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How to Raise Pigs in an Odor free Piggery

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How to raise pigs in an easy to manage and odor free piggery through the Profitable Innovative Growing System or PIGS, a method of raising pigs in an environment that mimics their natural habitat, designed by ProNatural Feed Corporation. PIGS technology, unlike conventional piggeries, allows for stress free pigs that are less prone to sickness and diseases. Use Feedpro together with this natural hog raising technology to ensure that your hog business produces safe and healthy meat in a sustainable and eco-friendly manner. odor-free piggery Advantages of using Profitable Innovative Growing System (PIGS) - Solves bad odor and health risks in piggeries - Easier, cleaner, and cost-effective - Reduces antibiotic dependency in swine - Environment and community-friendly - Health protection for both humans and animals - Promotes humane animal treatment Guidelines in Constructing an Odorless Pigpen/ Odor-free Piggery - Avoid lowland where flood incidence is high during rainy season - Soil or earth flooring must be above the highest possible water level in case of flood - Piggery must have adequate wind and sunlight penetration - General bedding requirement is at least one and a half (1.5) square meters per pig - Place 2 to 3 foot deep newly milled rice hull or other organic materials above the earth/soil flooring to act as bedding for the pigs - Wallowing pond should be 1 meter wide spanning the length of the pen with water depth of 1 to 4 inches deep depending on the size of the pig - Feeding trough should be constructed opposite the wallowing pond and should be 11 inches from the wall of the pen - Use concrete hollow blocks for the lower fencing around the pen, for the wallowing pool, and feeding troughs - Use iron bars or matured bamboos as upper fencing to allow for wind to pass through and to prevent pigs from jumping out of the pen Managing an Odorless Pigpen/ Odor-free Piggery - Change the water in the wallowing pond everyday - Provide unlimited clean drinking water - Follow the prescribed feeding guide - After harvest, the rice hull bedding can be used as compost or plant fertilizer Watch the Video on How To Set Up PIGS Babuyang Walang Amoy Source: babuyangwalangamoy.com

DA-PCC adopts DNA marker technology to improve milk-producing carabao breeding

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The Department of Agriculture-Philippine Carabao Center (PCC) is adopting the DNA marker technology to improve its breeding program. milk-producing carabao That should contribute over the long term to raising the country’s milk production, according to PCC Supervising Science Research Specialist Jesus Rommel V. Herrera. The country is hardly a producer of milk and dairy products with importation around $500-$600 million yearly. “We will improve our selection scheme for dairy buffaloes by integrating DNA (deoxyribonucleic acid) markers. This is our future direction,” said Herrera. The high-tech breeding program is anticipated to reduce the time by which a milk-producing bull may be identified as superior. Bulls can already be identified as superior milk producer when these are two to three years old instead of six to eight years old. And the cost of breeding can be reduced by at least 50 percent. Cost of test for progeny (to determine offspring’s milking ability) alone is placed at 150,000 rand (P664,257) per bull by the Agricultural Research Council-Animal Production Institute. PCC’s work on “Buffalo DNA Markers Associated with Milk Yield and its Implications to PCC Buffalo Breeding” led by PCC Executive Director Libertado C. Cruz was presented at the Bureau of Agricultural Research’s (BAR) National Research Symposium (NRS). “We are supporting the promotion of excellent technologies through our NRS as venue since technologies like this molecular marker technique can in the future help us improve genetic quality dairy animals,” said BAR Director Nicomedes P. Eleazar. The Philippines infused purebred dairy buffaloes from Bulgaria as early as 1995 and from Brazil in 2010. These animals are used as source of genetic materials for crossbreeding the native animals to improve milk production potential. Traditionally, a good milking cow can be identified based on two to three lactation (milk production) records. That takes six to seven years. From selected cows, candidate semen donor bulls are subjected to progeny (offspring) testing, determining the production performance of the daughters. It is important to identify the superior bull as its semen will be used to cause through artificial insemination the reproduction of female offspring with high milk production ability. That takes a long time since the bull should be old enough to generate the female offspring. DNA markers Combined with lactation records of animals, PCC is using DNA markers to identify animals with favorable genotypes. The DNA marker is based on what is called single nucleotide polymorphism (SNPs). SNPs, pronounced snips, represents a genetic variation in the DNA building block that may indicate a particular difference of one animal from another. In this case, what is being looked for are genes believed to be linked with high milking ability and its related components. “We’re identifying water buffalo SNPs based on candidate genes from cattle that are associated with milk yield and milk component traits—milk fat and protein content,” said Herrera. PCC scientists--also including Amie S. Villanueva and Jennifer F. Maramba— identified selected genes earlier found in cattle to be associated with milk production trait. The cattle’s genome information has earlier been made the basis for this study since the buffalo genome is closely related to the cattle. For some time, the buffalo genome had not yet been sequenced. However, the International Buffalo Genome Consortium (IBGC) of which the Philippines is a member country, has completed the buffalo genome sequence in 2012. Primer design The researchers worked on a primer design and optimization of 114 DNA markers. PCC has to optimize primers first in the task of finding target molecular markers. Primers are short chemically-synthesized oligonucleotides needed for DNA replication. In the process of identifying animals with genes linked with high milk production, researchers also had to select unrelated cows. These cows come from the extremes of the population – not only those that have high but those with medium and extremely low milk production – just to make sure the gene is certainly identified only with high milking ability. It had to discard markers that obviously did not have association with milk production. But for those markers highly perceived to point to the gene of importance, it had to further test the presence of this gene on actual animals-- a larger number of animals at that. After having found 17 SNPs to have high association with high milk production, PCC studied the genotype—genetic makeup of a cell or organism such as of carabao-- of 350 animals to determine if they have these SNPs. Milk SNP markers PCC found out that the “combined effect of three SNP markers found in betalactoglobulin, protease inhibitor, and prolactin receptor genes have favorable association with milk yield, fat yield, protein yield, milk protein, and milk fat percentages,” Herrera said. After checking that bulls have the SNPs for good milk yield, these bulls are sent to bull farm for semen collection. PCC maintains semen collection facilities at PCC at University of the Philippines Los Banos campus and at PCC at Central Luzon State University campus. Their semens are used in artificial insemination to aid in the reproduction of daughters that will produce more milk. High milk production in dairy carabaos indicate milk harvest of 10 liters or more per day per cow. Other applications The initial success in using molecular markers to identify good breeds for milk production can in the future have an impact in related animal production functions. The same techniques can be applied in determining high milking ability in goat or dairy cattle or in determining good meat traits in beef cattle. But there are prerequisites to its application in other dairy animal types and uses. “You need a baseline for a national program on genomics’ application in other animals such as for goat, dairy cattle, or beef cattle,” he said. The country has also to train more people in the analysis of DNA information through the use of facilities such as microarray equipment. PCC now sources through private company Affymetrics the SNP chips which are a product of the IBGC buffalo genome sequencing. Instead of the analysis being done just one after the other for each of the 17 SNPs, this chip can analyze thousands of SNPs at the same time. In this project, around 50,000 SNPs are involved, and 1,000 to 2000 animals with performance data. Supporting this genomics project are the agriculture/" title="View all articles about Department of Agriculture here">Department of Agriculture Biotechnology Program, PL 480 program, and the Philippine Council for Agriculture, Aquatic Forestry Natural Resources Research and Development. Dairy animal inventory According to the National Dairy Administration (NDA), the Philippines has an inventory of 40,696 dairy animals. This produced 18.45 million liters of raw milk last year, up by 12 percent from 2011. Milk sufficiency is 40 percent, and the NDA wants to raise this to 43 percent in 2016 and eventually 100 percent in 2021. Unfortunately, local milk production accounts for just an estimated two percent of the country’s total yearly dairy requirement as consumption grows briskly. It imports the rest of its requirement from New Zealand, the United States, Australia, and France. NDA estimates that in order to supply the country’s dairy needs, one million dairy animals should be raised. NDA reported that government imported in 2012 a total of 10 bulls and 2, 100 female cows for breeding. Government is also replicating more dairy farms. Dairy zones in the country are found in Batangas, Laguna, Quezon, Iloilo, Negros Occidental, and Cebu. Farmgate price Investors face good prospects in local milk production since farmgate price is tagged at an average of only P23 per liter while those that are labeled fresh milk in the retail market has a price of P80 to P100 per liter. Aside from fresh milk, products in the dairy industry are flavored milk, mozzarella cheese now in demand in pizza restaurants, native cheese, processed cheese, candies, ice cream, and yogurt. ### -- Melody Mendoza Aguiba Mendoza Aguiba & Co Product & Cause Media Campaigner Mobile Phones: 0920-715-7186, 0916-266-6604 For any questions, please call Dr. Libertado C. Cruz, PCC executive director, 0917-891-2655, Mr. Rommel Herrera, 0915-714-4314; for related interview requests, 0916-266-6604

Diagnosing Porcine Epidemic Diarrhea (PED) in Minutes

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[caption id="" align="alignnone" width="364"]piglets photo Photo by Royalty-free image collection [/caption] Almost half of the pre-weaner pigs suddenly excrete yellowish watery diarrhea. The same alarming picture can be seen in neighboring pens, wherein almost seven out of 10 piglets in a litter die. “What infection has caused this unsightly scene to my farm?” a farmer thought while recalling the events that transpired during the recent days before the disease struck his farm. Though keeping himself unruffled, the ghastly disease progression displayed in front of him may just send him off the roof. Trying to muster composure, a farmer mentally recounts his earnings from the prior sale of the healthy finishers and the impending losses that is about to unfold right before his very eyes. This horrendous sight is common among piggery farm owners as their animals experience bouts of gastrointestinal infections. Unfavorable incidents such as these, as experienced by our local swine producers, are replete with losses and economic impacts brought about by animal diseases. If only the pathogen has been detected before the animals exhibit the clinical symptoms, the battle can be considered as already half won. Fret not, for animal health researchers from the College of Veterinary Science and Medicine of the Central Luzon State University (CLSU) have developed a diagnostic test kit that would be able to detect and diagnose one of the most virulent viral gastrointestinal infections in pigs, the porcine epidemic diarrhea or simply, PED. A technology utilizing nucleic acid amplification of target pathogenic organisms of swine respiratory and gastro-intestinal infections to detect the presence of the infective agent in just half an hour has been developed. Other procedures take several hours to detect the diseased animal. Due to its high specificity in detecting the diseased animals harboring the target pathogen and high sensitivity in ruling out healthy or non-diseased animals, Loop-mediated isothermal amplification or LAMP is currently being employed in the development of the PED RT-LAMP Test Kits. LAMP technology produces tremendous copies of the target gene sequence in as short as 30 minutes. The nucleic acid amplification can be carried out using simple and less expensive equipment like a simple thermostat or water bath. LAMP is very comparable to the Enzyme-Linked Immunosorbent Assay (ELISA) kit and polymerase chain reaction (PCR) kit but is less affected by presence of non-targeted DNA or inhibitory molecules because of its high specificity and sensitivity. Commercialization of the PED RT-LAMP Test Kits will greatly improve the welfare of the swine population and the local swine industry as a whole. The technology on the early detection of diarrhea on swine with the use of PED RT-LAMP Test Kits is only one of the many research and development initiatives on livestock concerns supported by the Philippine Council for Agriculture, Aquatic, and Natural Resources Research and Development of the Department of Science and Technology (DOST-PCAARRD). DOST-PCAARRD will showcase its leading R&D initiatives in the agriculture, aquatic, and natural resources sectors during its participation to the National Science and Technology Week (NSTW) on July 24-28 at SMX Mall of Asia, Pasay City. The 2015 NSTW adopts the theme Philippines: A Science Nation Innovating for Global competitiveness. PCAARRD, on the other hand, adopts Strategic Industry S&T Program for Agri-Aqua Growth (SIPAG) ni Juan as its theme to bolster PCAARRD’s commitment to Outcome One. “Outcome One serves as DOST’s blueprint towards alleviating poverty in the agriculture and aquatic sectors as part of the government’s social contract with our people,” said DOST Secretary Mario G. Montejo in his message during one of the events of the Council. Outcome One seeks to provide science-based know-how and tools that will enable the agricultural sector to raise productivity to world-class standards. PCAARRD pursues its commitment to Outcome One through its Industry Strategic S&T Program, among other programs, hence the tagline SIPAG ni Juan. by Super User

Bulacan college puts up breeding station that raised goat inventory by 100%, to produce meat loaf from chevon

