# Milkfish Farming: Hatchery, Nursery, and Pond Grow-Out Systems ## Key Takeaways - **Hatchery Critical Parameters:** Successful milkfish fry production hinges on meticulous control of water quality (temperature 27-30°C, salinity 30-34 ppt, DO > 5 mg/L, ammonia < 0.1 mg/L) and a consistent supply of live feed, primarily rotifers and *Artemia* nauplii, transitioning to microdiets around day 15-20 post-hatch. - **Nursery and Grow-Out Management:** Nursery ponds require drying, liming, and fertilization for natural food production, with stocking densities of 5-20 fingerlings/m², while grow-out ponds (0.5-5 ha) support 1,000-20,000 fish/ha, demanding strict water quality monitoring (DO > 4 mg/L, pH 7.0-8.5, ammonia < 0.5 mg/L) and adjusted feeding rates based on biomass and temperature. - **Disease and Biosecurity:** Hatcheries are vulnerable to bacterial pathogens like *Vibrio* spp. and *Edwardsiella anguillarum*; biosecurity measures including water disinfection, UV treatment, and quarantine are crucial, with professional veterinary consultation recommended for mortality exceeding 5% daily. - **Environmental and Sustainability Concerns:** Milkfish farming can contribute to nutrient loading and eutrophication, necessitating proper feed management and water exchange; antibiotic use risks resistance development, emphasizing preventive health strategies and avoiding routine antibiotic administration. - **Stocking Density and Feeding Optimization:** Optimal stocking density is dictated by water exchange capacity and aeration, while feeding rates are calculated as a percentage of biomass and adjusted daily based on temperature, fish size, and feeding tray observations to achieve target Feed Conversion Ratios (FCR) of 1.5-2.0. - **Record Keeping and Escalation:** Comprehensive daily and weekly records of water quality, feeding, growth, and mortality are essential for proactive management; professional escalation is warranted for persistent disease outbreaks, unmanageable water quality issues, or significant growth rate deviations. --- Milkfish (*Chanos chanos*) farming is a well-established aquaculture practice across tropical Asia, particularly in the Philippines, Indonesia, Taiwan, and parts of the Pacific. This article provides practical protocols for hatchery fry production, nursery rearing, and pond grow-out management, drawing on peer-reviewed research and institutional guidance from the Food and Agriculture Organization (FAO) and the USDA Agricultural Research Service. The content is intended for farmers and farm managers operating in tropical brackishwater and marine environments who seek evidence-based decisions for each production stage. ## At a Glance: Milkfish Production System Overview | Production Stage | Typical Duration | Key Infrastructure | Primary Management Focus | |---|---|---|---| | Hatchery (fry production) | 21-30 days post-hatch | Broodstock tanks, spawning tanks, larval rearing tanks, live feed culture | Water quality, broodstock nutrition, larval feeding, disease prevention | | Nursery (fingerling rearing) | 30-60 days | Nursery ponds or tanks, aeration, feeding trays | Stocking density, feed transition, size grading, predator control | | Grow-out (pond culture) | 4-8 months | Brackishwater ponds, water supply canals, drainage, feeding platforms | Water exchange, feeding rate, harvest scheduling, environmental monitoring | ## Hatchery Fry Production ### Broodstock Selection and Conditioning Milkfish broodstock are typically sourced from wild-caught adults or from farm-raised fish maintained for at least two years. Broodstock should be held in separate tanks or ponds with good water quality, adequate space, and a diet rich in essential fatty acids. The FAO provides general guidance on broodstock management for cultured species, emphasizing the importance of maintaining optimal water temperature (26-30°C) and salinity (30-34 ppt) for spawning induction. Broodstock conditioning involves feeding high-quality commercial feeds supplemented with vitamins and minerals to support gonadal development. ### Spawning and Egg Collection Milkfish are natural spawners in the wild, with spawning seasons varying by location. Research on milkfish seasonality and abundance at Teouma Bay, Vanuatu, indicates that spawning occurs during specific periods, which can inform hatchery timing. In