Poultry Thermometer Placement and Temperature Monitoring for Flock Health

Accurate temperature monitoring in poultry houses is a core management task that directly affects bird health, growth, egg production, and mortality risk. This article explains how to choose thermometers, where to place them, how often to read them, and what actions to take when temperatures move outside target ranges for different ages of birds. The guidance is written for farmers, farm employees, veterinarians, advisers, students, and farm planners who need practical, record-based methods for keeping poultry houses within safe thermal conditions.

Why Temperature Monitoring Matters in Poultry Houses

Poultry are homeothermic animals, meaning they maintain a relatively constant internal body temperature regardless of the surrounding environment. However, young chicks and actively growing or laying birds have limited capacity to cope with rapid temperature swings. When house temperature falls too low, chicks crowd together, reduce feed intake, and become vulnerable to disease. When temperature rises too high, birds pant, reduce feed consumption, and experience heat stress that can lower egg production and weight gain.

Environmental conditions in poultry houses are not uniform. Research conducted in a commercial broiler house found that air temperature, relative humidity, and wind speed varied across different locations within the same building, and that the center of the house had poorer air quality than other subspaces during certain growth phases. This finding from a 2024 study in Poultry Science demonstrates why a single thermometer reading from one wall is not sufficient to understand the thermal environment experienced by birds across the full floor area. The study used multiple sensors at 60 locations to characterize the environment, highlighting the value of distributed temperature measurement instead of relying on one point reading.

Temperature also interacts with other environmental factors. Relative humidity affects how birds dissipate heat. Ammonia levels, carbon dioxide concentrations, and airborne dust all influence respiratory health and can be affected by ventilation rates that are often adjusted in response to temperature readings. A 2025 study in Scientific Reports described a low-cost automated monitoring and control unit for small-scale poultry operations that measured temperature, humidity, ammonia, and methane, with sensor readings correlating strongly with certified reference devices. The system cost a fraction of commercial reference equipment, showing that affordable monitoring is achievable for smaller farms.

Core Principles of Poultry House Temperature Measurement

Bird-Level Temperature Is the Target

The temperature that matters for bird welfare is the temperature experienced at bird height, not the temperature at human head height or near the ceiling. Chicks and adult birds occupy the floor or lower cage levels, where temperature can differ substantially from the air near the roof. Heat rises, so ceiling temperatures can be several degrees warmer than floor temperatures in poorly ventilated houses. Placing thermometers at bird level ensures that readings reflect the conditions birds actually experience.

Multiple Measurement Points Are Required

Because temperature varies across the house, a single thermometer cannot provide a reliable picture. Temperature gradients occur from front to back, side to side, and floor to ceiling. Air inlet locations create cooler zones near incoming air, while heat-producing birds and equipment create warmer zones near the center of the house. The 2024 broiler house study referenced earlier found that different areas of the house clustered into distinct environmental zones, with the center showing poorer air quality. This spatial variation means that monitoring programs should include multiple thermometer locations to detect problem areas before they affect bird health.

Measurement Frequency Should Match Bird Age and Risk

Young chicks have less ability to regulate body temperature and are more sensitive to temperature changes than older birds. During the first week of life, temperature readings should be taken frequently, at least every few hours during the day and night. As birds age and develop better thermoregulation, monitoring frequency can be reduced, but daily checks remain essential. Automated systems with continuous logging provide the best protection because they can detect temperature excursions that occur between manual checks, including overnight when staffing may be reduced.

Thermometer Accuracy and Calibration Matter

A thermometer that reads incorrectly is worse than no thermometer because it creates false confidence. Digital thermometers with probes should be checked against a known reference periodically. A simple ice-water bath test can verify accuracy at the low end of the range. Calibration checks should be documented in farm records, and thermometers that drift outside acceptable accuracy should be replaced or recalibrated.

