Goat Fencing and Shelter: Secure Housing for Your Herd

Goat keeping requires a deliberate approach to containment and protection because goats test fences persistently, climb on supports, and push against weak points. This article gives animal owners, veterinary students, veterinary technicians, and veterinary professionals a practical framework for selecting fencing materials, designing shelters for different climates, and managing predator risk. The guidance draws on published evidence about goat behavior, parasite control through rotational grazing, and welfare assessment in hot arid regions. Decisions about fencing and shelter affect daily labor, animal health, and the ability to manage grazing pressure. The content here supports planning and record keeping but does not replace advice from a veterinarian or agricultural engineer for site specific conditions.

At a Glance: Fencing and Shelter Decisions

The table below summarizes the main fencing options, their relative cost, expected durability, and maintenance demands. Use it as a starting point for comparing systems against your herd size, predator pressure, and budget.

A second comparison table addresses shelter design features and their role in animal welfare.

Understanding Goat Behavior and Containment Needs

Goats are agile climbers and persistent testers of fence integrity. They stand on hind legs to reach vegetation, push against gates, and exploit small gaps. A fence that contains sheep or cattle may fail with goats. The design must account for the behavioral drive to explore and the social dynamics of the herd.

Climbing and Browsing Behavior

Goats naturally browse shrubs and trees, which means they reach upward and may attempt to scale fence mesh. A fence height of at least 1.2 meters is commonly used for adult goats, with some operations using 1.5 meters for highly motivated breeds. The bottom of the fence must sit close to the ground to prevent goats from crawling underneath. Tensioning the wire and securing posts at regular intervals reduces the chance of pushing through.

Social Structure and Herd Movement

Goats establish dominance hierarchies, and subordinate animals may be pushed against fences during feeding or handling. This pressure can deform weak fencing over time. Observing how the herd moves between feeding, resting, and watering areas helps identify high traffic zones that need stronger construction. Gates should be placed where animals naturally gather, and the approach should be level to prevent crowding injuries.

Browsing Pressure and Vegetation Management

Fencing does more than contain animals. It also controls where goats browse and how pasture is used. Rotational grazing, where goats move through a sequence of paddocks, depends on reliable internal fencing. A study in a wet tropical environment found that a rotational system with ten paddocks grazed for 3.5 days at a time allowed goats to maintain lower fecal egg counts compared to set stocked animals, which required anthelmintic treatment when mean flock egg counts exceeded 2000 eggs per gram. The rotationally grazed goats generally stayed below 1000 eggs per gram and only received treatment individually at kidding. This evidence shows that fencing infrastructure directly supports parasite control and reduces reliance on medication. See the full study on rotational grazing for control of gastrointestinal nematodes of goats in a wet tropical environment at PubMed.

Fencing Options and Material Selection

Choosing a fence requires balancing initial cost, durability, maintenance, and the specific risks on your property. No single material suits every situation, so most operations combine systems.

Woven Wire Fencing

Woven wire, also called field fence or net wire, is a common choice for permanent goat enclosures. Fixed knot designs hold their shape better than hinged joint designs under animal pressure. The mesh size matters. Smaller mesh at the bottom prevents kids from squeezing through, while larger mesh higher up reduces material cost. A typical specification uses 10 to 15 centimeter mesh at the base and wider spacing above.

Posts should be set at intervals of 2.5 to 3.5 meters, with corner posts braced to handle tension. Wooden posts treated for ground contact last longer than untreated timber. Steel posts are an alternative where termites or rot are a concern. The top wire should be smooth to avoid injuring animals that reach over the fence.

Electric Fencing

Electric fencing offers flexibility for rotational grazing and temporary divisions. A properly charged fence delivers a memorable but safe shock that trains goats to respect the boundary. The system requires a suitable energizer, good grounding, and regular checks of voltage and vegetation contact.

High tensile wire carries current over long distances with low resistance. Polywire and polytape are lighter options for temporary paddocks. The fence must be visible to goats, so tape or flagging helps animals learn the boundary. Vegetation touching the wire drains the charge, so mowing or herbicide along the fence line is part of routine maintenance.

Voltage should be checked weekly with a digital fence tester. A reading below the energizer manufacturer recommendation indicates a fault, often from vegetation, broken wire, or poor grounding. Goats with thick or wet coats may not receive a strong enough shock, so some operations add a second wire at nose height.