captivity, spawning is often induced using hormonal treatments or by manipulating environmental cues such as photoperiod and temperature. Eggs are collected using fine-mesh nets or egg collectors placed at the outflow of spawning tanks. Fertilized eggs are buoyant and should be transferred to incubation tanks within hours of collection. ### Larval Rearing Larval rearing is the most critical phase in milkfish hatchery production. Larvae are extremely sensitive to water quality, temperature, and feed availability. The first feeding stage typically begins 2-3 days post-hatch, when larvae require live feed such as rotifers (*Brachionus* spp.) and later *Artemia* nauplii. Water quality parameters must be maintained within narrow ranges: temperature 27-30°C, salinity 30-34 ppt, dissolved oxygen above 5 mg/L, and ammonia below 0.1 mg/L. Tanks should be equipped with gentle aeration and regular water exchange to prevent waste accumulation. ### Live Feed Production A reliable supply of live feed is essential for hatchery success. Rotifers are cultured in separate tanks using microalgae or commercial concentrates. *Artemia* cysts are hatched daily and fed to larvae as they grow. The transition from live feed to formulated microdiets should be gradual, typically starting around day 15-20 post-hatch. Inadequate live feed quality or quantity can lead to poor growth, high mortality, and increased susceptibility to disease. ### Disease Prevention in Hatcheries Hatchery environments are prone to bacterial and parasitic infections. Common pathogens include *Vibrio* spp. and *Edwardsiella* spp. A 2024 study on the comparative pathogenicity of *Edwardsiella anguillarum* in milkfish, Nile tilapia, and Asian seabass found that milkfish are susceptible to this bacterium, with histopathological changes observed in infected fish. Similarly, research on *Nocardia seriolae* pathogenicity in milkfish indicates that this bacterium can cause significant disease. Hatchery biosecurity measures include disinfection of incoming water, UV treatment, regular cleaning of tanks and equipment, and quarantine of new broodstock. The USDA National Agricultural Library provides resources on animal health and welfare that can inform biosecurity protocols. ### Hatchery Records and Measurements Maintain daily records of: - Water temperature, salinity, pH, dissolved oxygen, and ammonia levels - Larval survival and growth rates (measured by sampling and weighing) - Feed type, quantity, and feeding frequency - Disease outbreaks and treatments applied - Egg production and fertilization rates ## Nursery Rearing ### Pond Preparation for Nursery Nursery ponds should be drained, dried, and limed before each stocking cycle. This practice helps eliminate predators, competitors, and disease organisms. Fertilization with organic or inorganic fertilizers promotes natural food production (plankton and benthic algae), which is important for early fingerling growth. Water is gradually introduced through a fine-mesh screen to prevent entry of wild fish and predators. ### Stocking Density and Feeding Nursery ponds are typically stocked at densities of 5-20 fingerlings per square meter, depending on the desired harvest size and pond productivity. Fingerlings are fed a combination of natural food and supplemental feeds. Commercial starter crumbles or finely ground pellets are offered multiple times daily. Feeding rates should be adjusted based on observed consumption and water quality. Overfeeding leads to waste accumulation and poor water quality. ### Size Grading and Harvest After 30-60 days, fingerlings reach a size of 5-10 cm and are ready for transfer to grow-out ponds. Grading by size is recommended to reduce cannibalism and competition. Fingerlings are harvested using seine nets or by draining the pond. Care should be taken to minimize handling stress and physical damage. ### Nursery Records and Measurements Record: - Stocking date, density, and source of fry - Daily feeding rates and feed type - Water quality parameters (temperature, salinity, dissolved oxygen, pH) - Growth measurements (length and weight) taken weekly - Mortality events and causes - Harvest date, number, and average size of fingerlings ## Pond Grow-Out Systems ### Pond Design and Preparation Grow-out ponds for milkfish are typically earthen ponds located in coastal brackishwater