Choosing Thermometers for Poultry Houses

Digital Probe Thermometers

Digital probe thermometers with remote sensors are the most common choice for poultry houses. These units have a display unit connected by wire to a temperature probe that can be positioned at bird level. Features to look for include waterproof probes, readable displays, and the ability to show current temperature plus minimum and maximum readings since the last reset. Minimum and maximum memory is valuable because it reveals temperature extremes that occurred between checks.

Infrared Thermometers

Infrared thermometers measure surface temperature without contact. They are useful for spot-checking floor surface temperature, wall temperatures, and bird surface temperatures. A 2018 study in Physiology & Behavior found that comb, face, and eye surface temperatures in laying hens changed in response to stress, with surface temperatures increasing under chronic stress conditions. While infrared thermometers are not a substitute for air temperature monitoring, they can provide additional information about bird thermal status. However, infrared readings are affected by distance, surface emissivity, and the specific surface being measured, so they require careful technique and interpretation.

Data Loggers

Data loggers record temperature at set intervals and store the readings for later download. These devices are valuable for documenting temperature patterns over time, identifying recurring problems, and providing records that can be reviewed by veterinarians or advisers. Some data loggers have external probes that can be placed at bird level while the logger body remains accessible. Battery life, memory capacity, and software compatibility should be considered when selecting a data logger.

Internet of Things Monitoring Systems

Internet of Things systems use connected sensors to transmit temperature data to a central platform that can be accessed remotely. Multiple studies have documented the development and validation of these systems for poultry houses. A 2025 study in Scientific Reports described a low-cost automated monitoring unit using GSM communication that measured temperature, humidity, ammonia, and methane with strong correlation to reference devices. A 2024 study in the International Journal of Applied Sciences and Smart Technologies described an IoT system that automatically activated fans when temperature rose above set points. A 2023 study in E3S Web of Conferences described an IoT system for monitoring temperature and humidity in poultry farms. A 2025 study in the World Journal of Applied Science & Technology used a DHT22 sensor to measure temperature and humidity, with the microcontroller activating a heater or cooling fan based on readings. These systems allow farmers to check house conditions from a phone or computer and receive alerts when temperatures move outside acceptable ranges.

The cost of IoT systems has decreased substantially. The 2025 Scientific Reports study reported that the complete monitoring system, including the early warning feature, was constructed for about USD 76, with the core measuring unit costing about USD 37.50. This price point makes automated monitoring accessible to small and medium farms, also large operations.

Placement of Temperature Probes

Temperature probes should be placed at bird level, which means at the height of the birds' bodies. For chicks, this is near the litter surface. For adult birds, this is higher off the floor. Probes should be shielded from direct radiant heat sources such as brooders, heaters, or direct sunlight, because radiant heat can cause probes to read higher than the actual air temperature. Probes should also be protected from bird contact, dust, and moisture, which can affect accuracy.

A typical monitoring layout for a poultry house includes probes at multiple locations:

• One probe near each end of the house, at bird level
• One probe near the center of the house
• One probe near the ventilation air inlet
• One probe near the ventilation air exhaust
• One probe at floor level in the brooding area for chicks

The number of probes should scale with house size. A small house might use three to five probes, while a large commercial house might use ten or more. The 2024 broiler house study used sensors at 60 locations to characterize the environment, which is more than typical production monitoring requires, but it illustrates the degree of spatial variation that can exist.

At a Glance: Temperature Monitoring Reference

These ranges are general guidance based on common poultry management practice. Specific target temperatures depend on bird breed, housing system, humidity levels, air speed, and bird density. Farmers should work with their veterinarian or poultry adviser to establish target ranges for their specific operation. The action thresholds indicate when immediate investigation and corrective action are needed, not when birds will necessarily show signs of distress.

Temperature Monitoring Schedule by Bird Age

Brooding Period: Day 0 to Day 7

The first week of life is the most critical period for temperature management. Chicks cannot regulate their body temperature effectively until they develop feather cover and mature thermoregulatory systems. Brooding temperatures should be checked frequently, and the temperature at chick level should be verified with a thermometer placed directly on the litter surface.