Livestock Panels

Welded wire panels, typically 1.5 to 1.8 meters long and 1.2 to 1.5 meters high, provide strong containment for small areas. They are useful for corrals, handling chutes, and temporary pens. Tubular steel panels are heavier and more expensive but resist bending from large or aggressive animals.

Panels must be secured to sturdy posts or connected to each other with pins that cannot be opened by goats. The bottom edge should sit on the ground or be buried slightly to prevent escape. Panels are not practical for fencing large acreage because of the cost per meter.

Barbed Wire and Other Options

Barbed wire is not recommended as a primary goat fence because goats can be injured by the barbs, especially when they push against the fence. It may be used as a top strand above woven wire to deter predators or climbing animals, but the injury risk to goats remains. Page wire with small mesh is another option, though it is heavier and harder to install than standard woven wire.

Gates and Latches

Gates are the weakest point in most fencing systems. A gate that does not close properly or a latch that a goat can lift becomes an escape route. Use heavy duty hinges and latches that require two hands to open. The gate opening should be wide enough for equipment and for moving animals without crowding. A 1.2 meter gate works for small herds, while 1.8 to 2.4 meters suits larger operations and vehicle access.

Shelter Design for Different Climates

Shelter protects goats from wind, rain, heat, and cold. The design depends on your local climate, the breed, and the resources available. A shelter that works in a hot arid region may cause respiratory problems in a cold wet climate.

Hot Arid Climates

Goats in hot arid regions face heat stress that affects physiology and production. A study of the Brazilian Azul genetic group in a semiarid environment found that respiratory rate, heart rate, and surface temperature differed between rainy and dry seasons, while rectal temperature remained stable. The animals had a lower respiratory rate and greater heat dissipation capacity during the dry season, allowing them to maintain rectal temperature. Hair length also changed with season, with longer hair in the rainy season. These findings show that goats adapt to heat, but shelter can support that adaptation. See the study on physiological, morphological hair, and blood parameters of the goat group genetic Azul in the semiarid at Springer.

Shelter in hot arid climates should provide shade without trapping heat. A roofed structure with open sides allows air movement while blocking direct sun. The roof should be high enough to allow heat to rise away from the animals. Orientation matters. The open side should face the prevailing breeze, and the solid wall should face the afternoon sun. Water must be available in the shade, because goats drink more when water is cool.

Cold and Wet Climates

Cold wet conditions challenge goats more than dry cold. A wet coat loses insulating value, and animals that cannot dry off are at risk of hypothermia and respiratory disease. Shelter must keep animals dry and block wind while allowing moisture to escape.

A three sided shed with the opening away from prevailing wind works for many operations. The roof should extend beyond the walls to keep rain off the entrance. Bedding such as straw or wood shavings provides insulation and absorbs moisture. Deep bedding that is removed regularly prevents ammonia buildup and hoof problems.

Fully enclosed barns are necessary in severe cold, but they require ventilation. Without airflow, moisture from respiration condenses on walls and bedding, creating conditions for pneumonia. Ridge vents, eave openings, or mechanical ventilation keep air moving without creating drafts at animal level.

Wet and Humid Climates

High rainfall and humidity create mud and parasite pressure. Goats confined to muddy areas develop hoof rot and other foot problems. Shelter design should include a raised resting area or a well drained pad where animals can escape the mud.

The area around the shelter entrance is the first place to become muddy. Gravel or crushed stone laid over geotextile fabric creates a firm surface that drains. The shelter floor should be slightly higher than the surrounding ground to prevent water flowing in. Regular removal of manure from the shelter reduces parasite load and fly breeding.

Space Requirements and Ventilation

Space allowances depend on the size of the animals and the time they spend inside. A general guide is 1.5 to 2.5 square meters per adult goat for resting space, with more for kidding pens and sick bays. Overcrowding increases aggression, parasite transmission, and respiratory disease.

Ventilation is critical in all climates. Stale air carries ammonia, dust, and pathogens. Open sided shelters rely on natural airflow. Enclosed barns need designed ventilation that removes moist air without chilling the animals. A simple check is to enter the shelter at animal level. If the air feels heavy or smells strongly of ammonia, ventilation is inadequate.

Predator Protection and Biosecurity

Predators pose a serious threat to goat herds, and the risk varies by region and time of year. Fencing and shelter design must account for local predator species, including dogs, coyotes, foxes, and large cats. The damages and control methods of predators in small ruminant husbandry are documented in the scientific literature. See the paper on the damages and control methods of predator in small ruminant husbandry at Semantic Scholar. Ecological modeling studies also examine how protection zones for prey affect predator prey dynamics, which informs the design of secure areas for livestock. See the study on spatiotemporal patterns in a diffusive predator-prey model with protection zone and predator harvesting at ScienceDirect.

