Dairy Shed Design: Layout and Ventilation for Cow Comfort

Dairy shed design directly influences cow comfort, health, and milk production. This article provides practical guidance for farmers, farm employees, veterinarians, advisers, students, and farm planners on designing functional and comfortable dairy sheds. The focus is on layout, orientation, ventilation, and bedding areas, with attention to how these elements affect cow behavior, thermal stress, and overall herd performance. A design checklist for new or renovated dairy sheds is included as the original utility of this content.

At a Glance: Key Design Decisions for Dairy Sheds

The table below summarizes critical design decisions that affect cow comfort and shed performance. Each decision carries tradeoffs that should be evaluated against your specific climate, herd size, and management capacity.

Core Principles of Dairy Shed Design

Cow Comfort as the Foundation

Cow comfort is a significant consideration in dairy farming worldwide. Providing an ideal microclimate offers a comfortable environment for dairy cows and is essential to ensure a positive relationship with health condition and productivity so that animals can adapt and produce optimally. In such an environment, cows should be able to express natural behavior patterns, which are important for their well-being and overall comfort. Various measures have been developed to evaluate and monitor cow welfare and comfort, including examining aspects such as behavior, management, and their correlation with thermal stress and economic implications. Cow comfort indices are used to assess the comfort and welfare aspects of dairy cows based on four behavioral patterns: lying down, standing, feeding, and drinking. Indicators of good cow comfort in dairy farming systems include improved milk production, improved reproduction, improved feed intake, most resting time, reduction of injuries, absence of lameness, better adaptation, better health, and better economic efficiency. Understanding and implementing physiological and behavioral adaptive features helps formulate better management strategies for dairy cows to be comfortable and produce at ease, ensuring optimum economic return for dairy farms. The FAO Animal Production and Health program provides resources on livestock production systems that support these principles.

The Relationship Between Design and Health

The design of dairy barns has fluctuated over the decades to maximize cattle health and milk production. Beyond cost, the major emphasis of barn design is the management of appropriate temperature and comfort for cattle. However, there have been no corresponding investigations into whether these design changes affect microbial communities within barns. Research on protist communities at a commercial dairy implementing two free-stall management systems, flow-through and cross-vent, found that protist composition differed significantly between dairy components. Troughs and lagoons harbored high protist diversity, including possible pathogens, while manure had the lowest protist diversity. Stable flies carried more protist taxa than house flies. These findings suggest that water sources and fly control should be considered in shed design and management. The USDA Agricultural Research Service Animal Production and Protection program supports research on livestock production systems and their environmental interactions.

Shed Orientation and Site Selection

Wind-Driven Ventilation

Natural ventilation relies on wind and thermal buoyancy to move air through the shed. Wind-driven ventilation performance depends heavily on building orientation and surrounding structures. High-resolution airflow and turbulence measurements from a boundary layer wind tunnel study of a 1:50 scaled asymmetric dairy barn model provide reference data for understanding airflow patterns. The datasets include boundary layer profile measurements to assess flow stability and Reynolds number independence, plus airflow measurements at a cross-sectional plane inside and outside the scaled model under the established boundary layer, comprising 233 measurement positions. These datasets serve as references for numerical modeling and are valuable for investigating wind-driven ventilation performance and emission characterization in naturally ventilated livestock buildings.

For practical shed design, orient the long axis of the building perpendicular to prevailing summer winds to maximize cross-ventilation. In regions with strong winter winds, consider windbreaks or adjustable side curtains to protect cows from drafts while maintaining summer airflow. The World Organisation for Animal Health Animal Health and Welfare program provides international standards for animal welfare that include housing and environmental considerations.

Sun Exposure and Heat Load

Solar radiation contributes significantly to heat load inside dairy sheds. In hot climates, orient the shed to minimize afternoon sun exposure on cow resting areas. Roof design should include adequate overhang or shade structures to protect cows from direct sunlight during the hottest part of the day. Reflective roof materials can reduce radiant heat transfer into the shed.

In subtropical conditions, heat stress is a major concern for dairy cow welfare and productivity. Behavioral responses of dairy cows to thermal load differ between milking system environments. A study comparing an automated milking system (AMS) and a conventional parlor system under commercial subtropical conditions found that cows in the AMS barn showed lower panting duration and reduced day-to-day variability, whereas the traditional barn exhibited higher panting levels and greater short-term fluctuations. Panting increased consistently with temperature-humidity index (THI), emerging as the most sensitive indicator of thermal load, while feeding and rumination showed weaker responses. During heatwaves, panting increased markedly in both systems, with limited changes in feeding and rumination. These findings support panting as a practical indicator for heat-stress monitoring in subtropical dairy systems and suggest that shed design should prioritize features that reduce panting behavior.