areas. Pond size ranges from 0.5 to 5 hectares, with water depths of 0.5-1.5 meters. Proper pond design includes water supply and drainage canals, dikes, and gates for water exchange. Before stocking, ponds are drained, dried, and treated with lime to adjust pH and eliminate pests. Fertilization is applied to promote natural food production, which reduces feed costs and improves water quality. ### Stocking and Feeding Milkfish are stocked at densities of 1,000-5,000 fish per hectare in extensive systems and up to 10,000-20,000 fish per hectare in semi-intensive systems. Feeding is typically done with commercial pellets containing 25-30% crude protein. Feeding rates are calculated based on fish biomass and water temperature. In intensive systems, automatic feeders or feeding trays are used to monitor consumption and reduce waste. The FAO provides general guidance on feeding practices for cultured species. ### Water Quality Management Maintaining good water quality is essential for milkfish health and growth. Key parameters include: - Temperature: 26-32°C - Salinity: 15-35 ppt (milkfish tolerate a wide range) - Dissolved oxygen: above 4 mg/L - pH: 7.0-8.5 - Ammonia: below 0.5 mg/L Regular water exchange (10-30% daily) helps maintain water quality. Aeration may be necessary in high-density ponds, especially during hot weather or at night. Research on environmental salinity and hypothermal stress in milkfish indicates that salinity levels can influence the fish's response to temperature changes, which is relevant for pond management during cold spells. ### Polyculture and Integrated Systems Polyculture of milkfish with other species can improve resource use and farm profitability. A 2025 study on land utilization for polyculture of milkfish and vannamei shrimp in Karossa, Central Mamuju, Indonesia, found that this system has potential for sustainable brackishwater aquaculture, though challenges include limited infrastructure and low adoption of modern technology. Integrated multi-trophic aquaculture (IMTA) systems, such as those combining milkfish with sandfish (*Holothuria scabra*) and hard clams (*Meretrix taiwanica*), have been studied for their environmental and economic benefits. Research on IMTA of sandfish with hard clam and milkfish under environmental stress showed that survival of sandfish varied by substrate type and coculture arrangement, with sandy substrates yielding higher survival than muddy substrates. ### Harvesting Milkfish are typically harvested after 4-8 months when they reach market size of 300-500 grams. Harvesting is done by seining or draining the pond. Fish should be harvested during cooler parts of the day to reduce stress. After harvest, fish are placed in clean water with ice to maintain quality. Proper handling and rapid chilling are essential for [food safety](/knowledge/bacteria/livestock-bacteria/cooking-chicken-bacteria-prevention) and product quality. ### Grow-Out Records and Measurements Maintain records of: - Stocking date, density, and source of fingerlings - Daily feeding rates and feed type - Water quality parameters measured at least twice daily - Growth samples (weight and length) taken monthly - Mortality events and causes - Disease treatments and outcomes - Harvest date, total weight, and average fish size - [Feed conversion ratio](/knowledge/animal-farming/poultry/feed-conversion-ratio-measuring-improving-poultry-efficiency) (FCR) calculated as total feed given divided by total weight gain ## Common Failure Patterns in Milkfish Farming ### Hatchery Failures - Poor egg quality due to inadequate broodstock nutrition or stress - High larval mortality from bacterial infections or poor water quality - Inadequate live feed supply leading to starvation or nutritional deficiency - Equipment failure (aeration, water pumps) causing oxygen depletion ### Nursery Failures - Predation by insects, birds, or wild fish entering through water supply - Disease outbreaks from overcrowding or poor water quality - Cannibalism due to size variation - Poor growth from inadequate feeding or low natural food production ### Grow-Out Failures - Water quality deterioration from overfeeding or insufficient water exchange - Disease outbreaks, particularly bacterial infections such as *Edwardsiella anguillarum* and *Nocardia seriolae* - Environmental stressors such as temperature