Quail Farming Equipment: Essential Tools for Housing, Feeding, and Incubation

Quail farming requires a specific set of equipment that differs from chicken or other poultry operations due to the small body size, ground-dwelling behavior, and unique incubation needs of quail. This article covers the essential tools for housing, feeding, watering, incubation, and processing in small-scale and backyard quail operations, with attention to bird welfare, worker safety, and practical budget considerations. The guidance applies to farmers starting with fewer than 100 birds as well as those scaling to several hundred, with equipment choices framed around flock size, available labor, and investment capacity.

At a Glance: Essential Quail Equipment by Production Stage

Housing Systems and Enclosure Design

Cage Systems for Quail

Cage housing remains common in quail production because it simplifies waste management, protects birds from predators, and allows higher stocking densities. Wire mesh cages with appropriate floor spacing prevent foot injuries while allowing droppings to fall through. The floor mesh gauge must be fine enough to support quail feet comfortably, as quail are smaller and lighter than chickens and can suffer leg damage on improperly sized wire.

Cage height should account for the quail's startle response. Japanese quail flush vertically when frightened, and cages that are too low can cause head injuries. A cage height of at least 20 to 25 centimeters reduces injury risk during sudden movements. Feeder and waterer placement should allow all birds in a cage to access resources without excessive competition.

Floor Pens and Cage-Free Housing

Cage-free housing for Japanese quail requires attention to species-specific behaviors. Quail spend most of their time on the ground, pecking, scratching, and hiding under cover. They will lay eggs in nests if nests are provided and appropriately designed, and they will dustbathe when given suitable substrate. These behavioral needs should inform pen design, including the provision of cover structures, nesting areas, and dustbathing material.

The scientific literature on optimal group size, stocking density, nest design, and litter substrates for cage-free quail housing remains incomplete. Farmers transitioning to cage-free systems should start with conservative stocking densities and observe bird behavior closely. Male quail housed in groups show high levels of agonistic behavior, and guidance on ideal sex ratios in large breeding flocks is not well established. Keeping breeding groups small and providing visual barriers can reduce aggression-related injuries.

Environmental Enrichment and Cover

Quail naturally seek cover and will hide under structures when available. Providing artificial cover in pens reduces stress and allows subordinate birds to escape aggression. Simple materials such as boards, PVC pipe sections, or commercially available hide structures can serve this purpose. Cover becomes more important as group size increases and in cage-free systems where birds cannot escape aggressive conspecifics.

Lighting Considerations

Light color and intensity influence quail productivity. Research on Japanese quail reared under different LED colors found that red LED light progressively enhanced productivity compared to green or white light, with significant improvements in hen-day production, egg mass, feed efficiency, and income-to-cost ratio. The same study found that floor systems improved feed efficiency and income during the early laying phase from weeks 6 to 12, though physical egg quality traits remained consistent across lighting and housing treatments.

Farmers should consider installing red LED lighting in laying facilities to support long-term profitability. Lighting programs should provide consistent day length to maintain egg production, with gradual transitions when changing photoperiods to avoid stress.

Feeding Equipment

Feeder Types and Placement

Quail feeders must be designed to minimize feed waste while allowing all birds adequate access. Common options include trough feeders, tube feeders, and automatic pan feeders. Trough feeders with lip edges prevent quail from scratching feed out of the container. Feeder height should be adjusted as birds grow so that the feed level is accessible without requiring excessive stretching or allowing birds to stand in the feed.

For small-scale operations, simple galvanized or plastic trough feeders work well. The number of feeder spaces per bird affects uniformity of growth and egg production. Overcrowding at feeders leads to competition, feather pecking, and uneven weight gain. Observe feeding behavior during peak activity periods to confirm that subordinate birds can access feed without being displaced.

Feed Storage and Quality

Feed storage equipment protects feed from moisture, pests, and contamination. Sealed bins or containers prevent rodents and wild birds from accessing feed, which also reduces biosecurity risks. Feed should be stored in a cool, dry location and used within a reasonable timeframe to maintain nutritional quality.

Quail feed formulations differ by production stage. Game bird starter, grower, and layer feeds are commercially available, or farmers can mix their own rations with appropriate nutritional guidance. Feed particle size matters for quail, as they prefer smaller particles than chickens. Crumbles or fine pellets are generally suitable for adult quail, while chicks require starter crumbles or ground feed.