Ventilation System Design

Natural Ventilation

Natural ventilation systems use wind and thermal buoyancy to move air through the shed. Key design elements include ridge openings, side wall openings, and eave inlets. The ridge opening allows warm, moist air to escape, while side openings admit fresh air. The cross-sectional area of openings should be matched to the shed width and expected wind conditions.

For naturally ventilated sheds, the placement of internal structures significantly affects airflow. Automated milking systems (AMS) integrated into barn layouts can restrict airflow and increase the risk of heat stress in lactating cows. Computational fluid dynamics (CFD) models developed for two full-scale AMS barns evaluated airflow and temperature distribution under different ventilation designs. Farm 1, a tunnel-ventilated barn, housed 218 lactating cows and six milking robots, while Farm 2, a cross-ventilated barn, accommodated 424 lactating cows and eight robots. The model geometry incorporated standing and lying cows, AMS units, ventilation and circulation fans, air inlets, stalls, feed alleys, and baffles.

In Farm 1, replacing supply fans with an air inlet had no significant impact on temperature or airflow distribution at either cow resting or standing heights, indicating limited benefit from using supply fans, especially considering their energy consumption. Adding baffles reduced temperatures in the commitment pen by up to 4.25 percent and increased air velocity at 0.5 m from 0.33 to 0.77 m per second. In Farm 2, AMS units were placed along the side wall, and their removal had no measurable effect on temperature or air velocity. This highlights the importance of strategically placing AMS units, even in retrofitted barns, to prevent blocking airflow. Although supply fans improved airflow at 1.5 m, they provided no benefit at 0.5 m, where air velocity remained low. The USDA National Agricultural Library Animal Health and Welfare resource provides access to research on livestock housing and environmental management.

Mechanical Ventilation

Mechanical ventilation systems provide consistent airflow regardless of outdoor wind conditions. Tunnel ventilation uses fans at one end of the barn to draw air through the building, while cross-ventilation uses fans along one side wall to move air across the barn. These systems are common in regions with hot, humid summers where natural ventilation is insufficient.

When designing mechanical ventilation, consider the airflow path from inlet to exhaust. Obstructions such as AMS units, feed barriers, and support columns can disrupt airflow and create dead zones where heat and humidity accumulate. The CFD research on AMS barns demonstrated that strategic placement of equipment and the use of baffles can improve airflow at cow level. Baffles redirect air downward toward the cow zone, improving cooling where it matters most.

Airflow Measurement and Verification

After construction or renovation, verify that the ventilation system performs as designed. Measure air velocity at cow resting height (approximately 0.5 m above the lying surface) and at standing height (approximately 1.5 m). Air velocity at cow level is the critical parameter for heat stress relief, as airflow at higher levels may not reach the cows.

The wind tunnel dataset described earlier provides reference measurements for validating CFD models of naturally ventilated livestock buildings. For on-farm verification, use portable anemometers to map airflow patterns across the shed. Identify areas with consistently low airflow and address them with baffles, fans, or adjustments to inlet openings.

Bedding and Resting Areas

Bedding Material Selection

The quality of dairy cow bedding is directly related to the occurrence of environmental mastitis. An excessive incidence of inflammation of the mammary glands of dairy cows has been observed in many dairy farms, demonstrably correlated with an increased incidence of microbial pathogens in livestock environments. The causes of mastitis can be infectious or non-infectious, with one of the main sources being litter material in the lying area. Mastitis has a significant impact on the economic value of dairy cows, making it necessary to create effective measures that eliminate the appearance of pathogenic microorganisms.

Litter material obtained by physical separation and thermal treatment of slurry may represent a suitable alternative ensuring inhibition of the development of dangerous bacteria while maintaining the comfort of dairy cows. However, current evidence on the safety and benefits of such material is limited, and data on effects on clinical and subclinical mastitis are insufficient. Farmers should evaluate bedding options based on moisture management, pathogen load, cow comfort, and availability.

Bedded-Pack Barns

Bedded-pack barns require careful management of bedding moisture and composting dynamics. A study investigating the effects of construction design and seasonal climatic conditions on bedding dynamics in bedded-pack dairy systems with contrasting composting functionality included systems representing both composting bedded-pack barns (CBP), characterized by active management with regular turning and ventilation, and non-composting bedded-pack barns (BPB), which lacked aeration and did not promote active composting. Nine farms were divided into three groups: CONV (large, full-time CBP), ADAP (adapted, full-time CBP), and PART (partially used BPB). Evaluations were conducted during both cold and hot seasons.