extremes, low dissolved oxygen, or salinity fluctuations - Algal blooms that can cause oxygen depletion at night - Microplastic contamination in aquaculture systems, as documented in a 2023 study on microplastic ingestion by adult milkfish in Butuan Bay, Philippines ## Environmental and Sustainability Considerations ### Nutrient Loading and Eutrophication Milkfish farming can contribute to nutrient loading in surrounding waters, particularly in areas with high stocking densities and limited water exchange. A 2002 study on the impacts of milkfish aquaculture on carbon and nutrient fluxes in the Bolinao area, Philippines, documented significant nutrient inputs from feed and fish waste. These nutrients can lead to eutrophication, algal blooms, and oxygen depletion in receiving waters. Farmers should implement best management practices to minimize nutrient discharge, including proper feed management, water exchange, and treatment of effluents. ### Antibiotic Resistance and Environmental Health The use of antibiotics in aquaculture can lead to the development of antibiotic-resistant bacteria and resistance genes in the environment. A 2022 study on sub-lethal concentrations of sulfamethoxazole in milkfish mariculture found that this antibiotic affected growth performance and altered the microbial composition of antibiotic-resistant bacteria. Farmers should avoid routine use of antibiotics and instead focus on prevention through good husbandry, biosecurity, and water quality management. ### Climate Change Impacts Climate change poses risks to milkfish farming through rising sea temperatures, changes in rainfall patterns, and increased frequency of extreme weather events. A 2024 time series analysis of milkfish production in Davao Oriental, Philippines, using the SARIMA model, found that production fluctuations were influenced by environmental factors such as typhoons, rain, diseases, and abnormally high sea surface temperatures. Farmers should monitor weather forecasts and have contingency plans for extreme events. ### Sustainable Practices Adopting sustainable practices can improve the long-term viability of milkfish farming. A 2025 review on sustainable aquaculture practices for milkfish in Asia highlighted the importance of integrated approaches, including Multitrophic Recirculating Aquaculture Systems (MRAS), integrated farming systems, and genetic improvements in hatchery technologies. These practices enhance water quality, reduce environmental footprint, and promote long-term viability. Policy frameworks, including regulatory measures, certification systems, and public-private partnerships, are also essential for supporting sustainable milkfish production. ## Welfare and Safety Context ### Fish Welfare Good welfare practices improve fish health, growth, and product quality. Key welfare considerations include: - Maintaining optimal water quality and temperature - Providing adequate space and appropriate stocking densities - Minimizing handling stress during grading, transport, and harvest - Using humane slaughter methods - Monitoring for signs of disease or distress The USDA National Agricultural Library provides resources on animal health and welfare that can inform welfare practices in aquaculture. ### Worker Safety Farm workers should be trained in safe handling of equipment, chemicals, and fish. Personal protective equipment (PPE) such as gloves, boots, and life jackets should be used when appropriate. Workers should be aware of hazards such as drowning, electrical equipment, and chemical exposure. First aid kits and emergency procedures should be in place. ### [Food Safety](/knowledge/bacteria/livestock-bacteria/cooking-chicken-bacteria-prevention) Milkfish products should be handled and processed in accordance with food safety standards. This includes: - Harvesting fish from clean water - Rapid chilling after harvest - Proper storage and transport temperatures - Avoiding contamination from equipment or workers - Testing for contaminants such as heavy metals, microplastics, and antibiotic residues ## Professional Escalation Criteria Farmers should seek professional assistance from aquaculture extension officers, veterinarians, or research institutions when: - Disease outbreaks cause mortality exceeding 5% per day - Water quality parameters fall outside acceptable ranges despite corrective