During brooding, temperature readings should be taken at least every 2 to 4 hours, including overnight checks. Many experienced farmers check more frequently during the first 48 hours after placement. Temperature fluctuations during this period can trigger chilling, crowding, and increased susceptibility to disease. A 2025 retrospective study of Sonali chicken farms in Bangladesh found that brooder pneumonia was prevalent in about 35 percent of farms studied, and that farms where farmers had no knowledge of chick grade had higher prevalence of avian influenza. While this study did not directly link temperature mismanagement to these diseases, proper brooding temperature is widely recognized as a foundation for chick health.

Grower Period: Day 8 to Day 21

As chicks develop feathers and grow, the target temperature gradually decreases. Temperature checks can be spaced to every 4 to 6 hours during this period. The transition from brooding temperature to grower temperature should be gradual, with reductions of about 2 to 3 degrees Celsius per week, instead of sudden drops that can stress birds.

During this period, birds are more mobile and can move to warmer or cooler areas of the house if given the opportunity. Observing bird distribution across the house provides valuable information about whether temperatures are uniform. Birds clustering under heat sources indicate they are too cold. Birds spreading to the walls and away from heat sources indicate they are too warm. Birds panting indicate heat stress.

Finisher or Production Period: Day 22 to Market or Lay

Older birds have better thermoregulatory capacity but are still vulnerable to extreme temperatures. Heat stress is a particular concern in finisher birds because they have high metabolic heat production and dense feather cover. A 2026 study in Poultry Science evaluated multifunctional elevated platforms in broiler houses under heat stress conditions, where ambient temperature was increased to 32 degrees Celsius for 6 hours per day from day 29 to day 40. The study found that heat stress affected plumage cleanliness and that platform access improved some welfare indicators. This research highlights that heat stress is a real concern in commercial production and that environmental management, including temperature monitoring, is essential.

During this period, temperature checks at least twice daily are appropriate, with more frequent checks during hot weather, heat waves, or when ventilation equipment is not functioning optimally. Laying hens are also sensitive to temperature extremes. A 2024 study in Scientific Reports investigated microclimate conditions in a laying hen facility and found significant variations in egg production and egg weight between the front and back sides of the house. Air velocity had a significant positive effect on egg weight on both sides of the house, while temperature, relative humidity, and temperature humidity index did not predict egg production or egg weight in that study. This finding underscores that temperature is one factor among several, and that air movement and humidity also play important roles in bird performance.

Practical Implementation Steps for Temperature Monitoring

Step 1: Establish Baseline Conditions

Before placing thermometers, walk through the house at bird level and note areas that feel warmer or cooler. Observe bird distribution and behavior. This baseline assessment helps identify problem areas that need additional monitoring.

Step 2: Install Thermometers at Multiple Locations

Place thermometers at bird level in the locations identified in the baseline assessment. Include at minimum one thermometer near each end of the house and one near the center. For larger houses, add thermometers near air inlets, exhaust fans, and any areas where temperature problems are suspected.

Step 3: Verify Thermometer Accuracy

Check each thermometer against a known reference before installation. Document the calibration check in farm records. Recheck thermometers periodically, at least monthly, and after any event that could affect accuracy such as water exposure or physical damage.

Step 4: Establish a Monitoring Schedule

Create a written schedule for temperature checks based on bird age and risk level. Assign specific staff members to each check time. Include overnight checks during the brooding period. Post the schedule in a visible location near the house entrance.

Step 5: Record All Readings

Maintain a temperature log that includes the date, time, thermometer location, reading, and initials of the person taking the reading. Record any corrective actions taken in response to abnormal readings. These records provide documentation for management decisions and can be reviewed by veterinarians or advisers.