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Bulacan state college has put up a breeding station that raised goat inventory by 100 percent and aims to aid small farmers meet brisk demand by eventually producing meat loaf from this healthful goat meat. [caption id="" align="alignnone" width="500"]goat photo Photo by simply.jessi [/caption] The Bulacan Agricultural State College (BASC) has put up a nucleus farm and breeding station in its campus. Its increasing goat production is now hoped to be used for the production of high value goat products. BASC just finished the goat upgrading project financed by the Bureau of Agricultural Research (BAR). The project is beefing up goat inventory in Bulacan by around 100 percent. BAR is supporting the concept of establishing “multiplier farms” pushed by the BASC, according to BAR Director Nicomedes P. Eleazar. BAR funded the goat upgrading project by P2.4 million. “We can turn our farmers into entrepreneurs through multiplier farms that upgrade small hold goat farms into agribusiness entities,” said Eleazar. The production of meat loaf of chevon (the goat meat) is now being pushed under a proposed second phase of the BASC-BAR project. “Many people are looking for goat meat because it is clean since goats only feed on grasses and vegetation,” said Dr. Helen G. Manalastas, BASC goat project leader. Bulacan farmers and the project management staff of BASC are learning from the experience of Isabela State University (ISU). Their team also included Dr. Gerardo I. Mendoza, Dr. Junel B. Soriano, and Leah V. Indon. ISU is now marketing its canned kalderetang kambing, menudo, and kilawin. But BASC believes there is also a good market for meat loaf which can perhaps borrow a little of the success of global meat brand “Spam.” Like most meats, chevon is a good source of protein. Other value added products to be generated from goat raising are yoghurt, cheese, goyema (yema), and goatillas (pastillas). Breeding station BASC put up a nucleus breeding station on a 0.5 hectare (5,000 square meter) lot at its Institute of Agriculture Newsite campus. It cost around P500,000. A plantation as source of feed was also established around the breeding station. It grows herbs known to boost health of goats. These are napier grass, star grass and guinea grass; legumes (ornamental peanut and centrosema), shrubs (tricanthera), and indigofera and madre de cacao. Best goat breeds The nucleus breeding station primarily improved breeds of native goats in Bulacan. BASC purchased 88 upgraded goats of Anglo Nubian (best for milk production—developed in Great Britain) and Boer (best for meat—developed in South Africa) breeds. The imported breeds were mated with the native breeds so that their offspring yielded bigger goats with better appearance and higher milk output. Higher ROI The BAR project “Meeh Kita! Goat Upgrading and Production in the Villages” has been successful in raising income of farmer-beneficiaries by around 70 percent. This was shown by a farmer’s return on investment (ROI) of P1,975 per one animal received. It represents a ROI of 62 percent. This was significantly bigger compared to farmers’ net income of only P620 per head when their animals were pure natives. ROI then was just half at 35 percent. In the nucleus farm, ROI was even higher at 79 percent on a per goat basis. Sale from a single goat totaled to P5,000 per head. At a cost of P2,786, it generated a net income of P2,213 per head. Not bad at all! Expense included P843, forage; P348, cost of concentrate; P115, veterinary drugs and supplies; P40 light and water; and P1,440, labor cost. Goat health The project taught farmers an integrated goat management that employed all technologies to produce highly marketable animals. It trained farmers on the use of feeds, vitamins and mineral blocks, antibiotics, syringe and needles, forceps and mineral blocks to support animal health needs. “The project was able to upgrade the native goats originally available in the communities and therefore increase the number of goats available in the project sites and even in the areas surrounding the nucleus farm,” according to a BASC report. While some smallholder farmers still keep their goats outside in the fields rain or shine, housing is essential for animal health. With housing, mortality is minimal. Over the entire project, there were only six deaths out of 61 goats given to farmer-cooperators. Livelihood The project doubled the goat inventory of 61 farmer-cooperators in the trial farms from 160 to 321, a 100 percent increase. Because of the success of breeding superior goats that produce healthy offspring, the project, which should have lasted for only two years since its implementation in 2009, has sustained up to now. “Before implementation the total population of goats in the six municipalities of Bulacan covered by the project was 2,837. After the project, total goat population in the areas has increased to 4,047,” said BASC in its terminal report. The goat sector appears to be minor in the entire livestock sector. Yet, it provides additional income source to many rice and corn farmers, giving livelihood to many Filipinos. Goats support the livelihood of about 15 million Filipinos across the country today, according to BASC. Skills Goats are economical to raise. “Goats require low maintenance because they eat tree leaves, weeds, grasses, and agricultural by-products,” said BASC. Because of this, many farmers or aspiring entrepreneurs want to venture into it. But some fail due to the absence of knowledge and skills on raising superior breeds and the absence of available breeder stocks. Top livestock In Bulacan, goat is among the top five performing livestock. Goat inventory as of 2005 was 11,280 heads. These are mostly raised by backyard farmers. Any help in goat raising will therefore aid those that have the least income in livestock raising. Demand is increasing. “Goat raising offers positive opportunities. Supply is currently lacking and demand is great. Goat meat is a rare commodity in supermarkets or restaurants, not because it is not desired, but because there is a shortage of supply,” said BASC, High value products can even generate more income to entrepreneurs. “Even local dairy products from goat proved to be competitive with the rise of producing yoghurt, sterilized milk and Gouda cheese as among top products.” Raising the breed can raise income potential. “By upgrading the breed of my goats, I can price them from P4,000 to P5,000 per head, depending on the grade of the meat. Before, a native goat would be priced a maximum of P1,500 only,” reported the BASC experts. Higher price The animal is sold on a per kilo basis of live weight ranging from 20 kilos to 35 kilos. The superior good breeds can be sold at P135 per kilo, while the natives may just be marketable at P120 per kilo. The BAR-BASC project’s Phase 1 benefited farmers from six Bulacan towns —San Ildefonso, San Miguel, San Rafael, Dona Remedios Trinidad, Angat, and Norzagaray.. The Department of Agriculture and local government units (LGU) of Bulacan helped identify farmer-cooperators. Strategic plan Goat production is economically valuable for the Philippines with value rising from P3.3 billion in 2000 to P5.113 billion in 2005. “While these increments appear small, there was substantial interest in the sector with new farms being set up, increased importation of stocks, and expanding organization of small ruminants (livestock feeding by grazing) nationwide,” according to the Livestock Development Council (LDC). Goat importation rose about five times from 155 heads in 2001 to 1,330 heads in 2005. Imports come from the US, Australia, and New Zealand. A Goat Industry Strategic Plan aimed to achieve the following by 2020-- reduce pre-weaning mortality from 25 percent to 10 percent; increase slaughter weight from 15 kilos to 30 kilos; bring down kidding (reproduction) interval from nine months to eight months; and raise natural conception rate from 80 percent to 95 percent. ### For any questions, please call Dr. Helen G. Manalastas, 0926-721-7394; for interview requests, please contact 0916-266-6604.

A science-based approach in raising native chicken

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Raising native chickens is an income resource generator. Traditionally, raising native chicken is a backyard practice wherein the chickens can roam freely with minimal interventions in terms of feed supplementation, proper housing, health care, breeding, selection, and handling, among others. To institutionalize a science-based approach to raising native chicken that will lead to a better understanding on its proper management, the Bureau of Agricultural Research (BAR) conducted a lecture-seminar presentation on the “Advances in Commercial Production of Philippine Native Chicken”. This was presented and delivered by Dr. Jaime C. Cabarles Jr., acting dean of the College of Agriculture, Resources and Environmental Sciences of Central Philippine University (CPU), Iloilo City. native chicken Dr. Cabarles mentioned that raising native chickens is a multi-billion peso industry and the active participation of various stakeholders along the production and food value chain is imperative for the development of the industry. Based on his lecture, Dr. Cabarles said that the unstructured market for native chicken and its products is still inadequate and still lack a formal channel or distribution scheme from the raisers to consumers. This is in great contrast to the commercial breeds wherein some commercial-scale operators follow a certain method. He added that the lack of production technologies and marketing protocols greatly affect the availability, price, standards, quality of the chickens and even the packaging of products, and thus must be addressed. The required inputs including the sources of day old chicks (DOC), supplemental feeds, phytobiotics, package of technologies for commercial production, and advanced line of facilities, among others are limited, and therefore, a systematic approach is vital. The resource speaker advised and shared some important tips to the participants should they decide to venture into backyard or full scale commercial operations. Experience in raising native chickens topped his list of prerequisites. The ranging area requires a stocking density of one bird per five sq.m. ranging yard. However, the regular stocking density is 10 sq.m. per bird. This allowed the fowl to practice their natural behavior. Drainage, tree covers, presence of scavengeable feeds, surrounding households, and other flock of chickens must be considered in identifying the ranging area. The modification of the area can be done to fit the requirements of the raisers. In terms of labor, an individual can manage to rear 1,000 - 1,500 heads of chicken. This is to maximize the laborers time in feeding, cleaning, and in doing other activities. Dr. Cabales also recommended to prepare a detailed feasibility study to avoid unwise spending and the utilization of locally-available resources can likewise help reduce capital requirement. Studies showed that native chickens that are housed in better facilities could significantly improve their survival rate compared to those without. Proper housing provides protection against any form of draft and for easy monitoring as to the number of chickens in a flock. To some would be raisers, the design and materials required for housing construction may be expensive, and thus recommended the use of such materials like bamboo, wood, nipa shingles, and other alternatives as long as they are treated against termites. ### (Patrick Raymund A. Lesaca)

