Deer Farming in Australia: Industry Overview and Best Practices

Deer farming in Australia involves the managed production of several deer species for venison, velvet antler, and breeding stock, operating across a range of climates from temperate southern regions to tropical northern areas. This article provides farmers, farm employees, veterinarians, advisers, students, and farm planners with an evidence-led overview of the Australian deer industry, covering species selection, production systems, herd health, biosecurity, and practical management decisions. The content draws on peer-reviewed research and official animal health sources to support concrete on-farm decisions and professional escalation criteria.

Industry Context and Species in Australia

Deer were introduced into Australia in the mid-1800s, and wild populations have since increased in size and distribution across the continent. Six deer species are present in Australia: hog deer, fallow deer, red deer, rusa deer, sambar deer, and chital deer. Research on invasive wild deer in Australia has shown that the Australian environmental niches of hog, fallow, red, rusa, and sambar deer differ from their international ranges, while chital deer niches remain similar to their international distribution. This finding has direct implications for farm planners because species adapted to local conditions are more likely to thrive under managed production, and escapees from farming operations can establish or supplement wild populations in areas where environmental conditions suit them.

The deer farming industry in Australia has developed rapidly, but farm profitability has fluctuated markedly. Knowledge on deer farming has largely been adopted from New Zealand and the United Kingdom, although environmental conditions in those deer-growing countries differ markedly from Australia. Farmers in Australia must therefore adapt overseas management practices to local climatic conditions, pasture availability, and disease pressures instead of assuming direct transferability.

The deer industry has experienced growth driven by demand for venison in Europe and increased use of antlers as a natural medicine in Asia. Weaning time is one of the key factors influencing the profitability of the industry, with a wide range of weaning dates practised by farmers. The decision of whether to wean after mating to reduce stress during weaning or to wean in the pre-rut period to allow does to recover body condition for the next reproduction cycle remains a central management question.

At a Glance: Deer Farming Considerations in Australia

Production Systems and Species Selection

Farmed Species and Their Characteristics

Australian deer farmers typically manage fallow deer, red deer, rusa deer, and chital deer for commercial production. Each species presents distinct management requirements based on body size, reproductive timing, temperament, and market suitability. Fallow deer are commonly farmed for venison and have been the subject of dedicated breeding program development. Red deer are valued for both venison and velvet antler production. Rusa deer are better adapted to tropical and subtropical environments, which makes them suitable for northern Australian operations.

The choice of species should be guided by local environmental conditions and market access. Research on the ecological separation of deer and domestic, feral, and native mammals in tropical northern Australia has explored the historical and ecological factors that formed the current guild of native and introduced mammalian herbivores. The total biomass of introduced domestic and wild vertebrate herbivores has massively exceeded that of native herbivorous species over the past 150 to 200 years. Climate and anthropogenic changes due to fire, drought, flooding, predation, and introduced weeds are likely to have significant impacts on the relative ecological roles and populations of these herbivores. For farmers considering deer production in northern Australia, the potential impact of deer dispersal remains unclear, and there is a dearth of supporting evidence to inform appropriate sustainable management.

Breeding Programs and Genetic Management

A breeding program for farmed fallow deer has been documented, indicating that structured genetic improvement is feasible for Australian deer operations. Breeding programs should focus on production traits relevant to the farm enterprise, including growth rate, carcass quality, velvet production where applicable, and maternal traits such as fertility and mothering ability.

Farmers should maintain accurate pedigree records to support genetic selection decisions. Individual animal identification is essential for tracking performance across generations. Breeding decisions should consider both production traits and temperament, as docile animals are safer to handle and less prone to stress-related health problems.

Weaning Management

Weaning time significantly influences the performance of does and hinds and the subsequent growth rate of fawns and calves. The deer industry in Australia has adopted weaning practices from New Zealand and the United Kingdom, but the environmental conditions in these countries differ markedly from Australia. Farmers must evaluate weaning timing based on local pasture availability, seasonal conditions, and the body condition of breeding females.