Step 6: Set Alarm Thresholds

For automated systems, set alarm thresholds that trigger alerts when temperatures move outside acceptable ranges. The thresholds should be specific to bird age and should account for the time of day and expected temperature patterns. Alarms should be tested regularly to ensure they function properly.

Step 7: Review Temperature Data Regularly

Review temperature logs daily during the brooding period and at least weekly for older birds. Look for patterns such as recurring temperature dips at night, gradual warming trends, or differences between thermometer locations. Address patterns instead of individual readings.

Step 8: Respond to Abnormal Readings Immediately

When a temperature reading falls outside the action threshold, investigate immediately. Check the thermometer for accuracy, verify that heating or cooling equipment is functioning, and observe bird behavior. Take corrective action and document what was done.

Records and Measurements for Temperature Monitoring

Temperature Log Contents

A useful temperature log includes the following information:

• Date and time of reading
• Thermometer identification or location
• Temperature reading
• Bird age and house occupancy
• Outside temperature and weather conditions
• Ventilation settings at the time of reading
• Bird behavior observations
• Corrective actions taken
• Staff member taking the reading

Minimum and Maximum Temperature Records

Thermometers with minimum and maximum memory should be read and reset at each check. The minimum and maximum readings since the last check reveal temperature extremes that occurred between checks, including overnight when staff may not be present. These readings are particularly valuable for identifying equipment failures or ventilation problems that occur during low-staff periods.

Equipment Maintenance Records

Maintain records of thermometer calibration checks, battery replacements, and equipment repairs. These records help ensure that monitoring equipment remains accurate and functional. A thermometer that fails during a critical period can leave the flock unprotected.

Environmental Data Correlation

Temperature readings become more useful when correlated with other environmental data. Record relative humidity, ammonia levels, and ventilation settings alongside temperature readings. The 2023 study in Microorganisms that characterized bioaerosols in poultry houses monitored ambient temperature and relative humidity alongside microbial sampling, demonstrating that environmental conditions are part of a broader picture of house air quality. The 2017 study in Isotopes in Environmental and Health Studies measured temperature, relative humidity, airflow rate, ammonia, carbon dioxide, and total suspended particles in poultry houses, along with airborne bacteria and fungi counts. These studies illustrate that temperature is one component of a complex environment that affects both bird health and worker health.

Common Failure Patterns in Temperature Monitoring

Single Point Monitoring

Relying on one thermometer to represent the entire house is the most common failure pattern. Temperature varies significantly across a poultry house, and a single reading can miss hot or cold zones that affect bird health. The 2024 broiler house study found distinct environmental zones within a single house, with the center having poorer air quality. Multiple monitoring points are essential.

Thermometer Placement at Human Height

Thermometers placed at human eye level or near the ceiling read temperatures that differ from conditions at bird level. Heat rises, so ceiling temperatures are typically warmer than floor temperatures. A thermometer at human height may read within an acceptable range while birds at floor level are experiencing cold stress or heat stress.

Infrequent Checks During Critical Periods

Reducing monitoring frequency during the brooding period or during extreme weather events can allow temperature problems to persist for hours before detection. Chicks are most vulnerable during the first week, and heat stress can develop quickly in older birds during heat waves. Monitoring frequency should increase, not decrease, during high-risk periods.

Ignoring Minimum and Maximum Readings

Thermometers with minimum and maximum memory provide valuable information about temperature extremes between checks. Failing to read and reset these values means missing overnight temperature dips or daytime spikes that could affect bird health.

Failure to Calibrate Thermometers

Thermometers drift over time, and a thermometer that reads 2 degrees Celsius high or low can lead to incorrect management decisions. Regular calibration checks against a known reference should be part of the monitoring routine.

Not Recording Readings

Temperature readings that are not recorded cannot be reviewed for patterns, shared with advisers, or used to document management practices. A verbal report that "temperatures were fine" provides no useful record. Written logs or digital records are essential.