How to Raise Cattle in the Backyard

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Backyard cattle fattening has gained popularity as an important business project of the livestock industry in the Philippines. Raising cattle in the backyard gives the farmer year-round work and provides him with extra income. cow How to Raise Cattle Types of Cattle Raising 1. Cow-Calf Operation 2. Breeder Farm Operation 3. Growing-Fattening Operation Cow-calf Operation Cows and bulls are raised to produce calves in this type of operation. Calves are then raised until they are weaned from their dams at seven to eight months of age. After weaning, they can be sold immediately, or raised for a few more months for use as replacement stocks or sold for fattening. The cow-calf operation is considered most challenging because the producer needs to be familiar with the reproductive phenomena, as well as the breeding and feeding systems. He should also be knowledgeable on the management practices involved in the production and maintenance of cows, bulls, and calves. A good animal health program should also be observed to minimize mortality and ensure the productivity of the animals. Breeder Farm Operation The main interest of the raisers is to produce animals for breeding purposes. Thus, the calves are raised until they are ready for breeding, provided they passed the selection criteria. Since the main output of a breeder farm is quality breeding animals, a large herd is necessary for the selection of the replacement stocks. Purebred animals are usually utilized in this project. The breeder farm can be maintained in the ranch, in complete confinement, or integrated with plantation and forest trees. The farm requires a number of animal stock, a big farm, and a big capital. Growing-Fattening Operation Growing-fattening operation is the most popular type of cattle raising in the Philippines. It requires simple facilities and level of management. The project is also shorter and the return of investment is relatively higher than the cow-calf operation. Growing cattle can be raised through grazing or cut-and-carry feeding. Thus, it needs little capital so it can be managed by small-hold cattle raisers. On the other hand, the fattening or finishing stage is usually done intensively or in confinement. The animals are kept within an area so that the feeds given to them are utilized to develop their tissues. cattle raisingGuide in Selecting Stocks Based on Physical Appearance Selecting Cows and Heifers for Breeding * Milking ability and feminity Mild maternal face with bright and alert eyes, good disposition, and quiet temperament. An udder of good size and shape. An udder that is soft, flexible, and spongy to the touch, not fleshlike and hard, is expected to secrete more milk. * Age In general, beef cows remain productive for 13 years if they start calving at three years of age. They are most productive from four to eight years of age. * Breeding ability and ancestry Cows that calve regularly are desirable. Calves from cows that do not take on flesh readily do not give much profit. In buying heifers for foundation stock, select those which belong to families which have regularly produced outstanding calves. * Types and conformation An ideal cow has a rectangular frame. Should be of medium width between the thurls and pins to have necessary frame on which to hang profitable beef. The rump must be long and smooth. Selecting a Bull * Physical appearance A fairly good middle or barrel indicates a well-developed digestive system and healthy vital organs such as the heart, liver, and lungs. Likewise, a full heart girth, broad muzzle, large nostrils, muscular checks and jaw, well-rounded thighs, and a full loin, make up a good constitution. A bull with these qualities is desirable. The legs of a bull should be strong enough to carry its own weight and to carry him around to look for cows that are in heat and to search for food when necessary. Successful mating of cows is insured when a bull has strong legs. * Sex character Well-developed sex organs are characterized by fully descended testicles, deep wide chest, and broad head. These qualities indicate virility and good reproduction. Selecting Cattle for Fattening * Age Young animals have striking advantages over older cattle. They need less feed for every unit gain in weight because they can masticate and ruminate thoroughly and can consume more feed in proportion to their body weight. Their increase in weight is due partly to the growth of muscles and vital organs. In older cattle the increase is largely due to fat deposits. On the other hand, older animals as feeder stock also have advantages. Generally, a two-year old steer will require a shorter feeding period than a calf or a yearling because the latter grows while it fattens. Calves are choosy when given coarse and stemmy roughage, while two-year old steers utilize large quantities of roughage to produce fat primarily because they have a better capacity to digest. In most cases, they readily relish the feeds ordinarily rejected by the calves. *Disposition An active yet mild, quiet, and easily-handled steer usually grows fast and fattens easily. Restless, nervous, and erratic cattle waste too much energy when they panic even at the slightest provocation. * Constitution and vigor These are determined by the size and quality of the vital organs. A large feeding capacity, strong appetite; a large heart girth; well-sprung ribs; and a wide, deep, and full chest show good constitution and vigor. *Sex Generally, more steers than heifers are available for fattening because some heifers must be retained as herd replacements. If fed for the same period of time, steers gain about 10 percent faster than heifers and require 10 to 15 percent less feeds with equal weight gain. On the other hand, young bulls have 20 percent greater gain in live-weight and require 22 percent less feed to produce a leaner carcass which is nearly of the same quality as that of steers. * Health considerations A healthy animal is active and has a soft and smooth hair-coat. The eyes are bright and the muzzle is usually moist. Special attention should be given to unsoundness and defects in conformation when selecting feeders. Animals that are blind, lame, or with crooked legs should be avoided. Those with rough skin and evidence of ectoparasite should also be avoided. Feeding Management Practices * Feed animals daily with concentrate one to two kilograms per day during fattening period. Give roughage daily at 3% of body weight if given air dry or 14% if given fresh. * Give clean water without limit or ad libitum. Provide ordinary table salt about 30-50 grams per head per day. * Give the animals fresh, palatable feed and clean water at all times. Reduction of feed intake by 5 percent will reduce weight gain by 10 percent. Do not overstock feeds in the feedbunk since the bottom portion will develop heat and make the feed stale. * Mix feed properly. Have at least 15-20 percent roughage in feed to prevent bloat and other digestive disorders. * During rainy days, cattle will eat more during the daytime. During summer, they will eat more at night and during the cooler hours. Provide enough feeds during these periods. * Digestion will be more efficient if roughage is eaten separately from concentrates. Roughage consumption tends to stimulate saliva secretion up to as much as 80-120 liters per day. * Providing 12-14 inches of bunk space per head will allow cattle to eat slowly. * Schedule manure removal. If allowed to remain with the animals, deep, wet manure will reduce both feed intake and weight gain. Management of Calves, Growers, and Fatteners Calves Calves should suckle colostrum milk from their mother within three hours after calving. A calf that has not suckled five to six hours after calving should be led to his mother’s udder. During bad weathers, weak calves should be taken to the barn with the mother. However, orphaned calves may be raised to cow’s milk or milk replacers. Calves should be given concentrates at an early age for faster growth. Growers Growers are weaned yearlings which are not to be fattened immediately. They are handled in such a way that maximum growth is achieved at the lowest possible cost. The growing period starts from weaning to fattening or replacement stage. Growers are usually maintained in the pasture with very little attention; they are given salt and mineral supplements. If raised in confinement, concentrates should be given in addition to grass or roughage. Fatteners Fatteners require a shorter period to reach slaughter weight. They are generally bigger, mature, or nearing maturity. However, one and a half to two year-old animals weighing 200 to 300 kg are preferred. They may be fattened either in feedlot, on pasture, or in both areas. Cattle Housing System Proper housing is important in successful cattle fattening operation. Adequately protect animals against the adverse effects of weather when they are raised in relatively small areas. Animals in backyard cattle farms are usually tethered along roadsides and in backyards during the day and confined in a shed or corral at night. The permanent type of housing consisting of GI roofing, timber frames, concrete floor, feed trough and water troughs are used in most farms. The shelter is open-sided and is located near the farmer’s house or under the shade trees. Building height ranges from 1.79 to 1.9 meters while the width varies from 2.1 to 2.7 meters. Each animal can be allocated with 1.5 to 4.5 sq. meters. A fenced loafing area beside the goat house must be provided (100 to 150 sqm/250 head), complete with feeding racks and water troughs to allow animals to loaf freely. Flooring of the area must be cemented to facilitate drying. Cogon and nipa as roof materials are preferred in hot and humid areas. Ventilation is of outmost importance. Majority of pneumonia cases can be traced to excessively warm and humid interior and sudden changes in temperature. Allow a 0.5 to 1 feet clearance between floor to wall and wall to beam to create an adequate circulation and to lower draft. It is desirable to maintain an interior temperature of 28 to 30°C. It has been established that above 30°C ruminants are inhibited from eating. Lighting may also be provided in the barns during the night. Goats consume up to 30% of the day’s intake during the night when light is provided. Other Options: Cow-Calf Operation Cow-calf operation in small-hold farms is usually done using simple methods and facilities. The animals are usually tethered during the day and kept inside the shed during the night. The shed is built from native materials like wood and bamboo for frames and enclosures; nipa and cogon for roofings. Feeding and watering troughs can also be made out of locally available materials such as used tires, used and halved drums. The shed is usually built near the house of the farmer. Fattening Operation In this type of operation, the animals are raised in individual stalls with a space about 1.5 m x 4 m/head. Each stall can accommodate one animal during the entire fattening period. The shed is built three meters high to allow good ventilation. Bamboo, lumber, or ipil-ipil poles can be used for frames; nipa or cogon for roofing materials although galvanized iron roofing may be used for durability. Concrete and sand should be used as flooring to prevent mud from accumulating. This will facilitate cleaning. Marketing Current marketing system of beef cattle is now becoming efficient especially in areas where there is a livestock auction market. However, a number of middlemen are still involved in the system, thus creating a little complex marketing channel. In areas where there is no livestock auction market, the usual channel of distribution is set up in this order: barrio agents, shippers, Manila-based buyers, and meat retailers. Marketing efficiency can be improved by reducing the number of stages in market channels. This can done by encouraging direct selling from producers to butcher-retailers or processors. Some marketing tips: * Be aware of the current market price of livestock. * Do not let buyers into your herd and do their picking. Select marketable animals and let the buyers choose from them. * Sell your animals on a per-weight basis rather than on a per head basis. * Dispose all marketable animals readily. There is no advantage in keeping disposable animals. They will just compete with other fatteners and feeders for available feed supply and other facilities on the farm. * Do not market sick animals. Sources: bar.gov.ph, DA-ATI

Quality breeders for a bountiful egg harvest

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In 2010, the duck industry was very profitable and vibrant, with an estimated population of 10.8 million head. Now, challenges are weighing it down. Decline in the number and quality of breeders and lack of stable supply of ready-to-lay pullets are among the major factors contributing to the duck industry’s downtrend. Application of various new technologies in housing and feeding seemingly failed to address the problem.
 

Black Philippine Mallard Ducks (PMDs) (Photo from the Livestock Research Division (LRD), DOST-PCAARRD)

Experiences of the Duck Research Center of the Livestock Research Institute in Taiwan have shown significant improvement in the overall productivity of layer ducks through organized breeding and selection that is complemented by proper nutrition and management. Taiwan experience suggests that innovative S&T interventions lead to better production performance in terms of increased egg production and egg weight over time. Application of farm level S&T interventions through the Philippine Council for Agriculture, Aquatic and Natural Resources Research and Development of the Department of Science and Technology’s (DOST-PCAARRD) Duck Industry Strategic S&T Program (ISP) is now showing positive accomplishments relative to the program targets. Ensuring vibrant and sustainable Philippine duck egg industry requires development of signature Philippine Mallard Duck (PMD) breeds (with 70% egg production and average of 65 g egg weight) through application of breeding, feeding, production management, and duck egg processing technologies at the farm level. Adoption of efficient and effective promotion and marketing strategies for duck egg products by the industry is also necessary. Duck ISP accomplishments

Ducklings of brown PMDs (Photo from LRD, DOST-PCAARRD)

The Duck ISP is generally geared towards addressing the declining of duck egg production trend that started in 2004. The ISP, therefore, focuses on the development of genetically superior breeder ducks that can increase egg production rate from 55% to 70% and maintaining egg weight consistently at 65 grams. The program also aims to develop and establish breeding true-to-type PMD populations in private commercial farms. In partnership with the National Swine and Poultry Research and Development Center – Bureau of Animal Industry (NSPRDC-BAI), the S&T intervention on breeding and selection led to the development of breeding true-to-type PMD. The improved purebred PMD line annually added 50 eggs per duck with consistent egg weight of not lower than 65 grams a piece that is acceptable by the balut and salted egg processors. Compared with the traditional rearing of egg-type mixed breed of ducks, this breakthrough can result in additional income of at least ?300 per duck/year without altering any cultural management practice. Supplies of these improved PMD commercial lines will be available mid-2016 in Central Luzon and CALABARZON regions through the private duck raiser partners now involved in commercial duck breeding. Sustainability of the developed PMD breeds will be complemented with the development of feeds and feeding systems for the improved PMD by the University of the Philippines Los Baños (UPLB) in collaboration with Central Luzon State University (CLSU). Production of custom-mixed duck rations that uses locally available feed ingredients will ensure a stable supply of quality feeds for the duck industry.

Brown Philippine Mallard Ducks (PMDs) (Photo from LRD, DOST-PCAARRD)

Still in the pipeline of the Duck ISP are the projects on innovating the balut and salted egg processing methods for value addition and food safety compliance and enhancement of the market channels, pricing and distribution systems, and product promotion strategies. The Duck ISP covers promotion of the genetically improved layer-type PMD breeders and transfer of improved breeding, feeding and production management technologies to private commercial duck producers. It will also address policy issues on duck production, trade and delivery of technical and other support services. Similarly, it will develop models of efficient marketing, and information and technology delivery systems and establish product grades and standards. DOST-PCAARRD will showcase the duck ISP including other agri-aqua research and development (R&D) outputs on March 2-4, 2016 during the SIPAG FIESTA at its headquarters in Los Baños, Laguna. SIPAG, a technology transfer strategy, embodies the Council’s commitment to DOST’s Outcome One in a bid to ensure that the fruits of R&D activities for the agri-aqua sectors will be a blessing for every Juan. by Livestock Research Division, DOST-PCAARRD

How to Raise Pigeons for Money

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How to raise pigeons. Raising pigeons is not only a hobby but a good earner too. They multiply fast if proper care is given, and almost every part of a pigeon has use. For instance, the feathers and bones, after flesh meat has been removed, can be used as feed for chicken; its manure is feed for cows.

raising pigeons

At the start, allow the pairs of pigeons in their new home. If they are not paired, place together equal number of male or female.

1. Provide clean food and water everyday.
2. Always keep their coop clean.
3. Separate immediately the sick or sick-looking ones.
4. In preparing for egg laying, scatter leaves in their coop before the mother bird lays eggs otherwise eggs may be lost among the leaves and never be hatched.

Keep note (record) of the day of egg laying, hatching, number of chicks and their weight each, and number of deaths. This is important in removing those that are not productive and those that are poor in appetite and in growth.

A month after hatching, the chick should weigh 500 grams or more.

Feeding

1. If their feed is grains or commercial feed, they should be:
– whole grains, not fine or powdered
– the mixture must be adequate in vitamins
– free from molds, weevil, pest or damage

2. Feed may consist of corn, sorghum, soybean, rice or legume seeds (mongo).

3. Put the food in a place where they can eat all day. Separate grains from feed.

4. When raised in quantity, allow them to eat plenty until they hatch their eggs.

As the chicks grow, allow them to eat freely so as to grow fast and get sold quickly.

If they don’t get sold within a month from hatching, or they lose weight, place them in a coop where their movement will not be so free, and give them plenty of food so as to grow fast.

Selling qualities are:
1st class — 500 grams
Broiler — not older than 50 days
Free from bruises and wounds or insect bites
Feathers are clean and bright

Baths

Pigeons like to take a bath, so they must have their own bathing containers with about 7.5 cm deep water. They bathe 2 or 3 times a week in the morning if the weather is good.

Remove the bath after they are through.

Provide also clean sand (from the seashore) where they can roll themselves and pick up small shells and stones.

When pigeons bathe often, they become sturdy against pests. Protect them from pests and diseases, and consult a veterinarian for this.

Reduction of Old Pigeons

Every year, remove 25% of old birds and replace them with newly born ones to keep active their propagation. Take care of half of this number until age 5-6 weeks. A progressive mother pigeon can produce 10 chicks a year.