actions - Fish show unusual behavior or lesions that cannot be diagnosed - Growth rates are significantly below expected levels - Environmental conditions (e.g., algal blooms, pollution events) threaten farm operations - Regulatory or food safety issues arise ## Practical Decision Framework for Milkfish Pond Stocking Density and Feeding Rate Adjustment Selecting the correct stocking density and adjusting feeding rates throughout the grow-out cycle are among the most consequential management decisions in milkfish pond culture. These choices directly affect growth rate, [feed conversion ratio](/knowledge/animal-farming/poultry/feed-conversion-ratio-measuring-improving-poultry-efficiency) (FCR), water quality stability, disease risk, and ultimately farm profitability. A structured decision framework helps farmers move from reactive problem-solving to proactive management based on measurable pond conditions and fish performance. ### Stocking Density Decision Matrix The appropriate stocking density for milkfish grow-out ponds depends on three primary factors: water exchange capacity, aeration availability, and target harvest size. Farmers should evaluate their specific infrastructure before each stocking cycle using the following criteria. For ponds with gravity-fed water exchange of 20-30% daily and no mechanical aeration, stocking densities should remain between 1,000 and 3,000 fish per hectare. These extensive systems rely primarily on natural food production and limited supplemental feeding. Higher densities in unaerated ponds risk nighttime oxygen depletion, especially during warm months when water holds less dissolved oxygen. Ponds with pumped water exchange exceeding 30% daily or with paddlewheel aeration can support semi-intensive densities of 5,000 to 12,000 fish per hectare. Aeration capacity should be at least 1 horsepower per hectare for every 5,000 fish stocked. Farmers should verify that aeration equipment can maintain dissolved oxygen above 4 mg/L throughout the pond, particularly at dawn when oxygen levels are lowest. For intensive systems with continuous aeration and daily water exchange of 50% or more, densities of 15,000 to 20,000 fish per hectare are possible. These systems require careful monitoring of ammonia and nitrite levels, as metabolic waste accumulates rapidly. The FAO provides general guidance on water quality management for cultured species, emphasizing that higher densities demand proportionally greater investment in water treatment and aeration infrastructure. A 2025 study on land utilization for polyculture of milkfish and vannamei shrimp in Karossa, Central Mamuju, Indonesia, found that only 40% of available pond area was productively utilized due to limited infrastructure and low adoption of modern technology. This finding underscores the importance of matching stocking density to actual farm capacity instead of theoretical maximums. ### Feeding Rate Calculation and Adjustment Protocol Feeding rates should be calculated as a percentage of total fish biomass and adjusted based on water temperature, fish size, and observed feeding behavior. The following stepwise protocol provides a practical method for determining daily feed amounts. Step 1: Estimate current fish biomass. Sample at least 50 fish from multiple pond locations using a seine net. Weigh the sample and calculate average weight. Multiply average weight by estimated total number of fish in the pond. Account for estimated mortality since stocking. Step 2: Determine base feeding rate from a standard table. For milkfish weighing 10-50 grams, feed at 8-10% of body weight daily. For fish weighing 50-150 grams, reduce to 5-7%. For fish weighing 150-300 grams, feed at 3-5%. For fish above 300 grams, feed at 2-3%. Step 3: Adjust for water temperature. At temperatures between 28-32°C, use the full base rate. At 25-28°C, reduce by 20%. At 22-25°C, reduce by 40%. Below 22°C, feed only every other day at 50% of the reduced rate. Research on environmental salinity and hypothermal stress in milkfish indicates that salinity levels can influence the fish's response to temperature changes, so farmers in areas with fluctuating salinity should be especially cautious during cold spells. Step 4: Adjust based on feeding tray observation. Place feeding trays in multiple pond locations and observe consumption within 30-60 minutes. If