Dogs and Coyotes

Domestic dogs and coyotes are the most common predators of goats in many areas. They often attack at night or during storms when noise masks their approach. A single dog can kill multiple goats in one event, and the stress of an attack can cause abortion and injury even in animals that survive.

Fencing against dogs and coyotes requires height and strength. A fence of at least 1.5 meters discourages most dogs, but coyotes can jump higher. Adding a hot wire at the top and bottom of the fence creates a psychological barrier. Some operations use a floppy top wire that wobbles when an animal tries to climb, which deters coyotes.

Large Cats and Bears

Large predators such as mountain lions and bears require stronger measures. No standard fence reliably excludes these animals, so night penning in a secure structure is often necessary. The pen should have a solid roof or a wire top, sturdy walls, and a door that closes securely. Electric fencing around the pen adds a layer of protection.

Biosecurity and Disease Prevention

Fencing and shelter also support biosecurity. A secure boundary prevents contact with neighboring livestock and wildlife that may carry disease. The World Organisation for Animal Health addresses animal health and welfare as a core part of its mission at WOAH, and the principles of disease prevention apply to farm biosecurity.

Wildlife can introduce diseases to goats. For example, neosporosis, caused by Neospora caninum, is an emerging protozoan disease with significant economic losses in the dairy and meat industries, primarily through abortion in cattle. Dogs serve as both definitive and intermediate hosts and play a key role in the parasite transmission cycle. A study of shelter dogs in Hanoi, Vietnam, found substantial exposure to N. caninum, with seroprevalence of 28.87% by iELISA and 14.08% by iFAT. See the study on seroprevalence of Neospora caninum infection in shelter dogs at MDPI. While this study did not involve goats, it illustrates how dogs on the farm can carry pathogens that affect livestock. Preventing dog access to goat feed and water, and managing dog feces, reduces transmission risk.

Animal feces management is another biosecurity concern. A study in Ghana on the nurturing care group approach for improving animal feces management found that penning and feces composting were key practices for reducing zoonotic risks. Barriers to uptake included lack of resources for constructing livestock shelters and difficulty securing veterinary services. See the study on nurturing care group approach for improving animal faeces management in Ghana at Nature. This evidence supports the value of proper penning and manure management as part of a biosecurity plan.

Rotational Grazing and Fence Layout

Rotational grazing is a management system that uses fencing to control where goats graze and how long they stay in each area. The benefits include better pasture utilization, reduced parasite load, and improved soil health. The fence layout must support the rotation schedule.

Designing Paddocks

The number and size of paddocks depend on herd size, forage availability, and the rest period needed for pasture recovery. A common starting point is eight to twelve paddocks, with grazing periods of three to seven days. The study from Tongatapu used ten paddocks grazed for 3.5 days each, which allowed pasture rest and reduced parasite exposure. See the rotational grazing study at PubMed.

Each paddock needs a water source or a lane to water. Moving water to the paddock with a portable trough reduces the distance animals walk and spreads manure more evenly. Gates between paddocks should be positioned to allow easy movement without forcing animals through mud or narrow gaps.

Parasite Control Through Grazing Management

The Tongatapu study demonstrated that rotational grazing reduced the need for anthelmintic treatment. The infective larvae of Haemonchus contortus, Trichostrongylus colubriformis, and Oesophagostomum columbianum survived on pasture for only 3 to 7 weeks in that tropical environment. A rotation that allows pasture to rest longer than the larval survival period breaks the parasite cycle. In cooler climates, larval survival is longer, so rest periods must be adjusted accordingly.

Fecal egg count monitoring is the tool for evaluating whether the rotation is working. The study used a threshold of 2000 eggs per gram for treatment in the set stocked flock, while rotationally grazed goats stayed below 1000 eggs per gram. Individual treatment at kidding was the only intervention needed in the rotation group. This approach reduces selection for anthelmintic resistant worms, which is a growing problem in goat production.

Fence Portability and Flexibility

Rotational grazing works best with fencing that is easy to move. Polywire and step in posts allow quick setup of temporary paddocks. Permanent perimeter fencing contains the herd, while internal divisions shift as the rotation progresses. The labor of moving fence is offset by savings in feed and medication.

Shelter Construction and Materials

Building a shelter requires decisions about materials, layout, and durability. The structure must withstand wind, snow, and animal pressure while providing a clean, dry environment.

