and stunted females.
On average birth occurs 150 days after mating. Watch your goat closely one week before kidding in case of any problems.
Replace breeding animals at 9 years of age or earlier if they fail to become pregnant. Organize for a periodic male exchange program to prevent inbreeding.
Rearing the kids
Ensure the newborn kid suckles immediately after birth. The goat’s first milk helps protect the kid from diseases, gets its digestive system working and is especially nutritious. Disinfect the umbilical cord immediately after birth with iodine solution or diluted disinfectant to avoid infection. House both mother and kid in a dry, well-ventilated and secure house.
Allow half to one litre of milk per day for the kid, depending on size. Wean at 3 months.
Introduce kids to roughage (chopped Napier grass, maize stover) by the second week and supplements (0.25 kg per day) by the fourth week.
Controlling internal and external parasites
Deworm all adults before mating, all females 2 weeks before kidding, kids at weaning (3 months of age), and all animals before the start of the rainy season.
Use recommended sprays, pour-ons and powders to control external parasites such as Fleas, ticks, mites and lice.
Vaccinations
Vaccinate goats against the highly contagious disease goat pneumonia (CCPP),  pregnant females against pulpy kidney and tetanus 2 to 3 weeks before kidding and vaccinate kids at 6 months of age. Vaccinate against orf (scabby mouth disease) at 2 months of age. Orf can affect goat handlers therefore wear protective clothing, such as overalls, when handling your goats and wash your hands well with soap and water afterwards.
Marketing goat milk

Local markets are readily available for goat’s milk. Obtain market information on demand for goat’s milk or create demand by telling people about benefits of goat’s milk. Try local hospitals, children’s homes and individual households. You can make added-value products such as cheese,  maziwa mala or yoghurt.
You can also sell goats for profits which are currently very marketable and high in demand.

Comparison of ingredient usage and formula costs in poultry feeds using different amino acid digestibility databases

  1. G. M. Pesti,2
+ Author Affiliations
  1. *Department of Animal Nutrition, Khyber Pakhtunkhwa Agricultural University, Peshawar, Pakistan
  2. Department of Poultry Science, The University of Georgia, Athens 30602-2772
+ Author Notes
  • 1 Visiting professor. Present address: Department of Poultry Science, The University of Georgia, Athens, GA 30602-2772.
  1. 2 Corresponding author: gpesti@uga.edu
  • Received December 15, 2011.
  • Accepted April 17, 2012.

SUMMARY

This study showed how using different database values for digestible amino acid contents influences ingredient usage and feed costs for broiler, layer, and turkey diets with recent ingredient costs from the United States and Pakistan. A series of feeds were formulated to compare results from using 2 commercial ingredient composition databases: Ajinomoto Heartland (AH; rooster assay values) and Evonik Degussa (ED; chick assay values). The ingredient composition matrix was based on NRC (1994) tables, except for digestible amino acids and protein. Requirements were for a broiler starter (Ross), broiler finisher (Cobb), turkey starter (Nicholas), turkey finisher (British United Turkeys), and leghorn prelay (ISA) and peak (Hy-Line) diets. Costs were local market prices in Pakistan (June 2010) and average US prices (2009). Formula costs were higher using the ED digestible amino acid values, ranging from $1.00/ton for the turkey finisher diet to $8.40/ton for the turkey starter diet. The broiler starter and finisher diets were $6.20 and $2.60/ton higher using the ED digestible amino acid values. Differences in formulation costs were due to higher levels of supplemental amino acids and soybean meal when using the ED database. The shadow prices of distillers dried grains with solubles ranged from $199.50/ton in the turkey starter diet, with AH digestible amino acid values, to $266.20/ton in the leghorn prelay diet, with AH digestible amino acid values. Not knowing the digestible amino acid levels in feed ingredients or choosing inappropriate digestible amino acid values may result (at least) in inefficiencies averaging $3.00 to $4.00/ton of finished feed for broilers, layers, and turkeys (approximately $6.00 for starter feed and $3.00 for finisher feed). Comparative values are similar for dollars and rupees. Differences in feed costs from using the different digestibility values can give an estimate of potential savings (costs) from using one particular database vs. the other. The cost difference may be used to demonstrate the magnitude of research monies that should be dedicated to estimating amino acid digestibility values most accurately.