feed remains after 60 minutes, reduce the next day's ration by 10%. If all feed is consumed within 20 minutes, increase by 5-10%. This daily adjustment prevents overfeeding and waste accumulation. Step 5: Calculate weekly FCR. Divide total feed given over the week by estimated weight gain. Target FCR for milkfish fed commercial pellets is 1.5 to 2.0. An FCR above 2.5 indicates overfeeding, poor feed quality, or health problems requiring investigation. ### Record System for Feeding and Growth Monitoring A standardized record sheet helps farmers track feeding efficiency and detect problems early. The following fields should be recorded daily for each pond: - Date and pond identification - Water temperature at 0600 and 1400 hours - Dissolved oxygen at 0600 and 1400 hours - Salinity and pH - Feed type and amount offered (kg) - Feed consumption observation (all consumed, some remaining, most remaining) - Estimated number of fish and average weight (updated weekly) - Calculated feeding rate as percentage of biomass - Any unusual fish behavior or mortality observed Weekly records should include: - Sample weights of 50-100 fish - Estimated total biomass - Total feed given for the week - Calculated weekly FCR - Cumulative FCR since stocking - Water exchange volume and frequency These records allow farmers to identify trends such as declining growth rates, increasing FCR, or deteriorating water quality before they reach critical levels. A 2024 time series analysis of milkfish production in Davao Oriental, Philippines, using the SARIMA model, found that production fluctuations were influenced by environmental factors such as typhoons, rain, diseases, and abnormally high sea surface temperatures. Systematic record-keeping helps farmers distinguish between normal seasonal variation and emerging problems that require intervention. ### Troubleshooting Common Feeding and Density Problems When growth rates fall below 1 gram per day for fish under 150 grams, or below 0.5 grams per day for larger fish, farmers should investigate potential causes systematically. If water temperature is within the optimal range of 28-32°C but growth is slow, check dissolved oxygen levels at dawn. Levels below 3 mg/L indicate insufficient aeration or excessive stocking density. Reduce feeding rates by 30% until aeration capacity is increased or stocking density is reduced. If dissolved oxygen is adequate but fish show reduced appetite, test ammonia and nitrite levels. Ammonia above 0.5 mg/L or nitrite above 0.1 mg/L indicates inadequate water exchange or overfeeding. Increase water exchange to 30-50% daily and reduce feeding by 20% until levels normalize. If water quality parameters are all within acceptable ranges but growth remains poor, examine feed quality and storage. Feed that is stale, moldy, or has been stored in hot, humid conditions may have degraded nutritional value. Replace with fresh feed from a reputable supplier. If fish are feeding actively but FCR exceeds 2.5, consider whether natural food production is insufficient. Fertilization with inorganic or organic fertilizers can boost natural food availability, reducing reliance on expensive formulated feeds. A 2019 study on photosynthetic bacteria in [integrated multitrophic aquaculture](/knowledge/animal-farming/aquaculture/integrated-multitrophic-aquaculture-systems) systems of milkfish coastal farming found that these bacteria enhanced water quality and improved microbial community composition, potentially supporting natural food production. ### Professional Escalation Criteria for Density and Feeding Issues Farmers should seek assistance from aquaculture extension officers or feed company technical representatives when: - FCR exceeds 3.0 for two consecutive weeks despite corrective actions - Growth rate remains below 0.5 grams per day for fish under 100 grams for more than four weeks - Water quality parameters cannot be maintained within acceptable ranges despite maximum aeration and water exchange - Fish show signs of nutritional deficiency such as fin erosion, poor coloration, or spinal deformities - Mortality exceeds 2% per week without clear cause The USDA Agricultural Research Service provides resources on aquaculture production and protection that can inform management decisions. Additionally, the USDA National Agricultural Library offers guidance on