Source: Tekno-tulong -Greenfields Mar-Apr 1990
Photo: animalsinthecity.webs.com


Indigenous Feed Resources for Livestock

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fz7s7p Indigenous Feed Resources for LivestockThe rapid development in recent years of Asia’s livestock industry has been matched by the huge increase in the importation of livestock feed. Feed costs are not only a burden on the national budget of nearly every Asian country, they are also a burden on the budget of livestock farms, where they are often 60% or more of total production costs. Even in Thailand, which is one of the few Asian countries to produce a surplus of feed materials, small-scale farmers often cannot afford enough feed to maintain their livestock in good condition over the dry season. Throughout the region, cost and availability of feed are probably the most important constraint to increased livestock production.

Since feed costs are the major part of production costs in Asia, an increase in the use of indigenous feed resources is an important way of helping farmers reduce their costs. It can also be expected to add value to indigenous resources which at the moment have little or no productive use, helping to boost farm incomes. We need to know more about potential feed resources, and also more about the constraints which have limited their use by farmers so far.

Two Kinds of Farmers Will Benefit

Increased use of indigenous feed resources is likely to benefit two types of producer in Asia. One group is the commercial producers raising high-performance animals, using mainly imported concentrates. In the past, both the livestock breeds and the concentrate feeds used for commercial raising in Asia have been much the same as those used in livestock raising in industrialized temperate countries. Now the situation is changing, and just as there is a growing interest in improved indigenous breeds better adapted to Asian conditions, so there is a growing use of locally produced feed resources. These include treated rice straw and other crop residues, silage made from pasture grasses grown as part of a complex cropping system, and waste products from agroindustry.

The second group comprises the smallholders who make little use of commercial feeds and rely on locally available forage and grasses to feed their livestock. While these local resources may be adequate at times, there is often a seasonal feed shortage which limits the overall carrying capacity of land and reduces animal productivity.

In the monsoon climate common in Asian countries, it is usually the dry season which is the time when livestock are most in need of a supplementary feed supply. The quality of feed at this time may be so poor that animals may lose a quarter of their body weight. The increased use of indigenous feed resources is a search, not only for new sources of livestock feed, but also for ways in which the supply of existing resources may be extended to cover a longer period. This may involve treatment such as drying or ensiling, so that surplus feed from seasons of abundance will still be available many months later when feed is scarce.

Any assessment of the potential contribution from a particular indigenous feed resource needs not just feeding trials to find whether it is acceptable to livestock, but on-farm trials to find whether it is acceptable to farmers. In some cases, collection and handling costs of indigenous feed resources are too high to make their use economic.

Crop Residues

On most smallholder farms, cropping is the main activity and livestock are secondary. Rice straw is the most abundant feed resource on Asian smallholdings, although some farms may also have abundant supplies of other crop residues such as corn stover and corn cobs, peanut straw, or sugarcane tops. All these crop residues tend to be highly lignified.

Rice Straw

Rice straw in particular is high in silica, with poor digestibility and a low crude protein content. Generally rice straw is fed when no green forage is available, and is given for maintenance rather than in any hope of increased production. The period when rice straw is fed may be the dry season, when there is insufficient soil moisture to keep green leaves alive. However, one paper presentation pointed out that smallholder livestock in Indonesia tend to eat rice straw at the time of the rice harvest or during the rainy season, when it is difficult for farmers to find the time to cut forage.

Increasing the Nutrient Value of Rice Straw

Any low-cost treatment which enhances the palatability and nutritive value of rice straw is likely to be advantageous. One practice which has been widely used for several decades is to treat rice straw chemically, particularly with urea, to increase its digestibility and palatability. Rice straw in Thailand is often sprayed with a mixture of urea and molasses, and many farmers in northern Thailand have permanent containers for treating the straw, even though their annual incomes are fairly low. There is also widespread interest in improving the feed value of rice straw by inoculating it with microorganisms. A few farmers’ cooperatives in Java, Indonesia, are treating rice straw with microorganisms from the rumen, taken direct from the slaughterhouse.

Urea treatment also improves the palatability and nutritional value of other crop residues such as soybean straw. Livestock do not find untreated soybean straw very palatable, since it is dusty and has hard stems, and Thai cattle fed only soybean straw were found to lose weight. The growth rate and feed intake increased if the straw was sprayed with molasses and urea, while a combination of urea-treated soybean straw and rice straw was found to give very good results, provided the proportion of soybean straw was at least 50%. It was suggested at the seminar that the legume component may enhance the digestibility of the rice straw by supplying additional nutrition to the microbes in the rumen, thus increasing their number and effectiveness. Even though urea is relatively cheap, it is too expensive for some low-income farmers in less industrialized countries. Most farmers in Indonesia still prefer to gather natural grasses for their livestock. They comment that if they are to buy food, it will be for their families rather than their livestock!

Chopped Palm Fronds

One interesting new development is the use of oil palm fronds in Malaysia as livestock feed, usually chopped and sometimes ensiled. Beef cattle gain weight when palm fronds make up as much as 50% of their diet, and dairy cattle and goats also do well when fed a rather lower proportion (30%) of fronds in their diet. Several participants were interested to find whether coconut fronds could be used in the same way. It was suggested that while coconut fronds would probably be equally nutritious used as a livestock feed, their removal from the tree would reduce coconut production. Fortunately, harvesting oil palm fronds does not seem to have much effect on yield.

Constraints to the Use of Crop Residues

Cost Factors

Integration of crop and livestock production which includes the use of crop residues as livestock feed seems to be most feasible when the scale is either very small, or very large. On plantations or large farms, the scale of production can make it economical to use machinery for collection and processing. On a very small scale, the use of crop residues to raise one or two livestock may not require much investment of either labor or capital. However, in the type of crop production common in most of Asia, crop residues are being produced on numerous scattered farms which may be geographically remote from areas where livestock production is concentrated. In this situation, the cost of collection and transportation is likely to be high. Another problem is that many crop by-products are seasonal, and become available all at once at the same time of the year. This means that expensive treatment and storage facilities are required if they are to be made available as a feed resource throughout the year.

Chemical Residues

Another important constraint is that most growing crops nowadays are protected from insect damage by chemical pesticides. These may leave toxic residues in the leaves and stems of plants used for livestock feed. Even heavy applications of fertilizer may be dangerous, causing high concentrations of nitrates to accumulate in leaves. Nitrate residues are particularly dangerous to cattle and other ruminants, as are the fatty acids present in some fishmeals and oil seeds. Volatile fatty acids are known to have a harmful affect on some bacteria species in the rumen, thus slowing down the fermentation of carbohydrates. Some agroindustrial by-products may be contaminated by undesirable ingredients, including molds and toxic substances.

Undesirable residues of this kind may have a harmful effect on the health and productivity of livestock, although this may be gradual, long-term, and difficult to detect. They may also contaminate animal products such as milk or meat, making them unpalatable or unfit for human consumption. If crop residues are to become more important as livestock feed, this must be taken into account when the crop is being grown. Toxic residues must be avoided in the leafy parts of the crop, in the same way as they are avoided in the edible parts used as human food. Obviously crop farmers must be given an incentive to do this, which must involve both some means of detecting toxic residues, and some transfer of the added value of healthy residues to crop producers. Already rice straw is becoming quite a valuable commodity. One paper presentation pointed out that whereas rice straw could be obtained free of charge a few decades ago in most Asian countries, it is now becoming more expensive. It is used as an industrial raw material in the manufacture of paper and other products as well as in agriculture. Japan is even importing stocks of rice straw from abroad.

Forage Production

The small size of most Asian farms limits the possibility of pasture production, but increasingly pasture and forage are being integrated into existing cropping systems.

Pasture Establishment in Korea

In Korea, rice straw is still an important source of roughage, but there is an increasing interest in forage production, sometimes in paddy fields during the off season and sometimes on hilly lands. A technique has been developed of converting hilly lands to pasture without any tillage. Although this method is cheap and gives good erosion control, pasture productivity is lower than that of cultivated pastures of introduced forage species which have been sprayed with herbicides and oversown. Italian rye grass and rye are the two main forage crops grown in Korean paddy fields. The former is more productive and can be harvested more frequently, but is limited to the south where winter temperatures are relatively mild. Forage grown in both upland fields and paddy fields is generally fed fresh to livestock or ensiled. Rye harvested for silage is sometimes prewilted and treated with formic acid to improve the quality of the silage.

Livestock Programs for Low-Income Farmers

There are a number of projects to develop livestock production as part of an improved farming system for low-income upland farmers. A project for raising native chickens has been successful in Vietnam, using locally available feed resources. A project promoting pig raising was less successful in the long term because rising feed costs were not compensated for by higher prices for pork.

Small livestock were also found to be preferable for low-income farmers in the Philippines, mainly because large ruminants are so expensive that they are too much of a risk. The SALT program in Mindanao, southern Philippines, is basically a technology for soil conservation and sustainable food production. The SALT-2 program developed in the 1980s combines livestock production with crops and forestry. About half of the arable land of each farm is planted in alley strips of leguminous forage crops such asDesmodium orGliricidia, and the forage is cut and fed to goats. The rest of the land is planted in a mixture of subsistence and cash crops, including legumes such as peanut and mungbean. Under this system, a farm of only half a hectare is able to support 12 does, and gives a net cash return of well over US$1000 by the second or third year.

Agroindustrial Byproducts

Most by-products from agroindustrial processing have a high moisture content. Although they are often palatable and rich in nutrients, they tend to ferment and spoil rapidly unless they are dried or processed in some other way. One processing by-product which is often used as livestock feed is the spent brewer’s grain left after brewing beer. Other commonly used by-products include molasses, pressed fruit wastes and beet pulp, oil meals and bran. However in many cases the oil seeds and other ingredients are imported, so the by-products cannot really be regarded as indigenous feed resources.

The refuse left after the manufacture of tofu (soybean curd) is a low-cost and nutritious feed for livestock which is widely available in several Asian countries. In Japan, 670 thousand mt of tofu refuse is produced each year, 70% of which is used as a feed for cattle or hogs. However, it has a high moisture content (around 80%), and begins to deteriorate after only half a day during warm weather. Drying the tofu wastes improves its storage life, but is too expensive to be economic. While the wastes can be used raw, this involves daily shipments from factory to farm, and is only feasible when distances are short. The best method of extending the usable life of the wastes is to ensile it. Usually the tofu wastes are shipped untreated direct to the farm, sometimes already packed into small drum silos containing 135-180 kg of refuse. Farms with their own large silos often mix the tofu wastes with dry additives such as beet pulp or rice straw. Handling operations in Japan are extensively mechanized.

Obviously processing is carried out with the quality of the manufactured product in mind, rather than the quality of the by-products. One participant from Taiwan suggested that specific centers are needed which would routinely examine agricultural by-products in order to examine their potential for feed and other uses, and work out appropriate feeding regimes. Several dairy and beef cooperatives in Taiwan are now planning to establish centers for the preservation of agricultural by-products. These centers will be located near cooperative farms, and will provide silage to farmers, as well as directions on how to use the materials in feed rations.

Conclusion

Any use of indigenous feeds must meet the same requirements as livestock feeds from other sources. Such feeds must not only be palatable and digestible to livestock, without any harmful physiological effects, but they must be available where and when they are needed, and their cost must be low enough to make their use economical. Indigenous feeds are made up of two main types of materials, crop residues and agroindustrial by-products. The basic concern with crop residues is improving the feed value, which is generally low. As far as agroindustrial wastes are concerned, the main problem is their high water content and short storage life unless they are given some form of processing such as drying.

New materials are being explored, particularly agroindustrial by-products but also improved forage species. Oil palm fronds are a promising new resource, while 3000 mt of seaweed is being shipped to Japan from the Philippines each year as a feed material. A database of existing feed materials in Asian countries would be a valuable asset.

Agroindustrial wastes are a frequent cause of pollution. Possibly the cost of processing them into livestock feed should be shared by the processors. In general, economics rather than technology seems to be the major constraint in making increased use of indigenous feed resources. Even crop residues which have no other economic use may not be a very cheap source of livestock feed if the costs of collection, transportation and storage are taken into account.

Transfer to farmers of information on indigenous feed resources is another weak point. Low-income farmers would be helped by small inexpensive machines for chopping feed materials etc., while more exploitation of leaf meals, possibly in pelletized form, might also benefit this group. Cooperatives can be another way in which small-scale farmers can increase the efficiency and scale of their use of local feed resources. For example, many forage producers in Korea have organized themselves into small cooperative groups to share the cost and use of machinery.