Bedding temperature was significantly higher in the hot season (36.55 degrees Celsius) compared to the cold season (32.12 degrees Celsius), and was highest in the ADAP group (40.01 degrees Celsius), followed by CONV (37.39 degrees Celsius) and PART (26.18 degrees Celsius). The 24-hour temperature curve indicated favorable composting conditions only in the CONV and ADAP groups. Spatial temperature distribution varied significantly across locations in most barns. Moisture content was lower in the hot season (46.91 percent and 41.41 percent) than in the cold season (57.03 percent). These findings demonstrate that active management of bedded packs, including regular turning and ventilation, is essential for achieving composting conditions that reduce moisture and pathogen load.

Stall Design and Dimensions

Stall dimensions should match the mature cow frame to allow natural lying and rising behavior. Inadequate stall dimensions reduce lying time and increase the risk of injury. The German Journal of Veterinary Research review on cow comfort describes how lying time is a key indicator of cow comfort and how stall design affects lying behavior.

For free-stall barns, provide adequate lunge space for cows to rise and lie down without hitting partitions or walls. The neck rail position should allow cows to stand with all four feet on the stall platform while preventing them from standing too far forward. The stall surface should provide cushioning and traction to reduce the risk of hock injuries and lameness.

Milking System Integration

Automated Milking Systems

Automated milking systems (AMS) are increasingly used in dairy production to address labor shortages while supporting cow health and milk production. However, their integration into barn layouts can restrict airflow and increase the risk of heat stress in lactating cows. The CFD study of AMS barns demonstrated that AMS units placed along side walls can block airflow, although their removal had no measurable effect on temperature or air velocity in the studied configuration. This highlights the importance of strategic placement of AMS units, even in retrofitted barns, to prevent blocking airflow.

When designing a shed with AMS, consider the traffic flow of cows to and from the milking units. The layout should minimize walking distance and congestion while maintaining clear airflow paths. The commitment pen, where cows wait to be milked, may require additional cooling measures such as baffles or fans to maintain cow comfort during peak traffic periods.

Conventional Parlors

Conventional milking parlors require careful attention to cow flow and waiting areas. The holding pen should provide shade and ventilation while cows wait to be milked. In hot climates, the holding pen can be a significant source of heat stress, as cows are densely stocked and may wait for extended periods.

The geometry of milk liners affects milking performance and cow comfort, as the milk liner is the only part of the milking machine that comes into contact with the teat. A study comparing square versus conventional round teat cup liners found that average milk flow rate, milk flow rate during 0-15, 15-30, and 30-60 seconds after cluster attachment, and milk flow rate at cluster take-off were higher with square liners compared to round liners. Proportion of time in a milking session with low milk flow rate and duration of milking session were less with square liners. However, the effect of liner geometry on peak milk flow rate was inconsistent across the two study periods. Stomping and kicking behaviors of cows were similar between treatments. These results suggest that square milk liners potentially improve milking performance without adverse effects on cow comfort compared to conventional round liners, though long-term multi-site studies are needed.

Environmental Monitoring and Gas Management

Ammonia and Greenhouse Gases

Dairy shed design affects the concentration and emission of ammonia and greenhouse gases. Seasonal dynamics and climatic influences of greenhouse gases (CO2, CH4) and ammonia (NH3) concentrations in loose housing cattle sheds have been documented in the Indian Journal of Animal Sciences. Ventilation rate, temperature, and humidity all influence gas concentrations within the shed.

Data-driven prediction of ammonia and methane concentrations and emissions in dairy barns using artificial neural networks has been explored in research published in PMC. These modeling approaches can help farmers anticipate gas concentration patterns and adjust ventilation accordingly.

For practical management, monitor ammonia levels in the shed, particularly in winter when ventilation rates are reduced to conserve heat. High ammonia concentrations irritate the respiratory tract of cows and workers, reducing feed intake and increasing the risk of respiratory disease. The U.S. Food and Drug Administration Animal and Veterinary Resources provides information on animal health and food safety considerations relevant to dairy production.

Temperature and Humidity Monitoring

Continuous monitoring of temperature and humidity allows farmers to assess heat stress risk and adjust ventilation or cooling measures. The temperature-humidity index (THI) combines temperature and humidity into a single value that correlates with heat stress level. Panting behavior increases consistently with THI, making it a practical indicator for heat-stress monitoring.