animal health and welfare that applies to [fish farming](/knowledge/animal-farming/aquaculture/fish-farming-water-feed-stocking-biosecurity-welfare-and-harvest-decisions) operations. ## Frequently Asked Questions ### What is the optimal water temperature for milkfish hatchery operations? Milkfish larvae and broodstock require water temperatures between 26°C and 30°C for optimal growth and survival. Temperatures outside this range can cause stress, reduced feeding, and increased mortality. Research on environmental salinity and hypothermal stress in milkfish indicates that temperature changes can interact with salinity to affect fish health. ### How long does it take to produce market-size milkfish from fry? Under typical pond grow-out conditions, milkfish reach market size of 300-500 grams in 4-8 months. The exact duration depends on stocking density, feeding regime, water temperature, and water quality. Higher densities and optimal conditions can shorten the grow-out period. ### What are the most common diseases affecting milkfish in ponds? Common bacterial diseases include infections caused by *Edwardsiella anguillarum* and *Nocardia seriolae*, both of which have been studied for their pathogenicity in milkfish. Viral and parasitic infections also occur. Prevention through good water quality, biosecurity, and stress reduction is more effective than treatment. ### Can milkfish be farmed in freshwater? Milkfish are euryhaline and can tolerate a wide range of salinities, from freshwater to full seawater. However, they are typically farmed in brackishwater ponds (15-35 ppt) for optimal growth. Freshwater culture is possible but may require additional management to maintain water quality and prevent disease. ### What is the recommended stocking density for milkfish grow-out ponds? Stocking densities range from 1,000 to 5,000 fish per hectare in extensive systems and up to 10,000-20,000 fish per hectare in semi-intensive systems. Higher densities require more intensive feeding, aeration, and water exchange to maintain water quality and fish health. ### How can I reduce the environmental impact of my milkfish farm? Best management practices include proper feed management to minimize waste, regular water exchange to prevent nutrient buildup, use of polyculture or integrated multi-trophic aquaculture systems, and treatment of effluents before discharge. Adopting sustainable practices such as those described in the 2025 review on sustainable milkfish aquaculture can improve environmental performance. ### What records should I keep for my milkfish farm? Essential records include stocking dates and densities, daily feeding rates and feed types, water quality measurements, growth samples, mortality events, disease treatments, harvest data, and feed conversion ratios. These records help track farm performance, identify problems, and support certification or regulatory compliance. ### Is milkfish farming profitable in small-scale operations? Profitability depends on factors such as input costs, market prices, production efficiency, and access to credit and technical support. Studies on milkfish production in Taiwan and the Philippines have examined technical efficiency and economic viability. Small-scale farmers can improve profitability through cooperative marketing, value-added products, and adoption of low-cost sustainable practices. ## Related Farming Guides - [Lentivirus Production](/blog/guides/plaque-assays-planning-controls-and-reporting-viral-titer) - [Systems Biology](/blog/news/systems-biology) - [Aquaponics Fish Health And System Management](/knowledge/animal-farming/aquaculture/aquaponics-fish-health-and-system-management) - [Freshwater Prawn Farming Stocking Shelter Feeding And Harvest Management](/knowledge/animal-farming/aquaculture/freshwater-prawn-farming-stocking-shelter-feeding-and-harvest-management) - [Pullet Rearing Management For Laying Hens](/knowledge/animal-farming/poultry/pullet-rearing-management-for-laying-hens) ## Related Clinical & Scientific Guides * [Pond Sediment Management and Dredging Options](/knowledge/animal-farming/aquaculture/pond-sediment-management-dredging-options) * [Indoor Aquaculture Facilities: Lighting and Insulation](/knowledge/animal-farming/aquaculture/indoor-aquaculture-facilities-lighting-insulation) * [Greenhouse Aquaculture: Extending Growing