Framing and Roofing

Pressure treated lumber or steel framing resists rot and insect damage. The roof should have a slope that sheds rain and snow, with a minimum pitch of 4 in 12 for most climates. Corrugated metal roofing is durable and fire resistant, but it conducts heat and cold. Insulated panels or a ceiling layer reduce temperature swings. In hot climates, a reflective roof surface or a double roof with an air gap reduces heat gain.

Flooring and Bedding

A concrete floor is easy to clean but hard on legs and cold in winter. Dirt floors are warmer but become muddy and difficult to sanitize. A compromise is a compacted gravel base with a thick layer of bedding. The bedding absorbs moisture and provides cushioning. Straw, wood shavings, and sawdust are common bedding materials. The choice depends on availability and cost.

Bedding must be removed regularly. The frequency depends on stocking density and moisture. A wet, dirty pen increases the risk of foot rot, mastitis, and respiratory disease. Composting the used bedding and manure creates a valuable soil amendment, and proper composting reduces pathogens and parasites.

Kidding Pens and Sick Bays

Separate pens for kidding and sick animals are essential for herd health. A kidding pen should be 2 to 3 square meters, clean, dry, and draft free. The doe needs privacy and quiet to bond with her kids. A sick bay allows isolation of animals with contagious disease and provides a controlled environment for treatment and recovery.

The pens need easy access for the caretaker and a way to observe animals without entering. A solid wall between pens reduces stress and disease transmission. Each pen should have its own feed and water containers to prevent cross contamination.

Records and Measurements for Fence and Shelter Management

Keeping records of fence and shelter maintenance helps identify problems before they cause losses. A simple log of inspections, repairs, and animal incidents provides data for decisions about upgrades and replacements.

Fence Inspection Records

Walk the fence line at least monthly and after storms. Record the date, the sections inspected, and any issues found. Note sagging wire, loose posts, vegetation contact, and signs of animal pressure. For electric fences, record the voltage reading at the energizer and at the far end of the fence. A voltage drop between the two points indicates a fault.

Shelter Condition Records

Inspect shelters before each season and after major weather events. Check the roof for leaks, the walls for damage, and the bedding for moisture. Record the condition and any repairs. A shelter that fails in winter can cause hypothermia and death, so preventive maintenance is critical.

Animal Incident Records

Record any animal that escapes, any predator attack, and any injury related to fencing or shelter. The pattern of incidents reveals weak points. For example, repeated escapes at one gate indicate a latch problem. Predator attacks at a specific time of night suggest a need for night penning.

Common Failure Patterns and How to Prevent Them

Fencing and shelter systems fail in predictable ways. Recognizing the patterns helps prevent costly losses.

Goats Finding Gaps and Weak Points

Goats test fences constantly. A small gap under a gate, a sagging bottom wire, or a loose panel becomes an escape route. The solution is regular inspection and immediate repair. Walk the fence line and look at it from the goat's perspective. Crouch down and check for gaps at ground level.

Electric Fence Failures

Electric fences fail silently. A short circuit from vegetation, a broken wire, or a dead battery stops the shock, and goats learn quickly that the fence is not a barrier. Check voltage weekly and after storms. Keep vegetation clear and maintain the grounding system. A fence that is not working is worse than no fence, because the animals have learned to ignore it.

Shelter Moisture and Ventilation Problems

A shelter that traps moisture creates a health hazard. Condensation on the roof drips onto bedding, and ammonia from urine irritates the respiratory tract. The solution is ventilation. Open ridges, eave gaps, and windows allow moist air to escape. In winter, the balance between ventilation and draft protection is difficult, but a well designed shelter achieves both.

Predator Pressure During Kidding Season

Kids are vulnerable to predators, and the stress of kidding attracts attention. Does that are about to kid should be moved to a secure pen before delivery. The pen should be predator proof and close to the house for monitoring. After kidding, the doe and kids need protection for several weeks until the kids are strong enough to keep up with the herd.

Welfare Considerations and Professional Escalation

Animal welfare is a legal and ethical responsibility. The World Organisation for Animal Health promotes animal health and welfare as a global standard at WOAH, and the principles apply to all livestock systems.