Early weaning allows does to recover body condition before the next reproductive cycle, but it places nutritional demands on fawns that must be met through high-quality pasture or supplementary feeding. Late weaning reduces stress on fawns but may compromise doe condition entering the next breeding season. The decision requires a farm-specific assessment of feed resources and animal condition scores.

Herd Health and Disease Management

Viral Disease Surveillance

Wild deer in Australia have been studied for their potential role in pathogen transmission cycles affecting the livestock industry. A serosurveillance study of wild deer in eastern Australia found a very low seroprevalence of 3 percent for ruminant pestivirus, and none of the other viruses tested were detected, including bovine herpesvirus 1, Simbu serogroup, epizootic hemorrhagic disease virus, and bovine ephemeral fever virus. These results suggest that wild deer may currently be an incidental spill-over host instead of a reservoir host for pestivirus. However, deer could be a future source of viral infections for domestic animals in Australia, and further investigations are needed to monitor pathogen activity and quantify possible future infectious disease impacts of wild deer on the Australian livestock industry.

Bovine viral diarrhea virus, a pestivirus, infects a wide range of domestic and wild mammals. A critical review of BVDV has hypothesized cross-species transmission based on genetic evidence. Phylogenetic analysis revealed that all three BVDV species exhibited genetic relatedness infecting diverse animal species. Cattle and deer in Mexico were infected with BVDV-1 within the same country and strongly positioned in the same cluster, indicating potential spillover with host tropism. The BVDV transmission cycle could be depicted where cattle act as a primary source of infection, while other domestic and wild animals maintain the infection ecology within their habitat due to virus tropism. Australian deer farmers should consider pestivirus status in their biosecurity planning, particularly where deer share pasture or water sources with cattle.

Bacterial and Parasitic Disease Considerations

Coxiella burnetii causes significant reproduction losses in livestock and the disease Q fever in humans. Transmission of C. burnetii is facilitated by the stability of the bacterium in the environment and the susceptibility of a variety of host species to infection. A study of wild deer in eastern Australia found an overall seroprevalence of 3.4 percent for C. burnetii antibodies, with seropositive deer identified only in Queensland and northern New South Wales. The low seroprevalence suggests that wild deer are unlikely to be a major reservoir species for C. burnetii in eastern Australia but may still be implicated in inter-species transmission cycles. Deer farmers should be aware of Q fever as an occupational health risk and discuss vaccination with their medical practitioner, particularly in regions where the bacterium is present in the environment.

Toxoplasmosis, caused by the protozoan parasite Toxoplasma gondii, is one of the most common parasitic infections of man and other warm-blooded animals. It has been found worldwide from Alaska to Australia, and nearly one-third of humanity has been exposed to this parasite. In most adults it does not cause serious illness, but it can cause blindness and mental retardation in congenitally infected children and devastating disease in immunocompromised individuals. Deer farmers should consider toxoplasmosis risks in the context of food safety and occupational health, particularly where cats have access to feed storage areas or where deer graze pasture contaminated by cat feces.

Gastrointestinal Parasites

Contemporary information on gastrointestinal nematodes infecting wild deer in southeastern Australia has been generated through nemabiome metabarcoding. A study of 194 faecal samples from sambar, fallow, and hog deer revealed eleven strongyle taxa. Eight species commonly associated with domestic ruminants were detected, including Cooperia oncophora, Haemonchus species, Ostertagia ostertagi, O. leptospicularis, O. radiatum, Trichostrongylus axei, T. colubriformis, and T. vitrinus. The cervid-associated strongyle Spiculopteragia asymmetrica was the most frequently detected taxon. Deer sampled near farmland harboured significantly greater strongyle diversity than those from more remote locations, and overlapping parasite taxa were detected in co-grazing deer and cattle.

These findings indicate that wild deer in southeastern Australia harbour diverse strongyle communities and highlight the potential for overlapping parasite assemblages at the wildlife-livestock interface. For farmed deer, this means that parasite management programs should account for the possibility of cross-infection with livestock parasites, particularly where deer and cattle share grazing areas. Regular faecal egg counting and strategic drenching should be tailored to the specific parasite species present on each farm.