Place temperature and humidity sensors at cow level in multiple locations across the shed to capture spatial variation. Data loggers can record conditions over time, allowing you to identify patterns and evaluate the effectiveness of ventilation changes.

Practical Implementation Steps

Step 1: Assess Current Conditions

Before designing a new shed or renovating an existing one, assess the current conditions and identify specific problems. Walk through the shed at different times of day and in different seasons. Look for signs of poor ventilation, including condensation on surfaces, strong ammonia odors, and cows panting or bunching. Measure air velocity at cow level in multiple locations. Observe cow behavior, particularly lying time, feeding behavior, and signs of heat stress.

Step 2: Define Design Objectives

Based on the assessment, define specific design objectives. These may include reducing heat stress during summer months, improving air quality in winter, increasing lying time, or reducing the incidence of mastitis. Prioritize objectives based on their impact on cow health, milk production, and farm profitability.

Step 3: Develop a Layout Plan

Develop a layout plan that addresses the design objectives. Consider the following elements:

• Shed orientation relative to prevailing winds and sun exposure
• Ventilation system type and capacity
• Stall dimensions and configuration
• Bedding area design and management
• Milking system integration and cow traffic flow
• Feed alley and water trough placement
• Manure management system

Step 4: Model or Simulate Airflow

For complex designs or renovations, consider using CFD modeling to evaluate airflow patterns before construction. The wind tunnel dataset described earlier provides reference data for validating CFD models of naturally ventilated livestock buildings. A validated CFD model can estimate airflow and emission patterns, helping to identify potential problem areas before they are built.

Step 5: Implement and Verify

After construction or renovation, verify that the shed performs as designed. Measure air velocity at cow level, monitor temperature and humidity, and observe cow behavior. Compare actual performance to design objectives and make adjustments as needed.

Records and Measurements

Essential Records for Shed Management

Maintain records of environmental conditions and cow responses to evaluate shed performance over time. Useful records include:

• Daily temperature and humidity readings at cow level
• Air velocity measurements at key locations
• Ammonia concentration readings
• Panting scores during hot weather
• Lying time observations
• Mastitis incidence and bedding management records
• Ventilation system maintenance and operation logs

Interpreting Records

Review records regularly to identify trends and problems. For example, if ammonia concentrations increase during winter months, this may indicate inadequate ventilation for the stocking density. If panting scores remain high despite ventilation improvements, additional cooling measures may be needed.

The USDA Agricultural Research Service Animal Production and Protection program supports research on livestock production systems that can inform record interpretation and management decisions.

Common Failure Patterns in Dairy Shed Design

Inadequate Airflow at Cow Level

A common failure is providing ventilation that moves air at human height but not at cow level. Cows are relatively low to the ground, and airflow that passes above them provides little cooling benefit. The CFD research on AMS barns demonstrated that supply fans improved airflow at 1.5 m but provided no benefit at 0.5 m, where air velocity remained low. Design ventilation systems to direct airflow downward toward the cow zone.

Obstruction of Airflow Paths

Internal structures such as AMS units, feed barriers, support columns, and office spaces can obstruct airflow and create dead zones. The CFD study of AMS barns found that AMS units placed along side walls can block airflow, although their removal had no measurable effect on temperature or air velocity in the studied configuration. When designing the layout, map the airflow path from inlet to exhaust and position structures to minimize obstruction.

Poor Bedding Moisture Management

Bedding moisture is a critical factor in cow comfort and mastitis risk. The bedded-pack study found that moisture content was lower in the hot season than in the cold season, and that active composting conditions were achieved only in barns with regular turning and ventilation. Without active management, bedding moisture accumulates, increasing pathogen load and reducing cow comfort.

Inadequate Space Allowance

Overcrowding reduces lying time, increases competition at the feed bunk, and concentrates heat and moisture. The cow comfort review describes how lying time is a key indicator of cow comfort and how space allowance affects lying behavior. Provide adequate stall numbers and feed bunk space for the herd size.

Ignoring Seasonal Variation

Shed designs that work well in one season may fail in another. The bedded-pack study found significant differences in bedding temperature and moisture between hot and cold seasons. Design ventilation and bedding systems to accommodate seasonal variation, with adjustable openings and management practices that change with the weather.