Dirk Hoehler, A. Lemme, V. Ravindran, W.
L. Bryden and H. S. Rostagno. 2006. Feed Fo
rmulation in Broiler Chickens Based on Stan
dardized
Ileal Amino Acid Digestibility. En: Editores:
L. Elizabeth Cruz Suárez, Denis Ricque Marie, Mireya Tapia Salazar, Martha G. Nie
to López,
David A. Villarreal Cavazos, Ana C. Puello Cruz y Armando García
Ortega. Avances en Nutrición Acuícola VIII .VIII Simposium Int
ernacional
de Nutrición Acuícola. 15-17
Noviembre. Universidad Autónoma de Nuev
o León, Monterrey, Nuevo León, México.
ISBN 970-694-333-5.
197
Feed Formulation in Broiler Chicke
ns Based on Standardized Ileal
Amino Acid Digestibility
Dirk Hoehler
1
, A. Lemme
2
, V. Ravindran
3
, W. L. Bryden
4
and H. S. Rostagno
5
Degussa Corporation, Feed Additives
1
1701 Barrett Lakes Blvd., Suite 340
Kennesaw, GA 30144, USA
Phone: 678-797-4326
Fax: 678-797-4313
E-mail: dirk.hoehler@degussa.com
Homepage: http://www.aminoacidsandmore.com
Degussa AG, Feed Additives
2
63457 Hanau, Germany
Institute of Food, Nutrition and Human Health
3
Massey University, Palmerston North
New Zealand
School of Animal Studies, University of Queensland
4
Gatton QLD 4343, Australia
Departamento de Zootecnia
5
Federal University of Vicosa
Vicosa, Brazil
Summary
Analysis of ileal contents rather than excreta is a mo
re reliable method for assessing amino acid digestibility in
poultry. Debate will continue among nutritionists about the re
lative merits of apparent a
nd true digestible amino acid
systems. However, there is no doubt that all digestible amino systems are superior to the use of total amino acids in
feed formulations. Present methods
of evaluating amino acid availability
have specific applications and
shortcomings. Standardized ileal digestibility is discusse
d as the concept of choice and some areas for future
research are highlighted. Performance data in growing broiler chicks demonstrate the advantages of feed formulation
based on standardized ileal digestibility
of amino acids in feed ingredients.
Dirk Hoehler, A. Lemme, V. Ravindran, W.
L. Bryden and H. S. Rostagno. 2006. Feed Fo
rmulation in Broiler Chickens Based on Stan
dardized
Ileal Amino Acid Digestibility. En: Editores:
L. Elizabeth Cruz Suárez, Denis Ricque Marie, Mireya Tapia Salazar, Martha G. Nie
to López,
David A. Villarreal Cavazos, Ana C. Puello Cruz y Armando García
Ortega. Avances en Nutrición Acuícola VIII .VIII Simposium Int
ernacional
de Nutrición Acuícola. 15-17
Noviembre. Universidad Autónoma de Nuev
o León, Monterrey, Nuevo León, México.
ISBN 970-694-333-5.
198
Introduction
It is known that a proportion of dietary amino ac
ids is excreted undigested and that individual
raw materials differ widely in this respect. Thus,
the higher the inclusion levels of raw materials
with low amino acid digestibility in diets formulat
ed on the basis of total amino acids, the less
reliable will be the prediction
of performance (Esteve-Garcia
et al.
, 1993; Fernandez
et al.
, 1995;
Pertillä
et al.
, 2001a). In this situation, costly safety
margins are usually applied to avoid
potential reductions in performance.
Knowledge of digestibility coefficients (DC) fo
r individual amino acids in
raw materials and the
requirement of digestible amino acids for a
defined production target (such as maximising
growth, breast meat yield and/or
profitability, or minimising feed
conversion ratio and/or feed
costs per kg gain or breast meat)
therefore enables formulation of
diets closer to the requirements
of the animals. Diets based on digestible amino acids may encourage the use of alternative
protein sources, because such formulations will
improve the precision of least cost diets and
reduce nitrogen output from poultry operations. Fina
lly, diet formulations on a digestible amino
acid basis may also offer economic benefits (Rostagno
et al.
, 1995).
A large volume of published data on the amino aci
d digestibility of raw
materials for poultry is
available, but there is consider
able confusion in the terminology
used due to differences in the
methodology employed for determining the DC
(Ravindran and Bryden, 1999). The different
methodological approaches of assessing amino aci
d digestibility are br
iefly reviewed, with
emphasis on ileal digestibility. The need for
correcting digestibility estimates for endogenous
amino acid losses will be highlighted, followed
by a discussion on the measurement of inevitable
losses. Finally, the concept of ‘standardizing’ il
eal digestibility values by correcting for basal
endogenous amino acid recoveries will be introduce
d, along with a table of “Standardized Ileal
Amino Acid Digestibility for Broilers” for a range of raw materials.
What is Digestibility?
Digestibility can be defined as th
e fraction of a certain nutrient i
ngested with the diet that is
absorbed by the bird, i.e. not excreted in the f
aeces. Digestibility can therefore be calculated by
measuring dietary amino acid input (AA
diet
) and excreta amino acid output (AA
excreta
) as follows:
Digestibility (%) = ((AA
diet
– AA
excreta
)/AA
diet
) x 100
The assay of digestibility has
become the most favoured techni
que for estimating amino acid
availability. Digestibility assays may be separa
ted into two main categories: excreta and ileal
digestibility. Excreta digestibility involves the co
llection of excreta from intact or caecectomized
birds. For measurement of ileal di
gestibility, the digesta are collected
from the distal part of the
ileum. The latter method is technically more
complex, but it eliminates some confounding
factors.