Emerging and Novel Viruses

High-throughput sequencing has facilitated virus discovery in wild animals and helped determine their potential threat to humans and other animals. A novel picornavirus was identified in faeces from Australian fallow deer, with genomic analysis revealing a typical picornavirus-like genomic organisation. This novel picornavirus was closely related to but distinct from known bopiviruses, suggesting that deer or bopivirus could belong to a novel species within the genus Bopivirus. Epidemiological investigation of 91 deer and 23 cattle faecal samples showed that six fallow deer and one red deer tested positive, with an overall prevalence of 7.7 percent, but the virus was undetectable in sambar deer and cattle. This study reported for the first time a deer-origin bopivirus and the presence of a member of genus Bopivirus in Australia.

Picobirnaviruses have been detected in several species of animals worldwide, but data pertaining to their presence in Australian wild and domestic animals are limited. A study detected picobirnavirus genogroups I and II in deer serum and plasma from southeastern Australia. PCR amplification was obtained in serum, faeces, nasal swabs, and trachea specimens collected from wild deer and cattle. Detection of both genogroups in the upper respiratory tract of deer gives evidence about the respiratory tract tropism of picobirnaviruses. Although much remains unknown about the epidemiology and tropism of these viruses, the study suggests a wide distribution in southeastern Australia.

Vector-Borne Disease Risks

Bluetongue is an economically important viral disease of domestic and wild ruminants, caused by the bluetongue virus and transmitted primarily by Culicoides midges. The virus has at least 28 known serotypes and several emerging strains, with its distribution expanding beyond traditional endemic zones due to climate change and global trade. Global economic losses exceed USD 3 billion annually due to mortality, production losses, and trade restrictions. Although vaccination remains the cornerstone of bluetongue control, current live and inactivated vaccines are limited by serotype specificity and reassortment risks. Persistent challenges include the absence of differentiating infected from vaccinated animals-compatible polyvalent vaccines, incomplete knowledge of wildlife reservoirs, and uneven surveillance capacities worldwide.

Epizootic hemorrhagic disease virus has been studied in cattle populations, with a 2023 emergence of EHDV-8 in mainland France leading to thousands of clinical outbreaks in cattle herds. A study investigating within-herd seroprevalence found a strong south-north seroprevalence gradient, with the highest animal-level seroprevalence evidenced in the southernmost zone at 82.6 percent. Within each zone, no significant differences in seroprevalence were observed between clinical outbreak herds and non-outbreak herds. A novel ephemeral fever rhabdovirus and a CHeRI orbivirus of a previously unidentified genetic lineage were isolated from the spleen tissue of a dead farmed white-tailed deer in Florida, with gross observations revealing severely congested and hemorrhagic lungs and congestion of the heart, kidneys, and spleen.

Bovine anaplasmosis, caused by Anaplasma marginale, is a major tick-borne disease in tropical and subtropical regions of the world, leading to significant production losses. Prolonged convalescence periods are common and surviving animals often become subclinical carriers. A study of smallholder dairy farms in Pakistan found that 42.1 percent of samples tested positive for A. marginale, with prevalence significantly higher in cattle than in buffaloes. Bovine ephemeral fever virus and Candidatus Mycoplasma haemobos coinfection has been documented in cattle in central China, with ticks identified as potential vectors for both pathogens.

Australian deer farmers should monitor for vector-borne diseases relevant to their region and maintain awareness of emerging disease threats. The presence of suitable vectors and susceptible wildlife hosts means that new disease introductions could spread rapidly through deer populations.

Biosecurity and Wildlife-Livestock Interface

Farm Biosecurity Planning

Biosecurity is a core component of deer farm management. The World Organisation for Animal Health provides guidance on animal health and welfare that is relevant to national and farm-level disease control programs. Farmers should implement biosecurity protocols that address the introduction of new animals, movement of vehicles and equipment, visitor access, and interaction with wild deer and other wildlife.

The USDA National Agricultural Library provides resources on animal health and welfare that can support farm-level biosecurity planning. The U.S. Food and Drug Administration offers animal and veterinary resources relevant to feed safety and medication use. The Food and Agriculture Organization of the United Nations provides animal production and health information that can inform sustainable farming practices.