Feed Supplementation Equipment

Feed additives may support production during specific periods. Research on probiotic supplementation in late-laying quail found that adding Enterococcus lactis to the diet increased egg production, average egg weight, eggshell quality, antioxidant capacity, and ovarian follicle development in 43-week-old quail. Farmers considering probiotic or other feed additive programs should use appropriate mixing equipment to ensure uniform distribution throughout the ration.

Mushroom-derived feed supplements have also been studied in quail. Oyster mushroom powder supplementation modulated growth performance in male Japanese quail under inflammatory challenge conditions, though immune and intestinal parameters were not significantly altered. These findings suggest a potential role for mushroom products as growth-supporting additives, but further research is needed before making firm management recommendations.

Watering Systems

Waterer Types for Different Ages

Chick waterers for brooding quail should be shallow to prevent drowning. Standard poultry chick waterers with a shallow trough base work well for the first week. As birds grow, transition to larger bell drinkers or nipple drinkers. Nipple drinkers reduce water spillage and keep litter drier in floor systems, but require training for young birds. Place birds near nipples and adjust water pressure to create visible droplets that attract chicks.

Adult quail consume water throughout the day, and water availability directly affects feed intake and egg production. Water consumption increases during hot weather and peak lay. Monitor water lines and drinkers daily for blockages, leaks, and contamination.

Water Quality and Sanitation

Water quality affects bird health and performance. Clean waterers daily or as needed to prevent biofilm formation and bacterial growth. In floor systems, spilled water creates wet litter that promotes ammonia production and foot problems. Use drinker systems that minimize spillage and check for leaks regularly.

Water medication and vaccine delivery require clean equipment and accurate dosing. If using water-based treatments, flush lines before and after administration and verify that the treatment is compatible with the water source.

Incubation Equipment

Incubator Selection and Features

Quail do not naturally incubate their eggs, so artificial incubation is required for all quail production. Incubator selection is one of the most important equipment decisions in quail farming. Key features include temperature control, humidity management, egg turning, and ventilation.

Research on a semi-automatic incubator for quail eggs found that an incubation temperature of 37.5°C, turning eggs 12 times per day, and allowing chicks to remain in the incubator for 12 hours after hatching produced high hatchability with low deformation and mortality rates. These parameters provide a practical reference for incubator operation.

A homemade incubator study using wooden boards, a digital thermostat, and an incandescent lamp maintained quail embryo viability at 37.5°C and 60% relative humidity. All eggs opened during the study contained live embryos, indicating that low-cost incubators can support successful development when temperature and humidity are properly controlled.

Temperature and Humidity Management

Temperature stability is the most critical factor in incubation success. Incubators should maintain temperature within a narrow range around 37.5°C. Digital thermostats provide more precise control than manual bimetallic thermostats. Place a calibrated thermometer at egg level, beyond at the sensor location, and verify temperature uniformity across the incubator.

Humidity affects egg water loss and hatchability. Target relative humidity around 55 to 60% during most of incubation, with adjustments during hatching. Humidity that is too low causes excessive egg water loss and shriveled chicks. Humidity that is too high reduces water loss and can cause chicks to drown in the shell. Use a hygrometer to monitor humidity and add water to the incubator's humidity pan as needed.

Egg Turning Equipment

Turning eggs during incubation prevents embryo adhesion to the shell membrane and promotes proper development. Automatic turning mechanisms reduce labor and maintain consistent turning intervals. Research on turning frequency found that turning eggs 12 times per day produced better results than less frequent turning. Manual turning requires careful scheduling and consistent technique, and is practical only for very small incubators.

Egg turning should stop during the final days of incubation, typically the last three days, to allow chicks to position for hatching. Follow the incubator manufacturer's instructions for when to discontinue turning.

Egg Storage Before Incubation

Egg storage conditions before incubation affect hatchability. Research on Japanese quail hatching eggs stored for different periods found that storage time significantly affected egg weight loss and hatchability. Chicks were not obtained from eggs stored longer than 32 days. Hatchability was not affected by storage for up to 20 days, but decreased gradually after longer storage, with reduced early embryo viability and increased embryo mortality.