Limitations and Considerations

Climate and Regional Variation

Shed design recommendations must be adapted to local climate conditions. Designs that work in temperate regions may fail in subtropical or tropical environments. The behavioral study of heat stress in subtropical conditions found that panting increased markedly during heatwaves in both AMS and conventional systems, with limited changes in feeding and rumination. Farmers in hot climates should prioritize heat stress mitigation in shed design.

Economic Constraints

Shed design involves significant capital investment. Farmers must balance the cost of ventilation systems, bedding materials, and building features against the expected benefits in milk production, cow health, and labor efficiency. The FAO Animal Production and Health program provides resources on livestock production economics that can inform these decisions.

Management Capacity

The effectiveness of shed design depends on management capacity. A well-designed shed with poor management will underperform, while a modest shed with excellent management can achieve good results. The bedded-pack study demonstrated that active management, including regular turning and ventilation, is essential for achieving composting conditions in bedded-pack barns. Consider your ability to maintain ventilation systems, manage bedding, and monitor environmental conditions when selecting design features.

Welfare and Safety Context

Cow Welfare Considerations

Cow comfort is a significant consideration in dairy farming worldwide. Providing an ideal microclimate offers a comfortable environment for dairy cows and is essential to ensure a positive relationship with health condition and productivity. Cows should be able to express natural behavior patterns, which are important for their well-being and overall comfort. Indicators of good cow comfort include improved milk production, improved reproduction, improved feed intake, most resting time, reduction of injuries, absence of lameness, better adaptation, better health, and better economic efficiency.

The World Organisation for Animal Health Animal Health and Welfare program provides international standards for animal welfare that include housing and environmental considerations. The USDA National Agricultural Library Animal Health and Welfare resource provides access to research on livestock welfare.

Worker Safety

Dairy shed design affects worker safety as well as cow comfort. Ventilation systems that control ammonia and other gases protect worker respiratory health. Adequate lighting improves visibility and reduces the risk of accidents. Non-slip flooring in walkways and milking areas reduces the risk of falls. Consider worker safety when designing traffic patterns, equipment placement, and access routes.

Food Safety

Shed design affects food safety through its influence on cow health and milk quality. Mastitis, which is influenced by bedding quality and cow comfort, affects milk quality and food safety. The U.S. Food and Drug Administration Animal and Veterinary Resources provides information on food safety considerations relevant to dairy production.

Professional Escalation Criteria

When to Consult a Specialist

Some shed design problems require professional expertise. Consult a specialist in the following situations:

• Persistent heat stress despite ventilation improvements, which may require CFD modeling or consultation with a ventilation engineer
• Recurrent mastitis outbreaks linked to bedding, which may require consultation with a veterinarian or dairy scientist
• Structural modifications to existing buildings, which may require consultation with an agricultural engineer
• Major renovations or new construction, which may require consultation with a farm building specialist

When to Seek Veterinary Advice

Seek veterinary advice when cow health problems are associated with shed conditions. The randomized controlled trial in Kenya investigating compliance with cow comfort and mastitis control recommendations found that farms complied with an average of 2.8 and 2.1 mastitis and cow comfort recommendations, respectively, leading to an overall average compliance score of 63.2 percent. This demonstrates that implementing recommendations can be challenging and that professional support may improve outcomes.

The USDA Agricultural Research Service Animal Production and Protection program supports research on animal health that can inform veterinary recommendations.

Frequently Asked Questions

What is the optimal orientation for a naturally ventilated dairy shed?

The optimal orientation places the long axis of the building perpendicular to prevailing summer winds to maximize cross-ventilation. This allows wind to move through the shed and carry away heat, moisture, and gases. In regions with strong winter winds, consider windbreaks or adjustable side curtains to protect cows from drafts while maintaining summer airflow. The wind tunnel dataset on airflow in an asymmetric naturally ventilated livestock building provides reference data for understanding how building orientation affects airflow patterns.

How much air velocity do cows need at resting height for heat stress relief?

Air velocity at cow resting height, approximately 0.5 m above the lying surface, is the critical parameter for heat stress relief. The CFD study of AMS barns found that adding baffles increased air velocity at 0.5 m from 0.33 to 0.77 m per second, which reduced temperatures in the commitment pen. Airflow at higher levels, such as 1.5 m, may not reach the cows and provides limited cooling benefit. Measure air velocity at cow level to verify that ventilation systems are performing as designed.

What bedding materials are best for reducing mastitis risk?