Managing Wild Deer Interactions

Wild deer populations in Australia have increased in size and distribution since their introduction, posing a potential risk to the livestock industry through their role in pathogen transmission cycles. Research on invasive wild deer has demonstrated that deer have undergone significant environmental niche shifts following introduction into Australia, and these shifts are important for predicting the future spread of these invasive species. Current Australian and international environmental niches did not necessarily predict range expansions, so wildlife managers should treat these analyses with caution.

For deer farmers, the presence of wild deer populations creates biosecurity risks through potential disease transmission and genetic mixing with farmed stock. Fence maintenance is critical to prevent wild deer from entering farmed areas and to prevent farmed deer from escaping. Farmers should inspect boundary fences regularly and repair damage promptly.

Disease Monitoring and Surveillance

Regular disease monitoring should be part of deer farm management. The USDA Agricultural Research Service provides animal production and protection research that can inform disease surveillance approaches. Farmers should establish relationships with veterinarians who have experience with deer and can assist with diagnostic testing and disease investigation.

When wild deer are found dead or showing signs of illness on or near the farm, farmers should report these observations to their veterinarian or relevant state authority. Sudden deaths in deer should always be investigated to rule out notifiable diseases.

Nutrition and Pasture Management

Nutritional Requirements

Deer have specific nutritional requirements that vary by species, age, reproductive status, and season. Farmers must provide adequate nutrition to support growth, reproduction, lactation, and velvet production where applicable. Pasture quality and quantity should be assessed regularly, and supplementary feeding should be provided when pasture is insufficient.

The adoption of nutritional management practices from New Zealand and the United Kingdom requires adaptation to Australian conditions. Australian pastures differ in species composition, seasonal growth patterns, and nutritional value compared to those in deer-farming countries in the Northern Hemisphere. Farmers should work with local advisers to develop feeding programs appropriate for their region.

Pasture Management and Grazing Systems

Rotational grazing systems can help maintain pasture quality and reduce parasite burdens. The strongyle diversity findings from wild deer research indicate that deer near farmland harbour significantly greater strongyle diversity than those from more remote locations, highlighting the importance of grazing management in parasite control.

Farmers should monitor pasture growth and adjust stocking rates accordingly. Drought planning is essential for Australian deer farms, as seasonal rainfall variability can create feed shortages. Supplementary feeding strategies should be developed in advance of expected feed gaps.

Handling Facilities and Animal Welfare

Facility Design and Safety

Safe handling facilities are essential for deer farming operations. Deer are flighty animals that can be dangerous to handle if facilities are poorly designed or if handlers lack experience. Facilities should be constructed to minimize stress and injury to animals and handlers.

The World Organisation for Animal Health provides animal health and welfare standards that should inform facility design and handling practices. The USDA National Agricultural Library offers animal health and welfare resources that can support the development of humane handling protocols.

Welfare Monitoring

Regular welfare monitoring should include assessment of body condition, lameness, injury, and signs of disease or distress. Farmers should establish protocols for identifying and treating sick or injured animals promptly. Animals that cannot be treated effectively should be humanely euthanized.

The Food and Agriculture Organization of the United Nations provides animal production and health information that can support welfare-focused management practices. Farmers should stay informed about current welfare standards and expectations of market customers.

Records and Measurements

Essential Records for Deer Farms

Accurate records are essential for profitable deer farming. Farmers should maintain records for individual animals, including identification, pedigree, birth date, weaning weight, growth rates, health treatments, and reproductive performance. Herd-level records should include pasture management, feed inputs, and financial performance.

Using Records for Decision Making

Weaning time decisions should be informed by records of doe body condition, fawn growth rates, and pasture availability. Farmers who track these variables across multiple seasons can make more informed decisions about optimal weaning timing for their specific farm conditions.

Reproductive records support the evaluation of breeding program effectiveness. Farmers should track conception rates, fawning or calving rates, and fawn or calf survival to weaning. These measures provide a basis for identifying management problems and evaluating the impact of changes to breeding or nutrition programs.