Farmers should incubate eggs as soon as practical after collection. If storage is necessary, hold eggs at physiological zero conditions, typically around 15 to 18°C, with moderate humidity to limit water loss. Turn stored eggs daily if storage exceeds one week. Collect eggs frequently during hot weather to prevent pre-incubation embryo development.

Low-Cost and Automated Incubator Options

Several low-cost incubator designs have been evaluated for quail production. An artisanal incubator implemented with Arduino technology achieved 75% hatching and efficiency above 83%, with investment costs attractive for small producers. Another automated incubator design using ATMEGA2560 provided accurate temperature and humidity measurements for chicken, duck, and quail eggs, demonstrating dependable performance for poultry husbandry applications.

Internet of Things based smart incubators offer remote monitoring and control capabilities. These systems can alert farmers to temperature or humidity deviations, reducing the risk of equipment failure going unnoticed. While more expensive than basic incubators, smart incubators provide valuable peace of mind for farmers who cannot monitor incubation continuously.

Embryo Detection and Sexing Technologies

Emerging technologies may improve incubation management. Thermal micro cameras combined with deep learning object detection algorithms have shown potential to distinguish fertilized from unfertilized quail eggs during incubation. One study found that YOLOv5 achieved perfect F1 scores for embryo detection with 12-hour egg turning periods, while less frequent turning improved visualization of fertilized egg features.

Raman spectroscopy has been investigated for non-destructive early sex identification of quail embryos on incubation day 5. The method achieved 80.95% accuracy on an independent test set, with processing time of about 5 minutes per egg under manual operation. While these technologies are not yet widely available or affordable for small-scale farmers, they indicate the direction of future incubation equipment development.

Brooding Equipment

Brooder Design and Heat Sources

Brooding equipment must provide consistent warmth, protection from drafts, and easy access to feed and water. Common heat sources include heat lamps, radiant heat plates, and brooder stoves. Heat lamps are inexpensive but pose fire risks and create uneven temperature zones. Radiant heat plates allow chicks to choose their preferred temperature position and reduce the risk of overheating.

Temperature requirements decrease as chicks age. Start brooding temperature around 35 to 37°C and reduce gradually over the first three weeks. Observe chick behavior to assess temperature adequacy. Chicks huddling directly under the heat source indicate the temperature is too low. Chicks spreading away from the heat source and panting indicate the temperature is too high. Chicks distributed evenly across the brooder indicate appropriate temperature.

Brooder Space and Layout

Provide adequate floor space in the brooder to prevent crowding and allow chicks to move between temperature zones. Brooder guards confine chicks near the heat source during the first days and expand as chicks grow. Feed and water should be placed within easy reach of the heat zone so chicks do not have to travel far from warmth.

Brooder Sanitation

Clean brooder equipment between batches to prevent disease transmission. Remove used litter, wash and disinfect feeders and waterers, and allow the brooder to dry completely before introducing new chicks. Footbaths at the brooder entrance reduce the introduction of pathogens from outside.

Processing Equipment

Slaughter and Processing Tools

Processing quail requires equipment scaled to their small body size. Killing cones restrain birds during slaughter and promote complete bleeding. Scalding tanks heat water to the appropriate temperature for feather removal. Feather pluckers designed for quail or small poultry reduce processing labor significantly compared to hand plucking.

Processing equipment should be constructed of food-safe materials that can be cleaned and sanitized. Stainless steel surfaces are preferred for their durability and ease of cleaning. Wood and other porous materials harbor bacteria and should be avoided in processing areas.

Chilling and Storage Equipment

After processing, carcasses must be chilled promptly to maintain quality and food safety. Ice water baths or mechanical chillers reduce carcass temperature quickly. Refrigeration equipment maintains proper storage temperature until sale or further processing. Food safety regulations may apply to processing and storage facilities, and farmers should check local requirements.

Worker Safety in Processing

Processing involves sharp tools, hot water, and repetitive motions. Workers should use cut-resistant gloves when handling knives and follow safe procedures for all equipment. Scalding tanks present burn hazards, and workers should be trained in safe operation. Processing areas should have adequate lighting, ventilation, and non-slip flooring.