Delayed Response to Alarms

Automated alarm systems are only useful if someone responds to them. Farms should have clear protocols for who is contacted when an alarm triggers, how quickly they must respond, and what actions they must take. Alarm response protocols should be tested regularly.

Welfare and Safety Context for Temperature Monitoring

Bird Welfare Implications

Temperature extremes directly affect bird welfare. Cold stress causes chicks to huddle, reducing movement and access to feed and water. Heat stress causes panting, reduced feed intake, and increased water consumption. Prolonged heat stress can lead to mortality. The 2018 study in Physiology & Behavior found that surface temperatures in laying hens changed in response to stress, with comb, face, and eye temperatures increasing under chronic stress conditions. While infrared thermography is not a standard tool for most farms, this research demonstrates that thermal conditions and stress are linked.

The World Organisation for Animal Health addresses animal health and welfare in its standards and guidance. Farmers should be aware that maintaining appropriate environmental conditions, including temperature, is part of responsible animal care. The USDA National Agricultural Library provides resources on animal health and welfare that can help farmers understand welfare standards and best practices.

Worker Safety Considerations

Poultry houses can present safety hazards for workers, particularly during extreme temperature events. Workers entering houses during heat waves may be at risk of heat stress themselves. Workers should be trained to recognize signs of heat illness and should have access to water and rest breaks. The 2023 study in Microorganisms noted that the poultry house environment is characterized by elevated temperature, high dust content, and feathers, which can affect worker health as well as bird health. The 2017 stable isotope study also noted relevant health problems in animals and their caretakers in poultry house environments.

Food Safety Connections

Environmental conditions in poultry houses can affect food safety. The 2023 study in Microorganisms detected significant concentrations of pathogens including Salmonella, Staphylococcus, and Campylobacter in poultry facilities. Temperature management affects bird health and immune function, which can influence susceptibility to infection. The U.S. Food and Drug Administration provides animal and veterinary resources that address food safety considerations in animal production.

Biosecurity and Disease Prevention

Temperature stress can increase bird susceptibility to disease. The 2025 retrospective study of Sonali chicken farms in Bangladesh found high prevalence of Newcastle Disease, Infectious Bursal Disease, Avian Influenza, Colibacillosis, Coccidiosis, Brooder Pneumonia, and Ascariasis across the farms studied. While this study focused on management factors associated with disease prevalence, proper environmental management, including temperature control, is widely recognized as a foundation for disease prevention. The study also found that farms where farmers had no knowledge of vaccine transportation temperature requirements had higher prevalence of Infectious Bursal Disease, highlighting the importance of temperature management throughout the production chain.

Limitations of Temperature Monitoring

Temperature Is One Factor Among Many

Temperature monitoring is essential, but it is not sufficient for optimal poultry house management. Relative humidity, air speed, ammonia concentration, carbon dioxide levels, and dust levels all affect bird health and performance. The 2024 broiler house study found that in-cage wind speed, aisle wind speed, and relative humidity played critical roles in indoor air quality distribution during broiler rearing. A 2025 study in Scientific Reports described a monitoring system that measured temperature, humidity, ammonia, and methane, recognizing that multiple parameters are needed for comprehensive environmental management.

Thermometer Readings Do Not Measure Bird Thermal Status Directly

Air temperature readings indicate the thermal environment, but bird response to that environment depends on humidity, air speed, bird density, feather cover, and bird health. Two houses with the same air temperature can present very different thermal challenges to birds if humidity or air speed differs. Observing bird behavior alongside temperature readings provides a more complete picture.

Equipment Failure Can Compromise Monitoring

Thermometers can fail, batteries can die, and sensors can be damaged by dust, moisture, or bird activity. Automated systems can lose connectivity or experience software errors. Farms should have backup monitoring methods and should verify automated readings with manual checks periodically.

Temperature Targets Vary by Operation

The temperature ranges provided in this article are general guidance. Specific target temperatures depend on bird breed, age, housing system, climate, and management approach. Farmers should work with their veterinarian or poultry adviser to establish targets for their specific operation and should adjust targets based on observed bird performance and behavior.