Signs of Inadequate Fencing or Shelter

Animals that are constantly stressed by inadequate fencing or shelter show signs that a caretaker should recognize. These include:

• Weight loss or poor condition despite adequate feed
• Increased respiratory rate or coughing in a poorly ventilated shelter
• Foot lameness from standing in mud
• Injuries from fence entanglement or predator attack
• Behavioral signs of stress such as pacing, vocalizing, or aggression

When to Contact a Veterinarian

A veterinarian should be contacted for any animal that is injured, showing signs of illness, or not thriving. Urgent situations include:

• A goat that is bleeding heavily or has a deep wound
• A goat that cannot stand or is unable to rise
• A doe that is straining to kid without progress
• A goat with rapid breathing, fever, or signs of pneumonia
• Any animal that has been attacked by a predator, even if the wounds look minor

Routine veterinary care includes vaccination, parasite control, and hoof trimming. The veterinarian can also advise on shelter design and fencing for specific health concerns.

Welfare Assessment Tools

Welfare assessment tools help identify problems before they become serious. A pilot study in the United Arab Emirates developed a practical welfare assessment tool for intensive sheep and goat farming in hot arid regions. See the study on developing a practical welfare assessment tool for intensive sheep and goat farming in hot-arid regions at Europe PMC. The tool covers aspects of housing, nutrition, health, and behavior. Using a structured assessment helps standardize observations and track changes over time.

Cost Considerations and Budgeting

Fencing and shelter are major investments. The cost per meter varies widely by material and installation method. A budget should include the initial construction and the ongoing maintenance and replacement.

Initial Construction Costs

Woven wire fencing with wooden posts costs more per meter than electric fencing but lasts longer. The choice depends on the expected life of the operation and the labor available for maintenance. A permanent perimeter fence is a long term investment, while temporary electric fencing is an operating expense.

Maintenance and Replacement Costs

Electric fencing requires ongoing costs for energizer electricity or batteries, replacement wire, and vegetation control. Woven wire requires less routine maintenance but eventually needs replacement. Panels are durable but expensive to expand. A cost comparison should include the expected life of each material and the labor hours for maintenance.

Cost of Failure

The cost of a fence failure includes the value of lost animals, the labor of recovering escaped goats, and the damage to neighboring property. A predator attack can kill multiple animals in one night. These losses often exceed the cost of building a stronger fence in the first place. The economic case for quality fencing is strong.

Implementation Steps for a New Fence and Shelter System

Planning a new system requires a step by step approach that considers the site, the herd, and the budget.

Step 1: Assess the Site

Walk the property and identify the boundaries, water sources, and existing structures. Note the soil type, drainage, and vegetation. The fence line should follow the terrain to minimize erosion and maintenance. The shelter site should be well drained and accessible in all weather.

Step 2: Determine Herd Needs

The number and size of goats determines the fence height, mesh size, and shelter space. A breeding herd with kids needs smaller mesh at the bottom. A herd of large bucks needs stronger posts and panels. The shelter must accommodate the largest animal in the herd with room to turn around.

Step 3: Choose Materials

Select fencing and shelter materials based on the climate, predator pressure, and budget. Compare the options in the tables above. A permanent perimeter fence with woven wire and a hot wire is a common starting point. Internal paddocks can use electric fencing for flexibility.

Step 4: Install the Fence

Set corner posts first and brace them properly. The tension on the wire pulls toward the corners, so the bracing must handle that force. Run the line posts at the recommended spacing. Attach the wire and tension it according to the manufacturer instructions. Install gates and latches.

Step 5: Build the Shelter

Prepare the shelter site with a level, well drained base. Construct the frame and roof, then add the walls and ventilation. Install the flooring and bedding. Add feed and water containers that are easy to clean and refill.

Step 6: Test and Adjust

Introduce the goats to the new system gradually. Watch how they interact with the fence and shelter. A goat that tests the electric fence needs to receive a clear shock to learn the boundary. Adjust the fence height or tension if goats are escaping. Monitor the shelter for moisture and ventilation problems.

Limitations and Regional Considerations

The evidence in this article comes from specific studies and may not apply to all regions. The rotational grazing study was conducted in a wet tropical environment where larval survival on pasture was short. In cooler climates, the rotation schedule must be adjusted. The welfare assessment tool was developed for hot arid regions and may need modification for other climates.

Local regulations may affect fencing and shelter requirements. Some areas have laws about fence height, materials, and the containment of livestock. Check with local agricultural authorities before building. The World Organisation for Animal Health provides international standards for animal health and welfare at WOAH, but national and local rules take precedence.

Frequently Asked Questions

What is the best fence height for goats?