Index of Images

    ac1995b1 Indigenous Feed Resources for Livestock
    Figure 1 Feeding Cut Napier Grass to Dairy Goats, Philippines
    ac1995b2 Indigenous Feed Resources for Livestock
    Figure 2 Low-Cost Goat House Built of Local Materials (Bamboo and Coconut Wood), Philippines

Source: Food & Fertilizer Technology Center - Agnet.org

How to Start a Poultry Farm Business

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Chicken broiler production is one of the most progressive animal enterprises in the Philippines today. The poultry industry began as a backyard enterprise but has shifted to the formation of very large integrated contract farming operations. This post will guide you on how to start your own poultry farm business. Broiler Production I. Estimated Investment Cost How to Raise Chickens II. Selection of Stock to Raise • Stock should be purchased from a reliable hatchery or dealer where the parent stocks are well housed and well managed. • Select/buy only healthy chicks (i.e. dry, fluffy feathers, bright eyes, and alert and active appearance; free from diseases, and abnormalities; chicks should have uniform size and color; and in the case of broiler chicks, it should be less than 33 g. at day- old) • Choose those that have high livability and are fast growers. III. Rearing of the Day-Old Chicks • Provide sufficient artificial heat to keep day-old chicks warm during the day and night. Avoid abrupt changes in brooder temperature during the first two weeks of life. • Provide adequate space for chicks as they grow. Overcrowding is one of the factors affecting poor growth. Good ventilation also helps avoid future respiratory diseases. Also, provide a good light source as a well-lighted brooder encourages chicks to start feeding. • Provide the chicks with good quality feeds either home grown or commercially sourced. Feed the chicks intermittently rather than continuously. Research studies have shown that chicks utilize nutrients better when using intermittent feeding. Do not allow feed troughs to go empty for more than 1-2 hours. • Cleanliness and dryness of the brooding quarters will prevent chicks’ contamination from parasites and diseases, which might have been carried by previously brooded chicks. • Environment should be kept as uniform as possible. Sudden changes in the surroundings cause a certain degree of stress or insecurity (e.g. removal of brooder canopy; slamming doors of brooder houses; or the presence of drafts). It is advisable that a regular caretaker feed the chicks following a definite schedule during the first three weeks of the chick’s life. • Make sure that feeds and fresh water are always available. Vitamins, minerals, and antibiotic supplements may be added to the drinking water during the first few days. Consult your feed dealer. • Always check the chicks at night before going to sleep. • All weak, deformed, and sickly chicks should be culled right away and disposed of properly. • The immediate burning or burying of dead birds is an important part of a good sanitation program. Do not expose to flies or rats. IV. Rearing of the Growing Stock • Broilers are marketed when they reach 45-60 days of age depending on strain. • Birds are given anti-stress drugs, either in the feed or in the drinking water, 2-5 days before and after they are transferred to the growing houses. • Thoroughly clean and disinfect the growing houses prior to the transfer of the growing stock. Transfer birds only during good weather. • During summer, birds’ appetite diminishes but this may be sufficiently restored by wet mash feeding or by taking appropriate measures like spraying, misting, or sprinkling the roofing with water to lower house temperature. V. Housing Chickens, being warm blooded, have the ability to maintain a rather uniform temperature of their internal organs. However, the mechanism is efficient only when the ambient temperature is within certain limits. Birds cannot adjust well to extremes; therefore, it is very important that chickens be housed, cared and provided with an environment that will enable them to maintain their thermal balance. • If possible, the length of the broiler house should run from east to west. This prevents direct sunlight from penetrating the side walls of the house, which could cause heat build-up inside. • Ventilation is very important. Allocate at least 1 square foot of floor space per bird. • If constructing an open-sided type of housing, elevate the house about 1.5 m. from the ground. This ensures proper circulation of air and easier collection of fecal matter underneath the house after each harvest. • The building should be rat proof, bird proof, and cat proof. • Trees may be planted on the sides of the house to provide shade during hot season. These can also serve as protection from storms or weather disturbances. • The roofing should be monitor-type and high enough to provide better air circulation inside the broiler house. • In preparation for the arrival of the chicks, thoroughly clean the house with the use of a high pressure washer to remove dust, fecal matter, or any debris inside. Disinfect the house and all equipment to be used. VI. Location Requirements and Recommended Layout for Poultry Farms • A poultry farm must be located outside urban areas. • It must be located in 25 m. radius from sources of ground and surface drinking water. • Medium and large poultry farms must be at least 1,000 m. away from built-up areas (residential, commercial, institutional and industrial) while a small scale must be at least 500 m. away from these areas. VII. Feeding Management • Broiler-commercial rations are fed to the birds during the first 5 weeks and from then on are replaced by the broiler-finisher ration. • All purpose straight broiler ration is fed from the start to the marketing age of eight weeks. • Commercial broiler feeds contain additives considered to be grown-promoting substances. Feed additives make broiler production profitable and help broiler farmer control diseases. VIII. Health Management • The most economical and ideal method to control diseases could be achieved by proper management, good sanitation, and having an effective vaccination program. Consult a veterinarian for a program suited to your business operation. IX. Marketing • Alternative market outlets should be surveyed even before deciding to start a broiler business to ensure a ready market at the time of harvest. Marketing arrangements with local hotels, restaurants, cafeterias, institutional buyers, and grocery stores with freezers may be made. • Producers may form associations or market cooperatives so that they could agree on a common price. Organized producers have bargaining power with regard to their selling prices. • Producers are advised to compute which is more profitable to sell, the birds dressed or live, and whether to sell at the farm or in the market. • The broilers should be sold at optimum weight (1.6-1.9 kg. live weight). X. Estimated Income per Batch (42-45 days) * Net of 4% mortality rate ** Based on DA-BAI figures as of Feb 2, 2009 XI. Ecological Implications Livestock production impacts on the environment through possible effects on surface and ground water quality, gas emissions from animal wastes, and unpleasant odors arising from the enterprise. Manure management is less problematic in poultry enterprises, where manure management does not usually entail wet disposal as in piggery enterprises, and where the chicken dung is often routinely collected for conversion into organic fertilizer or fish feeds. Gases emitted in livestock enterprises include ammonia, carbon dioxide, methane, and nitrous oxide. The latter three contribute to atmospheric changes that lead to global warming. Unpleasant odors emanating from a livestock enterprise are a function of the scale of operation and sound manure management. It is likely that the increasing scale of operation in livestock enterprises in the past years has also intensified the adverse environmental impacts of the industry. The challenge is to constantly develop more efficient and effective technologies for managing animal wastes tailored to different scales of production, even as various means of converting such wastes to useful products (e.g. biogas, fertilizer) have been in use for many years. XII. Registration Requirements 1. Business Name Registration From the Department of Trade and Industry (DTI) provincial office of the province where the business is located Validity: 5 years 2. Barangay Clearance From the barangay office, which has jurisdiction over the area where the business is located 3. Mayor’s Permit and License / Sanitary Permit From the local government which has jurisdiction over the area where the business is located Validity: 1 year 4. Tax Identification Number (TIN) From the Bureau of Internal Revenue (BIR) National Office Diliman, Quezon City or from the nearest BIR Office in your locality 5. Environmental Compliance Certificate Department of Environment and Natural Resources (DENR) Visayas Avenue, Diliman, Quezon City Telephone No.:: (632) 929.6626 XIII. Financing Agricultural Credit Policy Council (ACPC) 28/F, One San Miguel Avenue Building San Miguel Avenue, Ortigas Center Pasig City Telephone Nos.: 634.3326 / 634.3320 to 21 Telefax: 636.3393 Land Bank of the Philippines (LBP) Head Office: 1598 M. H. Del Pilar cor. Dr. J. Quintos Sts. Malate, Manila Telephone Nos.: 522.0000 / 551.2200 Development Bank of the Philippines (DBP) Head Office: Sen. Gil J. Puyat Avenue cor. Makati Avenue Makati City Telephone No.: 818.9511 (connect to SME Department) XIV. Technical Assistance Department of Agriculture Bureau of Animal Industry (DA-BAI) Visayas Avenue, Diliman, Quezon City Telephone No.: (632) 926.6883 Fax No.: 927.0971 Technology Resource Center (TRC) TRC Building,103 J. Abad Santos cor. Lopez Jaena Sts., Little Baguio, San Juan City (Near corner Wilson Street) Telephone No.: (632) 727.6205 Philippine Association of Broiler Integrators, Inc. (PABI) c/o San Miguel Foods, Inc. 18/F, JMT Building, ADB Avenue, Ortigas Center, Pasig City Telephone No.: 634.1010 Telefax: 637.3786 Download here the Manual on Chicken/Poultry Raising Guide. Source: www.dti.gov.ph, Oct 2009. ldc.da.gov.ph BUREAU OF MICRO, SMALL AND MEDIUM ENTERPRISE DEVELOPMENT (BMSMED) 5/F, Trade and Industry Building 361 Sen. Gil J. Puyat Ave. Makati City Tel. Nos.: (02) 897.1693 / 897.7596 / 890.4968 Fax No.: (02) 896.7916 Email: bmsmed@dti.gov.ph

Unlocking the potentials of goat dairying through S&T

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At the moment, there is a very small dairy goat inventory, which is barely 6,379 head or 0.17% of the total goat population. Of this meager herd, only about 600 head are in the milk line, 70% of which are suspected to be harboring subclinical mastitis. As a result, the production of quality milk decreases. Backyard milk production stands at 0.5li/day with commercial farms producing barely a little over 1li/day.  Lactation length is also compromised at 90 days for the backyard farms and 180 days for most commercial farms.  

Saanen goats at the Alaminos Goat Farm in Laguna (Photo from the Livestock Research Division, DOST-PCAARRD)

At the moment, very little R&D has been done on dairy goat. The limited R&D in various institutions is also fragmented. Because of these, interventions to improve productivity of the current genotypes in the country such as Saanen and Anglo Nubian are compromised. Despite these problems, the potentials of goat milk are very bright. Milk from dairy goat is known as the healthier alternative to cow’s milk, as it has smaller, well-emulsified fat globules, without agglutinin protein hence, promoting easier digestion and assimilation in the human body. This makes dairy goat milk very appropriate for children and old people alike. Dairy goat’s milk also lacks the alpha-s1-casein protein, thus producing no allergic reactions unlike cow’s milk.  It has significant proportion of medium chain triglycerides, recognized as highly beneficial to a number of health issues, and has higher amounts of vitamins and minerals with greater bioavailability. Milk from dairy goat is also good as skin exfoliant and moisturizer.   In the countryside where meat consumption is low, goat milk is an important daily source of protein, phosphate and calcium not otherwise available because of lack of cow’s milk. Goat dairying is also more financially rewarding for the smallhold than cattle and carabao dairying, as income is relatively higher.  All these advantages make goat production and goat dairying nowadays popular, propelling farmers to venture into such business and for the Philippine Council for Agriculture, Aquatic and Natural Resources Research and Development of the Department of Science and Technology (DOST-PCAARRD) to pour in investments to address the gaps in goat research and development (R&D). Dairy Goat ISP accomplishments The National Dairy Goat S&T Program is being implemented to spur the development of the local dairy industry by increasing local milk production from healthy dairy goats by 150% in 2017.  This is from a 58% increase in dairy goat herd (6,380 to 10,084 head), 37% reduction in subclinical mastitis (70 to 44%), and 60% increase in does in the milk line (from 600 to 960 head). Productivity is expected to increase with the various S&T initiatives on breeding, feeding and health. As of December 2015, the program has completed the profiling and characterization of the management practices of each of the participating dairy goat farms vis-à-vis their production performance. These data will determine the best performing dairy breeds suited to the country that will be promoted to farmers. To give smallholders access to the best genetic materials from the good breeds and eventually ensure dairy goat herd build-up, breeding methods such as artificial insemination (AI) and natural breeding will be introduced in the countryside.  In preparation for this, the Program has initiated in 2015 the enhancement of AI laboratories at the Isabela State University (ISU) and Department of Agriculture Region 8 (DA-RFO8). The nucleus farm at ISU was enhanced with breeders that will be used for semen collection and buck loan program. Five researchers were trained in Australia on herd recording, semen processing, and embryo transfer.  One hundred twenty-one AI service providers were also trained to help rollout the AI technology for dairy goat in Regions 2, 3, 7, and 8. To ensure that appropriate nutrition suited to the best performing breeds is developed, the Program will evaluate Indigofera zollingeriana as milk yield enhancer. In 2015, the Program has completed the agronomic characterization of the plant and started seedling production and the plant’s chemical analysis. The pelletized Indigofera-based diet for lactating does was formulated and feeding trial on its effect on milk yield is ongoing. To realize the potential increase in milk yield, inefficiencies in the milking process must be reduced thru an effective mastitis control program.  In 2015, the program started developing a portable diagnostic kit. Specifically, the Program assessed the local reagents to be used in detecting intramammary infections (IMI) in goats. A researcher was also trained at Langston University on diagnostic and management protocols for IMI in goats. DOST-PCAARRD will showcase dairy goat including other science and technology (S&T) agri-aqua research and development (R&D) outputs on March 2, 2016 during the SIPAG FIESTA technology forum at its headquarters in Los Baños, Laguna. SIPAG, a technology transfer strategy, embodies the Council’s commitment to DOST’s Outcome One in a bid to ensure that the fruits of R&D activities for the agri-aqua sectors will be a blessing for every Juan. The SIPAG FIESTA event will be held from March 2-4, 2016. by Livestock Research Division, DOST-PCAARRD S&T Media Service