Professional Escalation Criteria

Farmers should seek professional assistance when temperature problems persist despite corrective action, when bird health or performance declines in association with temperature issues, or when they are uncertain about appropriate temperature targets or management responses.

Specific situations that warrant professional consultation include:

• Temperature readings that remain outside target ranges despite adjustments to heating, cooling, or ventilation systems
• Bird behavior that suggests thermal stress even when thermometer readings appear acceptable
• Increased mortality, reduced feed intake, or reduced egg production that coincides with temperature events
• Recurring temperature patterns that suggest equipment problems or house design issues
• Questions about appropriate temperature targets for specific breeds or housing systems
• Concerns about interactions between temperature and other environmental factors such as humidity, ammonia, or air speed

Veterinarians can assess bird health and provide guidance on disease prevention and treatment. Poultry advisers and extension specialists can help with house design, ventilation management, and environmental control. The Food and Agriculture Organization of the United Nations provides animal production resources that may be useful for farmers seeking additional information. The USDA Agricultural Research Service conducts research on animal production and protection that may inform management practices.

Frequently Asked Questions

How many thermometers should I place in my poultry house?

The number of thermometers depends on house size and layout. A small house should have at least three thermometers, one near each end and one near the center. Larger houses need more, with additional thermometers near air inlets, exhaust fans, and any areas where temperature problems are known or suspected. The goal is to detect temperature variation across the house, not to have a single reading that represents the entire building.

Where exactly should I place temperature probes in a poultry house?

Temperature probes should be placed at bird level, which means at the height of the birds' bodies. For chicks, this is near the litter surface. For adult birds, this is higher off the floor. Probes should be shielded from direct radiant heat sources such as brooders or heaters, and protected from bird contact, dust, and moisture. Multiple probes should be distributed across the house to capture spatial variation.

How often should I check temperatures in my poultry house?

During the first week of brooding, check temperatures every 2 to 4 hours, including overnight. From day 8 to day 21, check every 4 to 6 hours. For older birds, check at least twice daily, with more frequent checks during hot weather or when equipment is not functioning optimally. Automated monitoring systems with continuous logging provide additional protection by detecting temperature excursions between manual checks.

What is the ideal temperature for day-old chicks?

Day-old chicks generally need brooding temperatures of 32 to 35 degrees Celsius at chick level. The temperature should be verified with a thermometer placed directly on the litter surface, not at human height. Brooding temperature should be reduced gradually as chicks develop, typically by about 2 to 3 degrees Celsius per week.

What should I do if the temperature in my poultry house rises too high?

First, verify the thermometer reading with a second device. Then check that ventilation equipment is functioning, including fans and air inlets. Increase ventilation if possible. Check water supply and ensure birds have access to cool water. Observe bird behavior for signs of heat stress such as panting, spreading wings, and reduced activity. If temperatures remain high despite corrective action, consult a veterinarian or poultry adviser.

What should I do if the temperature in my poultry house drops too low?

Verify the reading with a second thermometer, then check that heating equipment is functioning. Increase heat output if possible. Check for drafts or air leaks that may be allowing cold air to enter. Observe bird behavior for signs of cold stress such as huddling, crowding, and reduced activity. Chicks that are chilled may need supplemental heat and closer monitoring.

Can I use an infrared thermometer instead of a probe thermometer?

Infrared thermometers measure surface temperature without contact and are useful for spot-checking floor surface temperature, wall temperatures, and bird surface temperatures. However, they are not a substitute for air temperature monitoring with probe thermometers. Infrared readings are affected by distance, surface type, and technique. Use infrared thermometers as a supplement to, not a replacement for, probe thermometers.

How do I know if my thermometer is accurate?