Occupational health considerations extend beyond processing. Workers in poultry facilities may be exposed to allergens from feathers, dander, and feed dust. Occupational anaphylaxis is a systemic allergic reaction that occurs in an occupational context and can be life-threatening. While rare, workers with known allergies should carry appropriate emergency medication and have a written emergency plan. Farmers should maintain first aid supplies and emergency contact information in all work areas.

Monitoring and Record Keeping Equipment

Environmental Monitoring

Accurate environmental monitoring supports optimal production. Thermometers, hygrometers, and ventilation gauges provide data for management decisions. Digital sensors with data logging capabilities allow farmers to track conditions over time and identify patterns that affect performance.

Precision livestock farming technologies are increasingly available for poultry operations. Computer vision models using YOLO object detection have been applied to identify birds, detect behaviors, count individuals, track movement, and monitor health and disease in broilers and laying hens across diverse housing systems. While these technologies are primarily developed for chicken production, they may be adapted for quail operations as the technology matures.

Accelerometer tags have been evaluated for monitoring reproductive behavior in Japanese quail. One study found that male reproductive behavior was easily identified from accelerometer recordings as high amplitude fluctuations in acceleration vectors. However, attachment methods require careful consideration, as patches glued to the synsacrum region caused increased initial immobility responses and allowed birds to remove conspecifics' tags. Backpack attachments with elastic bands near the wing bases performed better.

Production Records

Record keeping equipment includes scales for weighing birds and eggs, egg collection trays, and record books or digital spreadsheets. Track the following metrics:

• Hen-day egg production percentage
• Feed consumption per bird per day
• Mortality and culling rates
• Hatchability percentage
• Egg weight and quality
• Body weight at key ages

Accurate records allow farmers to identify problems early and evaluate the impact of management changes. Compare current performance to previous periods and to published standards for the specific quail breed or line.

Egg Quality Assessment

Egg quality monitoring requires candling equipment, scales, and calipers. Candling detects cracks, blood spots, and other defects. Egg weight and shell quality measurements identify nutritional or management issues. Shell cuticle quality can affect food safety by protecting eggs from bacterial infection, though research on Japanese quail found no association between cuticle nanosphere size and bacterial attachment.

Machine vision systems for quail egg grading are under development. Deep learning based systems can grade eggs by quality characteristics, and thermal imaging systems can assess freshness. These technologies may become available for commercial use, but manual grading remains standard for small-scale operations.

Biosecurity and Sanitation Equipment

Cleaning and Disinfection Tools

Biosecurity equipment includes footbaths, disinfectant sprayers, pressure washers, and dedicated cleaning supplies for each production area. Establish a cleaning schedule for all equipment and facilities. Remove organic material before applying disinfectants, as organic matter reduces disinfectant effectiveness.

Pest Control Equipment

Rodents and wild birds can transmit diseases to quail flocks. Rodent bait stations, traps, and exclusion materials protect feed storage and housing areas. Wild bird exclusion requires netting or solid roofing in outdoor areas. Insect control may be necessary in warm climates.

Quarantine and Isolation Facilities

Separate equipment for sick or new birds prevents disease spread. Quarantine pens should have dedicated feeders, waterers, and cleaning supplies that are not shared with the main flock. Quail can serve as reservoirs for extended-spectrum beta-lactamase producing bacteria, which has public health implications. Maintaining strict biosecurity reduces the risk of introducing or spreading antimicrobial resistant organisms.

Common Equipment Failure Patterns

Incubator Failures

Incubator failures cause significant losses when not detected promptly. Common failure patterns include:

• Thermostat drift leading to temperature excursions
• Humidity sensor calibration errors
• Fan failure causing temperature stratification
• Power outages during critical incubation periods
• Automatic turner jams or motor failures

Mitigation strategies include using calibrated backup thermometers, installing temperature alarms, connecting incubators to backup power sources, and checking equipment daily. Smart incubators with remote monitoring provide early warning of developing problems.

Feeder and Waterer Malfunctions

Blocked feeders and waterers reduce intake and production quickly. Common problems include:

• Feed bridging in hoppers
• Nipple drinker blockages from sediment or biofilm
• Leaking waterers creating wet litter
• Feeder damage from birds perching on edges

Daily inspection of all feeding and watering equipment prevents most failures. Clean equipment regularly and replace worn parts promptly.