Bedding quality is directly related to the occurrence of environmental mastitis. Litter material obtained by physical separation and thermal treatment of slurry may represent a suitable alternative that inhibits the development of dangerous bacteria while maintaining cow comfort. However, current evidence on the safety and benefits of such material is limited, and data on effects on clinical and subclinical mastitis are insufficient. Evaluate bedding options based on moisture management, pathogen load, cow comfort, and availability.

How does an automated milking system affect shed ventilation?

Automated milking systems integrated into barn layouts can restrict airflow and increase the risk of heat stress in lactating cows. The CFD study of AMS barns found that AMS units placed along side walls can block airflow, although their removal had no measurable effect on temperature or air velocity in the studied configuration. Strategic placement of AMS units, even in retrofitted barns, is important to prevent blocking airflow. Baffles can be used to redirect air downward toward the cow zone.

What records should I keep to evaluate shed performance?

Maintain records of daily temperature and humidity readings at cow level, air velocity measurements at key locations, ammonia concentration readings, panting scores during hot weather, lying time observations, mastitis incidence and bedding management records, and ventilation system maintenance and operation logs. Review records regularly to identify trends and problems. Data-driven prediction of ammonia and methane concentrations using artificial neural networks has been explored in research, suggesting that modeling approaches can help anticipate gas concentration patterns.

How often should bedding be replaced in a bedded-pack barn?

Bedding management frequency depends on the type of bedding system and seasonal conditions. The bedded-pack study found that active composting conditions, characterized by favorable temperature curves, were achieved only in barns with regular turning and ventilation. Moisture content was lower in the hot season than in the cold season, indicating that bedding management needs vary seasonally. Monitor bedding moisture and temperature regularly and adjust management practices accordingly.

What are the signs of inadequate ventilation in a dairy shed?

Signs of inadequate ventilation include condensation on surfaces, strong ammonia odors, cows panting or bunching, and reduced feed intake. Panting is the most sensitive behavioral indicator of thermal load, increasing consistently with temperature-humidity index. During heatwaves, panting increases markedly even when feeding and rumination show limited changes. If you observe these signs, measure air velocity at cow level and evaluate the ventilation system performance.

When should I consult a professional about shed design?

Consult a professional when you have persistent heat stress despite ventilation improvements, recurrent mastitis outbreaks linked to bedding, structural modifications to existing buildings, or major renovations or new construction. A ventilation engineer can perform CFD modeling to evaluate airflow patterns, a veterinarian can advise on mastitis control, and an agricultural engineer can provide structural guidance. The randomized controlled trial in Kenya found that farms complied with an average of 63.2 percent of recommendations, demonstrating that professional support can improve outcomes but that implementation requires ongoing effort.

Related Farming Guides

• Calving Barn Design: Layout, Hygiene, and Cow Comfort
• Dairy Cow Comfort Scoring
• How to Design a Comfortable Dairy Cow Barn
• Dairy Cow Sand Bedding Management
• Dairy Cow Stall Design Assessment

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.
• Composting Dynamics, Bedding Properties, and Seasonal Effects in Composting and Non-Composting Bedded-Pack Barns in a Subtropical Region.. 2026.
• Boundary layer wind tunnel measurement datasets of airflow study in an asymmetric naturally ventilated livestock building.. 2026.
• Behavioral Indicators of Heat Stress in Dairy Cows Under Subtropical Conditions: Comparison of Milking Systems.. 2026.
• Assessing ventilation design of dairy buildings equipped with automated milking systems using computational fluid dynamics. 2025.
• Protist community sites and structure under two barn management systems at a commercial dairy.. 2026.
• Data-Driven Prediction of Ammonia and Methane Concentrations and Emissions in Dairy Barns Using Artificial Neural Networks. 2026.
• The Quality of Dairy Cow Bedding and the Occurrence of Environmental Mastitis: Review. Archives of Ecotoxicology, 2023.
• Geometry of milk liners affects milking performance in dairy cows. Journal of Dairy Research, 2024.
• Cow comfort, behavior and welfare with specific reference to dairy cattle: A review. German Journal of Veterinary Research, 2024.
• Investigating compliance with cow comfort and mastitis control recommendations on mastitis outcomes in smallholder dairy farms in Central Kenya.. Research in Veterinary Science, 2024.
• Management practices and cow comfort of crossbred dairy cows in youth managed dairy farm enterprises, South Gondar Zone, Amhara Region, Ethiopia. Journal of Agriculture and Environmental Sciences, 2023.
• Seasonal dynamics and climatic influences of greenhouse gases (CO2, CH4) and ammonia (NH3) concentrations on loose housing cattle shed. Indian Journal of Animal Sciences, 2024.

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