Common Failure Patterns in Deer Farming

Inadequate Adaptation of Overseas Practices

A common failure pattern in Australian deer farming is the direct adoption of New Zealand or United Kingdom management practices without adaptation to Australian conditions. The environmental conditions in these deer-growing countries differ markedly from Australia, and practices that work in temperate maritime climates may not be appropriate for Australian conditions with different rainfall patterns, pasture species, and temperature ranges.

Farmers should critically evaluate overseas recommendations and test them under local conditions. Working with local advisers and other deer farmers can help identify which practices transfer successfully and which require modification.

Poor Weaning Decisions

Weaning timing is one of the key factors influencing the profitability of the deer industry, yet a wide range of weaning dates are practised by farmers. Poor weaning decisions can result in reduced doe condition entering the breeding season, poor fawn growth rates, or increased stress-related health problems.

Farmers should base weaning decisions on objective measures of animal condition and feed availability instead of fixed calendar dates. Regular condition scoring of breeding females and monitoring of fawn growth rates provide the data needed for informed weaning decisions.

Inadequate Biosecurity

The presence of wild deer populations and the potential for disease transmission at the wildlife-livestock interface create biosecurity risks for deer farms. Farms that fail to maintain boundary fences, control visitor access, or quarantine new animals are at increased risk of disease introduction.

The low seroprevalence findings for pestivirus and Coxiella burnetii in wild deer suggest that wild deer may currently be incidental spill-over hosts instead of reservoir hosts for these pathogens. However, deer could be a future source of viral infections for domestic animals in Australia, and biosecurity practices should account for this risk.

Neglecting Parasite Monitoring

The strongyle diversity documented in wild deer near farmland indicates that parasite pressure can be significant at the wildlife-livestock interface. Farms that neglect regular faecal egg counting and strategic drenching may experience production losses from gastrointestinal nematode infections.

Farmers should establish parasite monitoring programs that account for the specific parasite species present on their farm and the potential for cross-infection with livestock parasites. Veterinary advice should be sought when parasite burdens are high or when drench resistance is suspected.

Safety and Regulatory Context

Occupational Health and Safety

Deer farming presents specific occupational health and safety risks, including injury from handling large animals, exposure to zoonotic diseases, and risks associated with farm machinery and facilities. Farmers should implement safety protocols for animal handling and ensure that all workers are trained in safe practices.

Q fever is a zoonotic disease caused by Coxiella burnetii that can cause significant illness in humans. The presence of C. burnetii antibodies in wild deer in Queensland and northern New South Wales indicates that the bacterium is present in the Australian environment. Deer farmers and workers should discuss Q fever vaccination with their medical practitioner.

Toxoplasmosis is another zoonotic infection relevant to deer farming. The parasite Toxoplasma gondii has been found worldwide from Alaska to Australia, and nearly one-third of humanity has been exposed. While most adults do not experience serious illness, the disease can cause blindness and mental retardation in congenitally infected children and devastating disease in immunocompromised individuals. Pregnant women and immunocompromised workers should take precautions to avoid exposure.

Food Safety

Deer farmers producing venison for human consumption must comply with food safety requirements, including the maintenance of treatment records and observance of withdrawal periods for veterinary medicines. The U.S. Food and Drug Administration provides animal and veterinary resources that can inform responsible medication use, and farmers should follow label instructions and veterinary advice for all treatments.

Regulatory Compliance

Deer farmers should be aware of state and territory regulations governing deer farming, animal welfare, and disease control. The World Organisation for Animal Health provides international standards for animal health and welfare that inform national regulatory frameworks. Farmers should maintain current knowledge of relevant regulations and seek advice from industry associations and government agencies when uncertain.

Professional Escalation Criteria

When to Contact a Veterinarian

Farmers should contact a veterinarian when they observe signs of disease that are unusual, severe, or affecting multiple animals. Sudden deaths, abortions, neurological signs, or significant production drops warrant immediate veterinary investigation. The presence of notifiable diseases should be reported to relevant authorities.

The World Organisation for Animal Health provides guidance on animal health and welfare that can help farmers understand their responsibilities for disease reporting. The USDA National Agricultural Library and the U.S. Food and Drug Administration offer resources that can support disease recognition and response.