Check thermometers against a known reference periodically. An ice-water bath test can verify accuracy at the low end of the range. Digital thermometers can also be compared against a recently calibrated reference thermometer placed side by side in the same location. Document calibration checks in farm records and replace or recalibrate thermometers that drift outside acceptable accuracy.

Related Farming Guides

• Poultry Flock Health Records and Veterinary Escalation
• Sheep Flock Health Planning: Vaccination, Biosecurity, and Monitoring
• Sheep Health Records: Building a Flock-Level Monitoring System
• Chicken Coop Heating and Cooling: Temperature Management for Flock Health
• Poultry Farm Biosecurity Checklist

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.
• Multivariate analysis for data mining to characterize poultry house environment in winter.. Poultry science, 2024.
• Sampling and Characterization of Bioaerosols in Poultry Houses.. Microorganisms, 2023.
• Design and validation of a low-cost data-driven poultry heat and moisture production monitoring system.. Poultry science, 2025.
• Bench-scale biofilter for removing ammonia from poultry house exhaust.. Journal of environmental science and health. Part. B, Pesticides, food contaminants, and agricultural wastes, 2003.
• Surface temperature elevated by chronic and intermittent stress.. Physiology & behavior, 2018.
• A smart automatic control and monitoring system for environmental control in poultry houses integrated with earlier warning system.. Scientific reports, 2025.
• Newcastle viral disease causation web correlations with laying hen productivity.. Scientific reports, 2024.
• Stable isotope ratio method for the characterisation of the poultry house environment.. Isotopes in environmental and health studies, 2017.
• Factors associated with common prevalent diseases in the Sonali chicken farms of the different regions of Bangladesh: a retrospective study.. 2025.
• Survey of husbandry practices and captive environments for North Island brown kiwi &lt,i&gt,(Apteryx mantelli)&lt,/i&gt, housed in facilities within and outside New Zealand.. 2025.
• Mapping the flow of commercial broiler day-old chicks in Kenya.. 2025.
• Cosmopolitan no more: Phylogenetics and reproductive mode reveal a global species complex in a marine mollusk (Teredinidae).. 2026.
• Effects of Panax ginseng root meal as feed additive on reproductive performance of Cameroon kabir hens.. 2024.
• Multifunctional elevated platforms for improving thermoregulation, litter quality and welfare in broiler chickens.. 2026.
• Smart Control and Monitoring System for Closed Poultry House based on IoT. International Journal of Applied Sciences and Smart Technologies, 2024.
• Smart Poultry House Monitoring System Using IoT. E3S Web of Conferences, 2023.
• Development of a low-cost IoT-based system for monitoring and regulating poultry farm ambient temperature and relative humidity. World Journal of Applied Science &amp, Technology, 2025.
• IoT Based Poultry House Monitoring. 2019 2nd International Conference on Communication Engineering and Technology (ICCET), 2019.
• IoT based Modern Poultry House with Enhanced Accuracy. 2023 2nd International Conference on Edge Computing and Applications (ICECAA), 2023.
• Automation and monitoring of poultry house utilizing wireless sensor network. 2017.
• IMPACT OF SEX AND BIRD’S LOCATION INSIDE A LOCAL POULTRY HOUSE ON SOME PRODUCTIVE TRAITS THROUGH DIAGNOSTIC ENVIRONMENTAL MONITORING SYSTEM OF ROSE BROILER 308. 2016.
• Design and implementation of temperature and humidity monitoring system for poultry farm. Proceedings of SPIE the International Society for Optical Engineering, 2016.
• Towards a poultry house environment monitoring system based on Internet of Things. Sensors and Transducers, 2013.
• Use of IoT Sensors to Build an Intelligent Monitoring and Control System for Poultry House Environment. Sensors and Materials, 2023.
• Monitoring Environmental Parameters in Poultry Houses Using IoT. Agricultural Engineering, 2026.
• Research on improvement of data fusion algorithm for temperature monitoring in livestock house. Journal of Chinese Agricultural Mechanization, 2024.

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