Simpler Way to Find Out Feed Deficiency

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Experts suggested an easy way of finding out whether the chickens are being fed correctly. This is by looking at the floor of the pen to find out whether there are too many or too little feathers scattered around, or looking at the chickens to see whether some of them are already bald due to pecking by the other chickens. The underlying principle is, that the chickens will eat their feathers to get the protein they need. The chickens feathers and their fellow chicken's skins are good sources of protein. Tips showing when chickens are supplied with more protein are: when the chickens are bald, when chickens are suffering from wounds inflicted by other chickens that peck on them and when less feathers are scattered around. These techniques could easily be adapted to large scale commercial operations where collection of accurate weight and conversion data would not be possible. Source: Greenfields, July 1980

Goats’ Meat: sure bet in building rural assets

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The goat industry in the Philippines is considered a sunrise industry dominated by backyard raisers, but slowly becoming popular among commercial investors. In January 2015, it stands at a meager 3.67 million head, dropping by 0.58% from previous year’s production. In fact, the inventory has been decreasing annually since 2010. [caption id="" align="alignnone" width="500"]goat photo Photo by grongar [/caption] The country’s small goat population can be attributed to two basic factors--high slaughter rate and low productivity. Low productivity stems from the farmers’ limited knowledge on improved management practices and lack of access to quality breeders. This leads to long production cycles of more than 9 months and low conception rate of only 75% for the dam and high preweaning mortality rate (25%)  and low slaughter weight (15kg) for the kids. The low supply of goat’s meat amid its high demand, reveals goat production’s enormous potential, especially as consumers’ preferences shift to healthy options worldwide. Goat’s meat is known to be lower in saturated fat than chicken, pork and beef, low in cholesterol, but higher in protein. Goat production requires lower investment with a high rate of return. There is also high promise in producing authentic halal goat, a niche that Muslim Mindanao can embark on, considering the requirement of our Muslim brothers within and outside the country.
Slaughter Goat ISP accomplishments The GOAT Industry Strategic S&T Program (ISP) is an attempt to address the gaps and potentials of the country’s goat industry in a holistic way.  To improve goat productivity and enhance goat-based enterprises, the Program introduced science-based interventions on feeding, breeding, health, and farm recording. Three modalities developed by the Philippine Council for Agriculture, Aquatic and Natural Resources Research and Development of the Department of Science and Technology (DOST-PCAARRD) help bring these technologies to geographically dispersed raisers: the Farmer Livestock School on Goat Enterprise Management (FLS-GEM), the e-learning courses on goat, and the artificial insemination (AI) delivery system. As of Dec 2015, 2003 farmers of the targeted 2400 have been trained in Regions 1, 2, 3, 8, 10, 12, and CAR on improved goat production using the Program-developed modality, the FLS-GEM, a six-month long farm-based training for farmers. Seen as an effective modality, the FLS-GEM has been embraced by no less than the private sector-led Federation of Goat and Sheep Producers and Associations of the Philippines, Inc (FGASPAPI) as its national training modality for goat production. The association requires farmers to undergo this training before any goat from the government is dispersed to them. Raisers with access to the Internet who cannot be accommodated in the FLS were encouraged to enrol in the online goat courses available at www.e-extension.gov.ph/elearning. The training for FLS beneficiaries on breeding and proper feeding of does, addressed the problem of low dam performance. As of November 2015, conception rate has  increased from 75% to 87%.  This exceeds the target of 81% for 2015. Kidding interval (KI) was also shortened from 9 months to 8 months, thereby increasing kidding index from 1.35 to 1.52 kiddings/doe per year.  With the promotion of proper feeding, housing, and health regimen for does and kids, preweaning mortality also significantly dropped from 25% to 4.5%.

Hadja Horon Ngilay, halal goat farmer from General Santos City, is one of the cooperators for the PCAARRD project on the establishment of standard practices on halal goat production and quality assurance (Photo from the Livestock Research Division, DOST-PCAARRD)

To address the farmers’ lack of access to breeder bucks, the Program introduced artificial insemination (AI) using semen from exotic breeds. It also refined the protocol on goat AI and enhanced the semen extender mixture, Semex. This protocol was later institutionalized with the Unified National AI Program of the Dept. of Agriculture, which formerly catered only to cattle and carabao. As of November 2015, 214 technicians, 485 farmers, and 81 entrepreneurs have been trained on any of the required trainings: AI service provision; basic reproductive physiology and AI administration; or AI business aspects. Because of these, 1,765 does (out of 2700 targeted does) were inseminated in the six regions producing 875 additional kids. The infusion of quality genetic materials in these smallholder farms thru AI, led to the increase in average birth weight by 43% (1.5 -2.25kg) and slaughter weight by 80% (15kg to 27kg). Despite the success of the FLS and the AI delivery system in the six participating regions, there are still gaps on feeding, breeding and health that R&D needs to address. Since high mortalities of kids have been traced to the poor nutritional plane and disorders of the does before, during and after kidding, feeding interventions initially focused on the doe. Forage strata gardens were established, tested, and promoted. These gardens do not only serve as sources of planting materials but also as regular feed for the does.  At the moment, they are being converted into different variants of flush feeds for the does in the form of leaf meals and pelletized rations. Forage compactors have also been developed to ease storage of legume-grass hay for lean season feeding.  An herbal dewormer composed of Makahiya-Caimito-Makabuhay has also been completed and is awaiting commercialization by drug manufacturers.  This dewormer will address the current resistance of goat parasites to commercial dewormers. Aside from conditioning the doe prior to kidding, giving of preweaner supplements also helps increase kid survival. As there are currently no locally made feed products specifically for goat, several products were developed and tested.  These included a cocowater-based drench supplement for newborn kids and three creep feed formulations to help bridge the gap from liquid (milk) to solid (forage) feeding. The long production cycle of does was observed to be mainly due to seasonality of breeding (usually occurring from September to February) and lack of access of does to bucks.  To stimulate estrus and induce off-season breeding among does, three non-invasive heat induction techniques have been tested and will soon be promoted in the FLS and the online courses. Optimistic that the industry will attain an increase in goat population and volume over time, the Program developed two Philippine National Standards: the Code of Hygienic Slaughtering for Goat and Chevon Cuts.  These publications contain the protocols on goat slaughtering and cutting that have been standardized by ISU in collaboration with the Bureau of Agriculture and Fisheries Standards (BAFS). With these standards the industry can expect better slaughtering and cuts and can therefore institute the right pricing scheme. Likewise to add value to the products and ensure that nothing goes to waste after slaughtering, the Program developed and applied for patent nine chevon-based products from prime cuts, bones and meat trimmings. It also fabricated a bouillon dehydrator. Currently, the food products are either completing their shelf life studies or undergoing product labeling at the Industrial Technology Development Institute of the Department of Science and Technology (ITDI-DOST), and they will soon be registered with the National Meat Inspection Service (NMIS) prior to commercialization. Aware of the potential of producing halal goat products, the Program developed and tested halal assurance protocols on goat production, transport and marketing, slaughtering, processing, and lab-based haram detection. These protocols identified the critical control points where haram contamination occurs and the correct practice to address these. These are currently being developed into Philippine National Standards (PNS) with BAFS, NMIS, halal certification boards, and the National Commission on Muslim Filipinos (NCMF). Along with these protocols, 3 halal-compliant chevon-based food products (chevon jerky or tapa, sweet- cured chevon or tocino, shredded corned chevon) have been developed and are awaiting commercialization. To promote these protocols and products, a Farmer Livestock School on Halal Goat Enterprise Management is being developed using the original FLS-GEM as take-off point. DOST-PCAARRD will showcase Slaughter Goat ISP technologies including other science and technology (S&T) outputs on March 2-4, 2016 during the SIPAG FIESTA at its headquarters in Los Baños, Laguna. SIPAG, a technology transfer strategy, embodies the Council’s commitment to DOST’s Outcome One in a bid to ensure that the fruits of R&D activities for the agri-aqua sectors will be a blessing for every Juan.   by Livestock Research Division, DOST-PCAARRD S&T Media Service

Pellet feeds for goats as an enterprise

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The Central Luzon State University is promoting mature feed products and feeding schemes towards enterprise, particularly in goats. Goat raising needs a year-round supply of feeds.  In the Philippines, feeds are abundant during the wet season but scarce during the dry season.  Hence, processing feeds through pelleting is important.  A pellet is a small, solid or densely packed mass of feeds. Pellet feeds for goats are complete feeds formulated by pelleting feed ingredients needed to supply the animals’ nutritional needs for growth and lactation. Some of the ingredients that can be pelletized are Ipil-ipil, kakawate, and rensonii; concentrates; and mineral supplements. Ipil-ipil, kakawate, and rensonii can be processed into leaf meal as the protein source in the goat’s diet. Concentrates provide most of the energy as well as true protein needed by the animals. Mineral supplements, on the other hand, are important source of minerals such as calcium, phosphorus, sodium, and chloride. The palletized feed provides certain advantages. It makes feeding more efficient; enables animal raisers to obtain better quality of feeds, reduces labor, increases productivity because of faster growth rate of goats and more milk yield from lactating goats; requires lesser space during storage and can be stored at room temperature. Cost of producing the pellets for growing goats is P9.64 per kilogram and P10.01 per kilogram for lactating goats.  Cost could vary depending on the raw materials used and their prevailing prices.  The feeds can be sold at P11.00 per kilogram for growing goats and P11.50 per kilogram for lactating goats. Gross return is estimated at P110,000 and P115,000 per 10,000 kg for growing and lactating goats, respectively.

Family Backyard Poultry Project

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In the barangays, nearly every household keep some native chickens. Usually being left alone to fend for themselves, a hen produces 30-50 eggs per year as compared to imported stocks which can lay some 286 eggs per year. UPLB (1985) found that native birds, when given the same improved feed and management, could reach (at the first 180 days of lay) 48 percent of the egg production (or 137 eggs per year) of the commercial leghorn hybrids. The care of a small backyard poultry can help fill the family food requirements for eggs and meat. It can also be a source of additional income. A valuable by-product is the chicken manure which is a very excellent organic fertilizer for farm and home gardens. backyard poultry raising Project scheme 1. Each participating family will start with two properly selected upgraded roosters and ten layers (inabin; five for egg production and five layers to produce chicks for meat production). 2. A poultry house should be constructed using local materials for minimum expense. The house should have perch racks, roosts, nests, feedhoppers and waterers. The house should at Ieast be 7 feet high, with a floor area of 10 fl x 12 fl. It can also be provided with a fenced area as run and a growing house for the chicks. 3. The family could buy or raise the feed supplements like co., sorghum, ipil-ipil and others. 4. Recommended management practices on feeding and watering, brooding and rearing young chicks, culling and selection, record keeping, etc., should be followed. 5. Regular immunization (1-2 times a year against poultry diseases like avian pest, CRD, fowl pox, etc.) Feasibility study 1. Expenses 10 layers x P 40/layer = P400.00 2 roosters x P 50/rooster = 100.00 Housing and fence = 1,000.00 Vaccines/veterinary drugs = 25.00 Feed supplement = 500.00 Total = P 2,025.00 2. Egg Production Cycle 20 eggs/layer/month x 12 months = 240 eggs 240 eggs x 5 layers = 1,200 eggs/year 1,200 eggs/year x P 1.50/egg P 1,800.00 3. Meat Production Cycle A. Growing period Laying - 20 days Incubation - 21 days Brooding - 60 days One production cycle = 101 days or 3 cycles per year B. Production/Multiplication cycle Survival rate of chicks/hen/cycle = 10 chicks 10 chicks x 3 cycles/year = 30 chicks 30 chicks x 5 hens = 150 chicks Gross income from 5 hens/year 150 birds x P 30/bird P 4,500.00 4. Cost Analysis Gross income from egg production = P1,800.00 Gross income from meat production = 4,500.00 Total income for 3 cycles (1 year) = P6,300.00 Less: Expenses = 2,025.00 Net income = P4,275.00 Note: The roosters remain. To prevent broodiness of native chickens after laying, it is advisable to dip the birds in water. Home-made chicken feeds 4 cans yellow corn or broken rice (binlid) 1 1/2 cans rice bran (darak) 1 can dry fish meal or 2 parts fresh fish or ground snails 1 112 can copra oil meal 1/2 can copra oil meal 1/2 can ground mongo, sitao, patani or soy bean seeds 1/2 can dry ipil-ipil leaf meal 1 tablespoon salt 1 handful powdered shell/agricultural lime (apog) Notes: Use boiled gabi, ubi, cassava or camote as substitute for corn meal. Double the recommended amounts if ingredients are not in dry form. Use dried azolla or dried filter cake to replace part of the rice bran. A. Other Low-cost Poultry Feeds - bananas - fly maggots - fingerlings - azolla - snails - filter cake (dried and good) - termites - earthworms Filter cake is the dark brown-black sediment after clarification and filtration during the manufacture of sugar. B. Anti-nutrients in Some Feeds.