Seasons](/knowledge/animal-farming/aquaculture/greenhouse-aquaculture-extending-growing-seasons) ## References and Further Reading - [www.fao.org](https://www.fao.org/fishery/en/culturedspecies) - [www.ars.usda.gov](https://www.ars.usda.gov/animal-production-and-protection/aquaculture) - [FAO Animal Production and Health](https://www.fao.org/animal-production/en). Food and Agriculture Organization of the United Nations. - [Animal Health and Welfare](https://www.nal.usda.gov/animal-health-and-welfare). USDA National Agricultural Library. - [Microplastic ingestion by adult milkfish Chanos chanos (Forsskål, 1775) in aquaculture system: The case of Butuan Bay, Philippines.](https://pubmed.ncbi.nlm.nih.gov/37595450). Marine pollution bulletin, 2023. - [Environmental salinity differentiates responses to acute hypothermal stress in milkfish.](https://pubmed.ncbi.nlm.nih.gov/39368505). The Science of the total environment, 2024. - [Comparative pathogenicity and histopathological analysis of Edwardsiella anguillarum intraperitoneal infection in milkfish (Chanos chanos), Nile tilapia (Oreochromis niloticus) and Asian seabass (Lates calcarifer).](https://pubmed.ncbi.nlm.nih.gov/38899543). Journal of fish diseases, 2024. - [Sub-lethal concentration of sulfamethoxazole affects the growth performance of milkfish (Chanos chanos), the microbial composition of antibiotic-resistant bacteria and the prevalence of sulfonamide-resistance genes in mariculture.](https://pubmed.ncbi.nlm.nih.gov/35939929). Marine pollution bulletin, 2022. - [Comparative pathogenicity of Nocardia seriolae in Nile tilapia (Oreochromis niloticus), milkfish (Chanos chanos) and Asian seabass (Lates calcarifer).](https://pubmed.ncbi.nlm.nih.gov/38523361). Journal of fish diseases, 2024. - [Impacts of milkfish (Chanos chanos) aquaculture on carbon and nutrient fluxes in the Bolinao area, Philippines.](https://pubmed.ncbi.nlm.nih.gov/12222893). Marine pollution bulletin, 2002. - [Sustainable Aquaculture Practices for Milkfish (Chanos chanos): An Integrated Analysis of Environmental, Economic, and Policy Dimensions in Asia](https://doi.org/10.52403/ijrr.20250749). International journal of research and review, 2025. - [Integrated multi-trophic aquaculture of sandfish Holothuria scabra with hard clam Meretrix taiwanica and milkfish Chanos chanos under environmental stress](https://doi.org/10.1007/s10499-025-02394-x). Aquaculture International, 2025. - [The contribution of milkfish (Chanos chanos) pond farming to socio-economics and coastal community livelihoods for a sustainable blue economy in Tanzania](https://doi.org/10.1007/s10499-024-01408-4). Aquaculture International, 2024. - [Land Utilization Strategy for Polyculture Farming of Milkfish (Chanos chanos) and Vannamei Shrimp (Litopenaeus vannamei) in Karossa, Central Mamuju](https://doi.org/10.52046/agrikan.v18i2.2603). Agrikan Jurnal Agribisnis Perikanan, 2025. - [Photosynthetic bacteria enhanced water quality and integrity of microbial community composition of integrated multitrophic aquaculture system of milkfish Chanos chanos coastal farming](https://doi.org/10.1007/s12562-019-01387-z). Fisheries Science, 2019. - [A time series analysis of aquaculture milkfish production volume using the Box-Jenkins SARIMA Model: A case study from Davao Oriental, Philippines](https://doi.org/10.59120/drj.v15i3.222). Davao Research Journal, 2024. - [Modeling milkfish farming in the land around the nickel-processing plant in North Konawe District, Southeast Sulawesi, Indonesia](https://doi.org/10.1007/s40808-022-01634-w). Modeling Earth Systems and Environment, 2023. - [Technical efficiency analysis of milkfish (Chanos chanos) production in Taiwan - An application of the stochastic frontier production function](https://doi.org/10.1016/j.aquaculture.2003.09.038). Aquaculture, 2004. - [Seasonality, abundance and spawning season of milkfish Chanos chanos (Forsskål, 1775) at Teouma Bay, Vanuatu](https://doi.org/10.1016/j.marpol.2021.104587). Marine Policy, 2021. - [Diet, growth, and abundance of two seagrass bed fishes along a pollution gradient caused by milkfish farming in Bolinao, northwestern Philippines](https://doi.org/10.1007/s12562-014-0824-9). Fisheries Science, 2015. > This article is educational and is not a substitute for veterinary diagnosis, treatment, public-health guidance, or regulatory reporting.