Cattle Egret - Bubulcus ibis

Characteristics
Range
Habitat
Diet
Life Cycle
Behavior
 Classification

 Phylum: Chordata
 Class: Aves
 Order: Ciconiiformes
 Family: Ardeidae
 Genus:  Bubulcus

Cattle Egret
Click on the images for a larger view.
  Characteristics
Cattle EgretThe cattle egret is a small white heron about 19-21 inches in length with a wingspan of about three feet. It often looks like it is hunched over. It has short legs and a thick neck compared to other species of egrets. Adults have dull yellow or orange bills and dull orange legs. Immature cattle egrets have black legs and bills. During breeding season it has a brownish crown and chest and its eyes, legs and bill are red.
  Range
The cattle egret breeds from California east to the Great Lakes and Maine and south to the Gulf Coast. It is also found in the tropics, South America, Europe, Asia, Australia and Africa. The cattle egret is a non-native species in North America. It probably flew to South America from Africa and then moved up to the United States.
  Habitat
The cattle egret is most often found near farmland and livestock. It also can be found in wetlands.



  Diet
In Africa, the cattle egret eats insects that are stirred up by wild animals. They have adapted to following animals like cows in North America and eating insects like grasshoppers, crickets, spiders, and flies that are disturbed by the livestock.
  Life Cycle
Cattle EgretMales claim territory before mating begins. They will go through a variety of display behaviors to attract females. Females will gather in their territory and sometimes jump on the backs of the males. Eventually, the male will evict all but one female. Both the male and the female work on building a nest. The male brings the materials, sometimes stealing sticks from the nests of other egrets. The female constructs the nest. The nest is made of sticks and is built in a bush or a tree. The female lays three to five eggs and both parents incubate the eggs. The chicks hatch in between three and four weeks and fledge when they are a month old. Both parents care for the chicks. Cattle egrets nest in colonies with other species of egrets.
  Behavior
Cattle egrets are very social. They gather in large colonies of cattle egrets and other bird species. In addition to following livestock, they also follow farm equipment like tractors to catch insects that are disturbed.

Image Credits: Clipart.com unless otherwise noted

Cattle Egret

Bubulcus ibis ORDER: PELECANIFORMES FAMILY: ARDEIDAE
IUCN Conservation Status: Least Concern
The short, thick-necked Cattle Egret spends most of its time in fields rather than streams. It forages at the feet of grazing cattle, head bobbing with each step, or rides on their backs to pick at ticks. This stocky white heron has yellow plumes on its head and neck during breeding season. Originally from Africa, it found its way to North America in 1953 and quickly spread across the continent. Elsewhere in the world, it forages alongside camels, ostriches, rhinos, and tortoises—as well as farmers’ tractors.
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Herons
Herons
Typical Voice
  • Size & Shape

    Compared with other herons, Cattle Egrets are noticeably small and compact. They have relatively short legs and a short thick neck. The straight, daggerlike bill is shorter and thicker than other herons. They have medium-length, broad, rounded wings.
  • Color Pattern

    Adult Cattle Egrets are all white with a yellow bill and legs. In breeding plumage they have golden plumes on their head, chest, and back. Juveniles have dark legs and bill.
  • Behavior

    Cattle Egrets stalk insects and other small animals on the ground in grassy fields. They are much less often seen in water than other herons. They nest in dense colonies of stick nests in trees or emergent wetlands, often mixed with other species of herons.
  • Habitat

    They forage in flocks in upland areas such as pastures and fields, generally focusing on drier habitats than other species of white herons.

Range Map Help

Cattle Egret Range Map
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Similar Species

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Similar Species

  • Snowy Egrets are taller and more slender than Cattle Egrets. They have longer legs, neck, and bill, and have black bills and blackish legs contrasting with yellow feet. Snowy Egrets are usually found in wetter habitats than Cattle Egrets. Great Egrets are much larger than Cattle Egrets and their very long legs are black. In flight, Great Egrets show a much slower, deeper wingbeat than Cattle Egrets. Immature Little Blue Herons are mostly white, but they are more slender than Cattle Egrets, with greener legs and more grayish-green at the base of the bill.

Find This Bird

To find Cattle Egrets, head to agricultural areas near wetlands. These are tropical herons, so your best chances will be in warm parts of the southern U.S. Seeing Cattle Egrets is not difficult once you find the right habitat—they usually walk around in the open, on dry land, as they hunt grasshoppers and other small animals. True to their name, Cattle Egrets often associate with cows and other large farm animals, waiting to strike until the cow disturbs an insect or frog. Sometimes, Cattle Egrets even stand atop cows and horses, making them both easy to spot and easy to identify.