Ventilation Failures

Inadequate ventilation leads to ammonia buildup, respiratory disease, and reduced performance. Ventilation fans can fail from belt breakage, motor burnout, or power loss. Install alarms that detect fan failure and high temperature conditions. Maintain backup ventilation capacity for hot weather and power outages.

Welfare Considerations in Equipment Selection

Space Allowance and Group Size

Equipment selection should support appropriate space allowances for the housing system. Overcrowding increases aggression, feather pecking, and cannibalism. Provide enough feeder and waterer space so all birds can access resources without excessive competition. Research on cage-free quail housing notes that information about optimal group size and stocking density is not sufficiently well researched, so farmers should be conservative and observe bird behavior carefully.

Behavioral Needs

Quail have specific behavioral needs that equipment should accommodate. They dustbathe when given substrate, hide under cover when frightened, and lay eggs in nests when nests are provided. Housing systems that ignore these behaviors increase stress and reduce welfare. Provide dustbathing material in floor systems and appropriate nest boxes for laying birds.

Injury Prevention

Equipment design affects injury risk. Sharp edges on cages and feeders can cause wounds that become infected. Wire floors with inappropriate mesh size cause foot injuries. Low cage heights cause head injuries during startle responses. Inspect equipment regularly for hazards and repair or replace damaged components.

Worker Safety and Occupational Health

Handling and Restraint Equipment

Safe bird handling requires appropriate equipment. Gloves protect workers from scratches and pecks. Nets and catching equipment reduce stress on birds and workers during capture. Proper handling techniques minimize bird injury and worker strain.

Respiratory Protection

Dust and ammonia in poultry facilities can affect worker respiratory health. Ventilation systems that maintain air quality benefit both birds and workers. Respiratory protection may be necessary when cleaning dusty areas or working in poorly ventilated spaces. Workers with respiratory conditions should consult their healthcare providers about appropriate precautions.

Emergency Preparedness

Maintain first aid supplies, fire extinguishers, and emergency contact information in all work areas. Develop emergency procedures for power outages, equipment failures, and natural disasters. Train all workers in emergency response procedures and conduct regular drills.

Economic Considerations for Equipment Investment

Matching Equipment to Scale

Equipment investment should match the scale of the operation. A farmer starting with 50 quail does not need the same equipment as a farmer managing 5,000 birds. Start with essential equipment and expand as production grows. Used equipment can reduce startup costs but should be inspected carefully for condition and suitability.

Operating Costs

Consider ongoing operating costs when selecting equipment. Incubators consume electricity continuously during incubation. Heating and ventilation costs vary with climate and facility design. Automatic feeders and waterers reduce labor but increase equipment maintenance costs. Calculate the total cost of ownership, beyond the purchase price.

Labor Requirements

Equipment choices affect labor requirements. Automatic egg collection, feeding, and watering systems reduce daily labor but require higher capital investment. Manual systems are less expensive but require consistent daily attention. Match equipment to available labor and the farmer's capacity for daily management tasks.

Value Chain Considerations

Quail farming often serves as a supplementary income source. Research on microlivestock value chains in Nigeria found that quail farming was the primary source of livelihood for a minority of farmers, with most engaged in multiple economic activities. Farmers reported persistent challenges including limited access to specialized feed and veterinary services, and weak market linkages. Equipment investment should account for the broader market context and the availability of inputs and services.

Professional Escalation Criteria

When to Consult a Veterinarian

Contact a veterinarian when you observe:

• Sudden increases in mortality or morbidity
• Respiratory signs such as coughing, sneezing, or nasal discharge
• Neurological signs such as tremors, twisted necks, or paralysis
• Severe diarrhea or changes in droppings
• Sharp drops in feed or water consumption
• Significant drops in egg production

Early veterinary consultation improves outcomes and reduces the risk of disease spread. The World Organisation for Animal Health provides resources on animal health and welfare standards that can guide disease prevention and response.

When to Contact Agricultural Authorities

Contact agricultural authorities or extension services when you suspect a reportable disease, need assistance with regulatory compliance, or require guidance on best management practices. The Food and Agriculture Organization of the United Nations provides animal production resources, and the USDA Agricultural Research Service conducts animal production and protection research. The USDA National Agricultural Library offers animal health and welfare information, and the U.S. Food and Drug Administration provides animal veterinary resources.