Kind

Anti- nutrient

Remedial measures

Sorghum

Tannin

Milling, use only the recommended amount

Legume

Protease inhibitors lectin

Boiling and toasting

Seed/beans Cassava

Cyanogen

Boiling, roasting, soaking

Ipi-ipil

Mimosine

Use recommended amont

C. Recommended Schedule of Vaccination (BAI).

Kind

Age of bird

Avian Pest Vaccine (Intranasal method)

1 day to 1-week old

Pigeon Pox Vaccine

One-month old

Roup Vaccine

Two-months old

Avian Pest Vaccine (Prick method)

Three-months old

Fowl Pox Vaccine

Four-months old

Fowl Cholera

Five-months old

Avian Pest Vaccine

Repeat after one year of laying

Muscovy ducks (bibe), pigeons and geese are hardy and could be raised in the backyard under adverse conditions. They do not require elaborate housing and can subsist on inexpensive feeds. Source: nzdl.org

Bondoc Peninsula native pigs project raises farmers’ income to P33,700 in two years, opens opportunities to bigger specialty “Lechon” market

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A native pig project in Bondoc Peninsula succeeds in raising income of farmers by P33,700 in two years just from selling piglets and opens bigger opportunities for them to sell the specialty “Lechon.” philippine native pigs The Food and Agriculture Organization (FAO) is replicating the success of this native pigs multiplier project funded by the Bureau of Agricultural Research (BAR). It is implemented by the University of the Philippines Los Banos (UPLB) Agricultural Systems Cluster-College of Agriculture. It is in two barangays located in two municipalities in Bondoc Peninsula, Quezon—Brgy. Latangan of Mulanay and Brgy. San Juan of San Narciso. Rural farmers’ income there traditionally reaches to only P5,000 to P6,000 yearly according to ipon-philippines.org. That is being raised by the Native Swine Project (NSP) by two to three times . “A farmer with two sows, each producing seven weanlings three times in two years will have added income of P33,700 from piglet sales alone,” said Dr. Mary Jean G. Bulatao, UPLB Native Swine Project (NSP) team leader. BAR is committed to implementing Phase 2 which expands the program to Real and Infanta, also in Quezon. The first phase was implemented from July 2009 to October 2011. “We want to raise livelihood opportunities in these mostly upland areas. Their increased production of native hogs will also enable them to meet a requirement for a specialty product that has a growing market in Metro Manila,” said BAR Director Nicomedes P. Eleazar. Dos por Cinco The native swine project’s production and repayment scheme have worked well in the selected Bondoc Peninsula communities. Each farmer-beneficiary received two ready-to-breed gilts (the Dos part). This enabled farmers to have a year-round supply of piglets. As observed in the community, a native sow normally farrows or gives birth to piglets two times in 14 months. This produces an average of 28 piglets. The project also provided five weanlings or piglets (the Cinco part) to farmers for immediate fattening. This should generate cash to farmers in three to four months. That’s cash while they are waiting for the gilts (young female pig) to produce piglets. Hardwork Dos por Cinco is not just a dole out system that is here today and gone tomorrow. It encourages farmers to work hard by contributing something to it. That is land, at least a 1,000 square meters (sq.m), and labor. They had to plant their farms with feed resources (such as Gabing san fernando, madre de agua, and some herbal plants for supplements. A main feed resource is the Gabing San Fernando (GSF). GSF corm is reported by UPLB Researcher Virgilio T. Villancio to be capable of substituting corn by 60 to 90 percent as the feed ingredient’s energy source. Farmers also had to grow GSF and Trichantera or madre de agua. They had to construct a simple animal shed to protect animals from harsh environment. They had to care for the animals, put up fences in order to block stray animals from destroying the farm. GSF corm is a tubelike portion of the GSF’s stembase and forms part of the main root system. It is also used as a planting material. It is locally called “sakwa” or “bungo” in Bondoc Peninsula. “The project promoted the use of sakwa (a by-product) as the main source of energy feed for ranging native swine to improve nutrient availability and increase the average daily gain of the animals,” said Bulatao. Profitable Native pig business can be profitable. For a 25-kilo pig, a farmer can enjoy a P780 income per head. If a farmer decides to raise five heads in one cycle (five to six months), or a total of 10 heads per year, he will have an added income of P7,800 yearly. Based on the project’s data, native sows can produce an average of seven live piglets in a litter. A farmer with two sows producing seven weanlings each, two times in 14 months , can have an added income of about P22,484 in 14 months or about P33,700 per two years from piglets alone. “These may be modest added returns but very important to the farmers. These become a significant buffer income in times of unexpected needs. Farmers are now starting to treat this activity as a business enterprise,” said Bulatao. Weight gain The improvement in the quality of feeds given by the farmers to their native pigs from farmers’ own feed garden raised the average daily gain (ADG) of the native pigs. The farmers were encouraged that they can earn higher from the GSF feeding. And that is without changing much of their traditional pig growing practices. ADG for San Narciso was 0.13 kilos and Mulanay, 0.12 kilos. That is a significant improvement of at least 33 percent from their previous 0.09 kilos daily weight gain. Slaughter weight of animals is 15 to 30 kilos. Higher ADG cut the fattening period of a 21-kilo pig by one month. That’s an important opportunity to turn money around over a shorter time. Paying back Farmers pay for the Dos por Cinco gilts and fattening weanlings by giving back piglets. They are considered debt-free once they give back the number of piglets whose price is equal to the purchase cost of the loaned animals. Their piglet payments become part of a multiplier program. These are re-loaned to other organization members. At the start, the project had 12 farmer partners—six in each of the barangay pilot areas. Beneficiaries are now at least 45 including the original 12 farmers, (as of this May 2013 at least 54 farmers), a 300 percent growth! In two years, animal inventory of the farmers increased by 50 to 100 percent, while household income was up by 50 percent. Repayment is placed at 80 percent. Because authorities saw how the NSP beneficiaries multiplied fast with good repayment rate, the FAO-International Labor Organization Livelihood Project adapted the Dos por Cinco scheme. It operates in the same area. It provided the Dos por Cinco package or module to an additional 35 RIC (Rural Improvement Club) members in the Mulanay site. The pig module (with two gilts, five weanlings) per farmer costs around P15,000. Moreover, the local government of San Narciso also released some funds to benefit an additional three to five farmers initially. GSF is now a valued feed product with its cormlet as food and sakwa as feed. Sakwa for native swine feed is now sold at P120 per sack in the market. It was only thought as waste before and given away free-of-charge. Value adding Phase 2 is stepping up help to farmers by providing options in marketing. The first is on value adding, particularly meat processing. It involves producing finished products like sausage, longganiza, or cut-up pork that will give them an even higher income. A freezer and other basic equipment like vacuum packaging machine, meat grinder, and some tools will be provided to the organization . Good Agricultural Practice and Good Manufacturing Practice will be observed to assure clean and safe meat for consumers. The other choice is for the farmer organization to become an assembler or consolidator. It involves gathering the animals from individual farmer members and selling in bulk to the assemblers-truckers. They themselves may also transport the animals to Metro Manila, acting as an assembler-trucker . But they need to be able to gather at least 200 animals at a single time for the transport to be cost efficient. These programs will channel to farmers a portion of the income that goes to assemblers, `traders-transporters-. At present, the link between farmers and lechon processors are the traders. But in the future there is a plan to link the Bondoc Peninsula native pig producers (as an organization) to other processors and lechon retail chains. This will market their hogs not only to Metro Manila but also to nearby urban centers like the cities of Lucena, San Pablo and Lipa. Smaller margin Farmers’ direct contact to market will raise their income. At present, they are losing income opportunities that normally go to middlemen or traders. “The animals have to pass through the village agent then to the municipal agent-assembler before they are loaded for delivery to the lechon processor by the trucker-assembler,” she said. For instance, for a small 17-kilo or less live pig , a farmer receives a farmgate price of P1,000. The agent resells this at P1,200. Then the trucker resells it at P1,600. The lechon processor sells at P2,244. Healthy It has been a tradition for coconut farmer sin Bondoc Peninsula to raise native pigs. They sell these for full sized lechon or for “Lechon de Leche,” a roasted pig in its tender meat and crispy skin. Its preferable taste compared to commercial breeds may be attributed to the native breed. The flavor of native lechon is also attributed to the production system. Being raised free-range (roaming under coconut trees), the pigs become lean from the daily exercise and are able to access vegetation in the area. Other herbs The animals need other feed ingredients like the Trichantera gigantea as protein source. The native pigs’ feed is a combination of two or three of different feed ingredients that are boiled together. The choices are GSF corm, gabi tubers, gabi leaves and trunks, rice and corn bran, matured coconut meat, cassava, banana trunk, market wastes, kitchen refuse, kangkong, papaya, oraro rejects, malunggay, mixed vegetable refuse, ipil-ipil, sweet potato leaves, Trichantera or Madre de Agua. Boars and lactating sows are given rice or corn bran added into cooked feed. Feeding is two times a day. Breeding program The ongoing Phase 2 will also involve breeding. It has a partnership with the Bureau of Animal Industry (BAI)-National Swine and Poultry Research and Development Center based in Tiaong, Quezon. BAI is engaged in a study on “Animal Genomics to Increase Productivity Part of the BAI-NSPRDC project is to characterize and conserve the Philippine native pigs. . Bulatao said this is of the essence. “While native pigs are considered disease resistant compared to commercial breed, the project still encountered mortality due to disease,” she said. Native pigs, unlike the imported white breeds, are usually colored black or have spots. Production As of July 2011, the San Narciso site produced a total of 173 animals. These were 15 breeders, 110 weaners, and 48 piglets. The Mulanay site produced 189 animals. These were 15 breeders, 128 weaners, and 46 piglets. After six-seven months of planting GSF, farmers’ fields yielded an average of 240 kilos of fresh GSF tuber per 1,000 sq.m.(2.4 tons per hectare). In Brgy. San Narciso, after seven months, farmers produced 2.2 tons per hectare of sakwa; 2.4 tons per hectare of gabi; and 7.6 tons per hectare of herbage) In Brgy. Mulanay, after six months, farmers produced 390 kilos of sakwa per 1,000 sq.m., 6,420 kilos of gabi over the same area, and 760 kilos of herbage. San Narciso farmers sold their pigs at P94 per kilo of live weight while Mulanay, at P90 per kilo. Weanlings were priced P800 to P1,000 per head. Average farm gate price of native pigs per head was P2,161 for Mulanay for an average weight of 24.49 kilos and P1,787 per head for San Narciso for an average weight of 19.03 kilos. Bondoc Peninsula The farmers in the pilot program in Brgy. Latangan, Mulanay came from the Rural Improvement Club (RIC), a women’s group supported by the town local government unit. A total of 22 out of 43 RIC members became partners at the end of two years. “The number is continuously growing as other members await their turns to receive five heads of native swine,” said Bulatao. In San Narciso, the farmers already formed a group-- San Juan Native Swine Producers Association. Farmers underwent training and visited the National Swine and Poultry Research and Development Center in Tiaong, Quezon and the Animal and Dairy Sciences Cluster Farm in UP Los Banos. They were trained on Good Agricultural Practices to improve their native pig production practices including prevention and management of common swine diseases. It also included preparation of common herbal supplements to improve animal health and reduce mortality. They were also taught on record keeping and financial management. ### For any questions, please call Dr. Mary Jean G. Bulatao, UPLB-CA; for interview requests, Ms. Analiza C. Mendoza, 0923-436-3177

Creating livelihood opportunities from the milk of the beast

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Milk is one of the most critical food commodities in the Philippines. About 16% of Filipinos, especially preschoolers and senior citizens, are highly dependent on it. In 2014, local production was 19.73 million liters, of which about 34.77% is supplied by buffaloes (Philippine Statistics Authority, 2015). To achieve a significant increase in milk production, however, the industry needs more genetically improved animals and enhancement of handling and processing efficiency of milk to minimize spoilage and add value to locally produced dairy products.
 