A fence height of at least 1.2 meters is commonly used for adult goats, with 1.5 meters recommended for breeds that are strong jumpers or in areas with predator pressure. The bottom of the fence must sit close to the ground to prevent goats from crawling underneath. Observe your herd and adjust the height if any animal is escaping.

Can I use barbed wire for goats?

Barbed wire is not recommended as a primary goat fence because goats can be injured by the barbs when they push against the fence. It may be used as a top strand above woven wire to deter predators, but the injury risk to goats remains. Woven wire or electric fencing is safer and more effective.

How often should I check my electric fence?

Check the voltage weekly with a digital fence tester and after any storm. A reading below the energizer manufacturer recommendation indicates a fault, often from vegetation, broken wire, or poor grounding. Clear vegetation and repair breaks immediately. A fence that is not working is worse than no fence because goats learn to ignore it.

How much shelter space does a goat need?

A general guide is 1.5 to 2.5 square meters per adult goat for resting space, with more for kidding pens and sick bays. Overcrowding increases aggression, parasite transmission, and respiratory disease. The shelter should allow every animal to lie down comfortably without being stepped on.

How do I protect goats from predators at night?

Night penning in a secure structure is the most reliable protection against predators. The pen should have a solid roof or wire top, sturdy walls, and a door that closes securely. Electric fencing around the pen adds a layer of protection. Dogs and coyotes are common predators, and large cats and bears require stronger measures.

What is the best flooring for a goat shelter?

A compacted gravel base with a thick layer of bedding works well in most climates. Concrete is easy to clean but hard on legs and cold in winter. Dirt floors become muddy and difficult to sanitize. The bedding absorbs moisture and provides cushioning, and it must be removed regularly to prevent foot rot and respiratory disease.

How does rotational grazing help with parasite control?

Rotational grazing allows pasture to rest between grazing periods, which breaks the parasite cycle. A study in a wet tropical environment found that infective larvae survived on pasture for only 3 to 7 weeks, and a rotation of ten paddocks grazed for 3.5 days each kept goat fecal egg counts below 1000 eggs per gram. In cooler climates, larval survival is longer, so

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References and Further Reading

• Merck Veterinary Manual. Merck Veterinary Manual.
• Animal Health and Welfare. World Organisation for Animal Health.
• Rotational grazing for control of gastrointestinal nematodes of goats in a wet tropical environment.. Veterinary parasitology, 1994.
• Seroprevalence of &lt,i&gt,Neospora caninum&lt,/i&gt, Infection in Shelter Dogs from Hanoi, Vietnam.. 2026.
• Nurturing care group approach for improving animal faeces management in Ghana.. 2025.
• Composition, blood meal sources, and entomological inoculation rates of Anopheles mosquitoes in an urban setting, central Ethiopia.. 2026.
• Cost-effectiveness of livelihood interventions for families of children with cerebral palsy in rural Bangladesh.. 2025.
• Developing a Practical Welfare Assessment Tool for Intensive Sheep and Goat Farming in Hot-Arid Regions: Pilot Validation in the United Arab Emirates. 2026.
• Physiological, morphological hair, and blood parameters of the goat group genetic Azul in the semiarid.. 2026.
• The damages and control methods of predator in small ruminant husbandry.. 2011.
• Rich dynamics in a stochastic predator-prey model with protection zone for the prey and multiplicative noise applied on both species. Nonlinear dynamics, 2021.
• Spatiotemporal patterns in a diffusive predator-prey model with protection zone and predator harvesting. 2020.
• Clam predator protection is effective and necessary for food production.. Marine Pollution Bulletin, 2015.
• Effect of cross-diffusion on the stationary problem of a Leslie prey-predator model with a protection zone. Calculus of Variations and Partial Differential Equations, 2017.
• Effect of the protection zone on coexistence of the species for a ratio-dependent predator-prey model. 2018.
• Feral goat control in New Zealand. Biological Conservation, 1990.
• Salt Cedar Intake by Cattle, Sheep, and Goats Following 21 Days of Exposure. Rangeland Ecology and Management, 2021.
• Silvopasture Options for Enhanced Biological Productivity of Degraded Pasture/Grazing Lands: An Overview. Agroforestry for Degraded Landscapes Recent Advances and Emerging Challenges Vol 2, 2021.
• Assessment on the impacts of human-tiger conflict and community-based conservation in Bandhavgarh Tiger Reserve, Madhya Pradesh, India. Journal of Threatened Taxa, 2018.

This article is educational and is not a substitute for veterinary diagnosis or treatment. Contact a veterinarian for advice about an individual animal.