When to Seek Technical Assistance

Seek technical assistance when equipment performance does not meet expectations or when planning significant expansions. Incubator manufacturers can provide technical support for their equipment. Agricultural engineers can advise on facility design and ventilation. Extension specialists can provide production guidance and connect farmers with relevant resources.

Frequently Asked Questions

What is the minimum equipment needed to start quail farming?

The minimum equipment for a small quail operation includes a brooder with heat source for chicks, a cage or pen for growing and laying birds, feeders and waterers appropriate for the bird age, and an incubator if you plan to hatch eggs. A farmer starting with 50 to 100 birds can begin with basic equipment and expand as production grows. Budget for a thermometer and hygrometer to monitor brooding and incubation conditions.

How much does quail farming equipment cost?

Equipment costs vary widely based on scale and quality. A basic incubator suitable for small-scale quail production may cost less than a commercial model with automatic turning and humidity control. Homemade incubators using low-cost materials have demonstrated successful hatching, making incubation accessible for small producers. Cage systems, feeders, and waterers represent ongoing investments that scale with flock size.

What temperature should a quail incubator be set at?

Research on quail incubation consistently supports a temperature around 37.5°C for successful embryo development. One study found that 37.5°C with turning 12 times per day and allowing chicks to remain in the incubator for 12 hours after hatching produced high hatchability with low deformation and mortality. A homemade incubator study also used 37.5°C with 60% relative humidity and maintained embryo viability.

How long can quail hatching eggs be stored before incubation?

Quail hatching eggs can be stored for up to 20 days without significant effects on hatchability, according to research on Japanese quail. Hatchability decreased gradually after longer storage, and chicks were not obtained from eggs stored longer than 32 days. Store eggs at physiological zero conditions with moderate humidity and turn them daily if storage exceeds one week.

What type of lighting is best for laying quail?

Research on Japanese quail found that red LED light progressively enhanced productivity compared to green or white light, with significant improvements in hen-day production, egg mass, feed efficiency, and income-to-cost ratio. Red LED lighting is recommended for laying facilities to support long-term profitability. Floor systems showed advantages in feed efficiency during the early laying phase from weeks 6 to 12.

Do quail need nest boxes in floor pens?

Quail will lay eggs in nests if nests are provided and appropriately designed, according to research on cage-free quail housing. Providing nest boxes in floor systems supports natural laying behavior and can improve egg collection efficiency. Nest design for quail has not been extensively researched, so farmers should observe bird preferences and adjust accordingly.

What equipment is needed for processing quail?

Processing quail requires killing cones, scalding equipment, feather pluckers, and chilling facilities. Equipment should be constructed of food-safe materials that can be cleaned and sanitized. Worker safety equipment including cut-resistant gloves and proper lighting is essential. Processing areas should meet applicable food safety regulations.

How can I monitor quail behavior and production with technology?

Precision livestock farming technologies are being developed for poultry operations. Computer vision models can identify birds, detect behaviors, count individuals, and monitor health. Accelerometer tags can track reproductive behavior in quail, though attachment methods require careful selection. Thermal imaging and machine vision systems for egg quality assessment are under development. These technologies are not yet widely available for small-scale quail operations but indicate future equipment options.

Related Farming Guides

• Pig Farming Equipment: Essential Tools for Feeding, Watering, and Handling
• Rabbit Farming: Housing, Feeding, Breeding, Welfare, and Health Observation
• Small-Scale Chicken Farming: Breeds, Housing, and Flock Management
• Duck Farming: Housing, Feeding, and Water Management
• Quail Farming: Housing, Breeding, and Egg Production