Dairy buffaloes at the Philippine Carabao Center (PCC) (Photo from PCC)

To improve local milk production, the Philippine Carabao Center (PCC) has introduced village-based buffalo dairying since 1999. Some 54 farmer-cooperatives in Nueva Ecija have been engaged, most of which have federated into the Nueva Ecija Federation of Dairy Carabao Cooperatives (NEFEDCCO).  Purebred buffalo dairying was introduced along with crossbred buffalo dairying in selected communities in the country.  Despite continuous efforts at improving production, milk yield remain low.  In 2014, total milk produced on a once-a-day milking scheme, increased only to an average of 5.13 kg per buffalo. Several problems were seen to impede milk production performance including mismatch of feeding and level of milk production; asynchrony of ovarian physiology; marked seasonality of production and fertility; silent estrus (heat); incidence of liverfluke, surra, and mastitis; short lactation periods and low milk quality, which impacts on the marketability of the produced milk; and lack of sustainability mechanism for dairy enterprise development. As the goal is to create sustainable livelihood, promote better nutrition and general well-being of small farmers and ensure stable supply of raw materials for specialty dairy products, the Industry Strategic S&T Program (ISP) on Dairy Buffalo is therefore focused on breeding and genetic improvement, nutrition and feeding, reproduction and health management, milk quality and safety assurance, capability building, and milk-based livelihood and enterprise development. To address the very slow rate of milk production improvement, a project on Genotyping the Philippine water buffaloes using medium density 90K buffalo SNP panel, has been approved by DOST-PCAARRD and implemented by PCC. Field verification of the phenotypic expression of genetic characteristics related to milk production and application of gene marker technology (SNPs) in breeding and selection are being employed for improved milk production. This will eventually increase milk production by 40%. Low calf production of only 35% and limited number of cows in the milk line are also problems that the industry has to address.  With respect to this, field testing and application of assisted reproduction technologies will be implemented to eventually help milk production at the farm level.  With the implementation of these assisted reproduction techniques in 30% of farms, an additional 50% calf production and 50% cows in the milk line are expected. At the moment, the country’s dairy buffaloes are capable of giving only around 5 li of milk per day.  Lactation period is short at 270 days and calf mortality is 10%. S&T gaps seen were on feeding management and calf rearing.  To address this, several Community Based S&T-based Farms (CBSTBF) are currently being implemented.

Dairy buffaloes waiting for their turn to be milked in PCC’s Gene Pool facility (Photo from Victor V. Oro)

The CBSTBF on the Use of flushing and supplementation to enhance the carabao-based dairy farms, is being implemented in Leyte and has resulted to an increase in the number of farmers collecting milk as well as higher amount of milk collected from dairy buffaloes.  There is also the CBSTBF on the Preparation and utilization of urea-treated rice straw (UTRS) as fodder for dairy buffaloes in Llanera, Nueva Ecija, the CBSTBF on Improving the carabao-based dairy farms in Magdalena, Laguna, and the CBSTBF on Cassava Foliage feeding for dairy buffaloes in Bohol. All these CBSTBFs promote wider adoption of different feeds and milk replacer to ultimately improve milk production at the farm level. Expected from these are an increase in lactation to 300 days, increase in milk production to 7 li/d and increase in calf’s survival rate to 95%. To improve milk collection and handling and address the current inefficiencies in production to post-production, development of milk collection system, cold storage and milk testing facilities will be implemented soon. These initiatives will develop a milk collection system, introduce cold storage and milk testing facilities and reduce spoilage to 10%.  All these combined will help increase the volume of saleable milk and farm income. To improve milk marketing and distribution, several TechnoMart projects are being implemented thru funding support from DOST-PCAARRD.  These are on the Commercialization of grass/forage corn silage for dairy buffaloes in Lupao, Nueva Ecija; TechnoMart on Enhancing the carabao-based dairy enterprise in Magdalena, Laguna and Rosario, Batangas.  Under TechnoMart, community cluster milk collection systems are established and farmers are taught means of value-adding, product enhancement, certification and quality testing and commercialization with the hope of establishing a better marketing system for dairy products.  These will eventually give higher revenues from milk due to effective and efficient marketing of milk and milk products. To unify all efforts towards increasing annual milk production of purebred dairy buffaloes in Nueva Ecija from 500,000 kg to at least 2,000,000 kg and of crossbred buffaloes in San Agustin, Isabela from 17,000 kg to at least 190,000 kg over a period of three years, a new program has recently been approved by PCAARRD appropriately titled “Enhancing Milk Production of Water Buffaloes through S&T Interventions.” Information derived from farmer testing will be the basis for updating PCC’s best practices in dairy buffalo management and for advocating policy programs that will further support and strengthen the local dairy industry. DOST-PCAARRD will showcase these technologies under its Dairy Buffalo S&T Program, including other agri-aqua science and technology (S&T) outputs on March 2-4, 2016 during the Council’s SIPAG FIESTA at its headquarters in Los Baños, Laguna. SIPAG, a technology transfer strategy, embodies the Council's commitment to DOST's Outcome One in a bid to ensure that the fruits of R&D activities for the agri-aqua sectors will be a blessing for every Juan.

Microalgae can be a potential feed for aquaculture species

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Microalgae, which are sources of natural aquatic products, are now gaining attention as an ideal potential feed for aquaculture purposes. [caption id="attachment_14555" align="alignnone" width="600"] by NirvanaFan01234[/caption] At the University of the Philippines Visayas (UPV), the program on the development of algal paste from microalgae under the National Aquafeeds R&D Program is currently being funded by PCAARRD and Department of Science and Technology (DOST). The program studies three brackishwater microalgal species, namely, Tetraselmis sp., Nannochloropsis sp., and Chaetoceros calcitrans. These species, which are used in the mass production of algal paste, are cultured by batch in the laboratory and are continuously monitored for quality control. Microalgae are small unicellular plants found in marine, freshwater, and brackishwater habitats. They are considered as one of the most important aquatic organisms for its many uses in various fields. They are also fast-growing plants, with their doubling time measured in hours. For aquaculture, microalgae concentrates are used as feed for small zooplankters (rotifers, etc.) which in turn are fed to fish and shrimp larvae. These are produced commercially from closely controlled laboratory methods to less predictable methods in outdoor tanks or ponds. Algal mass production is dependent on algal strains, weather, and culture techniques. Aside from aquaculture, microalgae are also produced commercially for high-value nutritional products and wastewater treatment applications. For its culture, algae are harvested and prepared using a chemical flocculant once it has reached its peak density. Concentrated cells collected are transferred in another container for another settling process and filtered until pastes are formed. The advantage of using algal paste is that it can be used as an alternative to on-site algal culture, especially when rations of live microalgae are insufficient. Also, microalgae paste can be kept under refrigerated condition without sacrificing the nutritional quality for several months. Microalgal paste is an instant feed that can be applied easily for aquaculture purposes anytime for fish stock. Commercial algal paste costs US$50 to US$150 per liter paste, depending on the species. With microalgal paste, worries on phytoplankton culture and maintenance can be reduced, if not eliminated. Algal paste as an alternative for live microalgae production will surely benefit the local industries, particularly those engaged in milkfish, shrimp, and tilapia hatcheries by lowering their production and labor cost. Microalgal pastes are now being produced at the Institute of Aquaculture, UPV-College of Fisheries and Ocean Sciences in Miag-ao, Iloilo. The PCAARRD-DOST program, which is on its second year of implementation, is currently conducting experiments to further verify the pastes’ nutritional quality and shelf life.

Backyard Integrated Pig-Fish Culture

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Integrated pig-fish culture is not a new concept; it has been practiced for many years in most of Asia. Raising pigs and fish at the same time has several advantages: · Fish farmers can produce fish without feeding and hauling manure to fertilize the pond. · Pig-fish culture maximizes land use by integrating two farm enterprises in the same area. · The fish pond serves as a sanitary disposal place for animal wastes. · Backyard integrated pig-fish culture provides additional income and a cheap source of animal protein for the family. ESTABLISHING THE SYSTEM 1. Pond Construction Establish the pond near a water source. However, the site should be free from flooding. Inlet and outlet pipes should be installed and screened. backyard pig-fish culture One pig can sufficiently fertilize a 100-150 sq m pond with. its manure. The water depth should be maintained at 60-100 cm. With this recommended pond area and water depth together with the right stocking density, problems of organic pollution are avoided. A diversion canal can be constructed to channel excess manure into a compost pit or when manure loading needs to be stopped. 2. Location of the Pig Pen The pig pen should be constructed over the dikes near the fish pond. Preferably, the floor should be made of concrete and should slope toward the pond. A pipe is necessary to convey the manure into the pond. An alternative design is to construct the pig pen over the pond. The floor is made of bamboo slats spaced just enough to allow manure to fall directly into the pond but not too wide for the feet of the pigs to slip into (thus, causing injuries). The pen should have a floor area of 1 m x 1.5 m for each pig. 3. Stocking · Stock the pond with fingerlings once the pond is filled up with water. The recommended stocking rate are as follows: Monoculture: Tilapia (Oreochromis niloticus) -2 fish/sq m (3-5 g eve wt)

Polyculture

:200 fish/100 sq m (3-5 g eve wt)


85% Tilapia(170 fingerlings)


13% Common carp (Cyprinus carplo, 26 fingerlings)


2% Snake heads (Channa striata) and


Cat fish (Clarlas batrachus) - 4 fingerlings, 1-2 9 eve wt

Polyculture:

200 fish/100 sq m (Vietnam and Thailand experience)


50% Pangaslus micronemus (100 fingerlings, 10 g)


30% Tilapia (60 fingerlings, 3-5 g)


20% Kissing gourami (Hllostoma temminckl) - 40 fingerlings, 1-2g

· Stock the pig pen with 8-10 kg or 1 1/2 month old weanlings. · Fish and piglets can be stocked at the same time. 4. Feeding Feed the pigs twice a day. Supplemental feeds such as ipil-ipil (Leucaena leucocephala) or kangkong (Ipomea aquatica) may be given. 5. Harvesting · Harvest the fish after 4-5 months. Collect fingerlings for the next growing season; sell the surplus. Partial harvesting for family consumption can also be done as needed. · Sell the pig after 4-5 months.. · Scrape out the organic waste or mud on the pond floor and use as fertilizer for the vegetable crop. LIMITATIONS · High cost of inputs (feeds and weanlings) · Consumers may be reluctant to eat fish produced in manure-loaded ponds, creating potential marketing problems. · Farmers want their animals close to their homes (because of theft problems, and this may not be always possible. POSSIBLE SOLUTIONS TO OVERCOME SOME OF THE LIMITATIONS 1. Raise crossbred/native pigs to reduce feed cost. 2. To make the harvested fish from manure-loaded ponds more acceptable to consumers, remove the socalled "muddy" or off- flavor taste by: · Stop loading manure to the pond a few days before harvesting fish. · Transfer harvested fish to a net enclosure installed in a clear pond at least 4-6 hours prior to selling or eating them. Cost and return of the backyard integrated pig-fish culture (five months)


COSTS

Pig component


Weanling

P 1,000.00

Commercial feeds

1,246.60

Medicines

34 00

Rice bran (25 kg)

87.50

Labor

300.00

Pig pen maintenance

50.00

Fish component


Pond maintenance

250.00

Fingerlings

40.00


P 3,008.10

Income Output


Pig (1 head)

P 3,050 00

Fish (27.5 kg at 40/kg)

1,100.00

Fish fingerlings (1 ,100 at P.02/piece)

220.00


P 4,370.00

Balance

P 1,369.90

Capital Investments (Fixed items)


Pig pen (P500 at 6 years)

P 500.00

Pond construction

200.00

Bucket

80.00


P 780.00

Rate of return on investment = (1369.90 /780) x100 = 176% Note: * For P00 invested, the farmer gets P176.00 * Entire capital costs can be recovered in one production cycle and yet retain a surplus. source: www.nzdl.org

Baboy-ramo: A good source of food and bucks

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Barrel-like body balanced on top of four long slender legs. Black hair arranged in bristles. Tusks curling out of its mouth, kept sharp and nice. Growl Just hearing its grumble shattering the silence, one would instantly feel the cold air pressing into his body knowing that this creature is in full alert, ready to defend ...
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