References and Further Reading

• FAO Animal Production and Health. Food and Agriculture Organization of the United Nations.
• Animal Health and Welfare. USDA National Agricultural Library.
• Animal and Veterinary Resources. U.S. Food and Drug Administration.
• Animal Health and Welfare. World Organisation for Animal Health.
• Animal Production and Protection. USDA Agricultural Research Service.
• Occupational anaphylaxis: A Position Paper of the German Society of Allergology and Clinical Immunology (DGAKI).. Allergologie select, 2024.
• Non-Destructive Early Sex Identification of Embryonated Quail Eggs Using Raman Spectroscopy.. Animals : an open access journal from MDPI, 2026.
• Evaluation of pregnancy associated glycoproteins assays for on farm determination of pregnancy status in beef cattle.. PloS one, 2024.
• Probiotic potential of enterococcus lactis in improving egg production and quality in quails during late egg-laying period.. Poultry science, 2025.
• Development of an Early Embryo Detection Methodology for Quail Eggs Using a Thermal Micro Camera and the YOLO Deep Learning Algorithm.. Sensors (Basel, Switzerland), 2022.
• Increased nanosphere size in the cuticle layer of Japanese quail egg by mutation in the myostatin gene.. Scientific reports, 2024.
• Response of vertebrate scavengers to power line and road rights-of-way and its implications for bird fatality estimates.. Scientific reports, 2020.
• Potential of accelerometer tags for monitoring of Japanese quail (Coturnix japonica) reproductive behaviour.. British poultry science, 2025.
• An assessment of Nigeria's microlivestock value chain: insights from six species.. 2026.
• A critical review on the welfare of Japanese quail in cage-free housing: Current knowledge and future perspectives.. 2025.
• Evaluation of Productivity and Egg Quality in Japanese Quails Reared Under Different LED Colors and Rearing Systems.. 2026.
• Investigation of &lt,i&gt,Pleurotus Ostreatus&lt,/i&gt, Mushroom-Based Feed Supplementations on Growth Performance and Immune Function in Male Japanese Quails (&lt,i&gt,Coturnix Japonica&lt,/i&gt,).. 2026.
• Computer vision models for precision poultry farming: A narrative review of behavioral and welfare monitoring studies.. 2026.
• From farm to fork: Microplastic contamination in the meat and dairy supply chain.. 2026.
• Genome-Wide Association Studies in Japanese Quails of the F&lt,sub&gt,2&lt,/sub&gt, Resource Population Elucidate Molecular Markers and Candidate Genes for Body Weight Parameters.. 2025.
• Evaluation of a prototype of an artisanal incubator for quail eggs (coturnix coturnix japonica) implemented with Arduino technology. Universidad, Ciencia y Tecnología, 2022.
• Study protocol of “A preterm infant life-saving package including a simple and affordable incubator and a portable flow generator mask-CPAP in resource-limited settings” SAVE preterm trial, saving preterm infants by adopting vital equipment. BMC Pediatrics, 2025.
• HATCHIT: Gallus Gallus Domesticus (Chicken), Anas Luzonica (Duck), and Coturnix Cotunix (Quail) Egg Automated Incubator Using ATMEGA2560. QCU The Star, 2023.
• Embryonic development of quail eggs (Coturnix coturnix japonica) in a homemade incubator. Brazilian Journal of Veterinary Medicine, 2023.
• Manufacture and evaluation of a semi-automatic incubator for hatching quail eggs. Mediterranean Agricultural Sciences, 2023.
• The development of quail eggs smart incubator for hatching system based on microcontroller and Internet of Things (IoT). 2018 International Conference on Information and Communications Technology (ICOIACT), 2018.
• Hatching performance of Japanese quail from eggs stored for different periods - a preliminary study. BMC Veterinary Research, 2025.
• Portable Neonatal Incubator Monitoring and Control System: Integration of IoT Communication and Control Technology. International Journal of Computers Communications & Control, 2025.
• Performance evaluation of quail clusters. International Journal of Economic Perspectives, 2017.
• The potential of quails as reservoirs for extended-spectrum β-lactamase (ESBL)-producing bacteria: A public health perspective. Journal of Advanced Veterinary Research, 2025.
• Development of a new grading system for quail eggs using a deep learning-based machine vision system. Computers and Electronics in Agriculture, 2024.
• A thermal machine vision sensing system for quality assurance of quail eggs - freshness assessment and grading. Computers and Electronics in Agriculture, 2026.
• Thermal Imaging and Deep Learning Object Detection Algorithms for Early Embryo Detection: A Methodology Development Addressed to Quail Precision Hatching. Iot and AI in Agriculture Self Sufficiency in Food Production to Achieve Society 5 0 and Sdgs Globally, 2023.

This article is educational and is not a substitute for veterinary diagnosis, treatment, public-health guidance, or regulatory reporting.