When to Seek Specialist Advice

Farmers should seek specialist advice when making significant changes to their farming system, such as changing species, expanding the herd, or implementing new breeding programs. The documented breeding program for farmed fallow deer demonstrates that structured genetic improvement is possible, but specialist advice can help farmers design programs appropriate for their enterprise.

Nutritional advice should be sought when developing feeding programs for drought conditions or when pasture quality is inadequate. The adaptation of overseas nutritional practices to Australian conditions requires local knowledge and expertise.

Limitations and Knowledge Gaps

Limited Australian Deer Research

Research on deer farming in Australia is limited compared to research on cattle, sheep, and other major livestock species. The knowledge on deer farming has largely been adopted from New Zealand and the United Kingdom, and there are gaps in knowledge of weaning procedures and nutritional management for early weaned deer. Farmers should recognize that some management recommendations are based on overseas research that may not fully apply to Australian conditions.

Emerging Disease Threats

The full range of pathogens affecting Australian deer is not yet known. Novel viruses, including the deer-origin bopivirus and picobirnaviruses, have been identified in Australian deer, but their geographic distribution and pathogenic potential require further investigation. The potential for wild deer to serve as a future source of viral infections for domestic animals in Australia remains a concern.

Wild Deer Population Dynamics

The environmental niche shifts demonstrated by invasive wild deer in Australia complicate predictions of future deer distribution. Chital, hog, and rusa deer had the largest areas of suitable habitat outside their presently occupied habitat, while other species had already expanded outside the ranges predicted as suitable. Wildlife managers should treat these analyses with caution, and farmers should be aware that wild deer populations may expand into new areas.

Frequently Asked Questions

What deer species are farmed in Australia?

Australian deer farmers manage fallow deer, red deer, rusa deer, and chital deer for commercial production. Six deer species are present in Australia overall, including hog deer and sambar deer, which are primarily wild. Species selection should be guided by local environmental conditions, with rusa deer better adapted to tropical and subtropical environments and fallow and red deer suited to temperate regions.

How does weaning time affect deer farm profitability?

Weaning time is one of the key factors influencing the profitability of the deer industry. Early weaning allows does to recover body condition before the next reproductive cycle but places nutritional demands on fawns. Late weaning reduces stress on fawns but may compromise doe condition entering the next breeding season. Farmers should base weaning decisions on objective measures of animal condition and feed availability instead of fixed calendar dates.

What diseases should deer farmers monitor?

Deer farmers should monitor for pestivirus, Coxiella burnetii, gastrointestinal nematodes, and vector-borne diseases relevant to their region. Wild deer in Australia have shown low seroprevalence for pestivirus and C. burnetii, suggesting they may be incidental spill-over hosts instead of reservoirs. However, deer could be a future source of viral infections for domestic animals, and biosecurity practices should account for this risk.

Can wild deer transmit diseases to farmed deer?

Wild deer can potentially transmit diseases to farmed deer through direct or indirect contact. Research has documented overlapping parasite taxa in co-grazing deer and cattle, and wild deer near farmland harbour significantly greater strongyle diversity than those from more remote locations. Boundary fence maintenance and biosecurity protocols are essential to manage these risks.

What is the risk of Q fever for deer farmers?

Q fever is caused by Coxiella burnetii and can cause significant illness in humans. Antibodies to C. burnetii have been detected in wild deer in Queensland and northern New South Wales, indicating the bacterium is present in the Australian environment. Deer farmers and workers should discuss Q fever vaccination with their medical practitioner.

How should deer farmers manage gastrointestinal parasites?

Deer farmers should establish parasite monitoring programs that include regular faecal egg counting and strategic drenching. The strongyle species affecting deer include both ruminant-associated species and the cervid-associated Spiculopteragia asymmetrica. Grazing management should account for the potential for cross-infection with livestock parasites where deer and cattle share grazing areas.

What records should deer farmers maintain?

Deer farmers should maintain individual animal records including identification, pedigree, birth date, weaning weight, growth rates, health treatments, and reproductive performance. Herd-level records should include pasture management, feed inputs, and financial performance. These records support genetic selection, weaning decisions, and disease pattern identification.

When should a veterinarian be contacted?

Farmers should contact a veterinarian when they observe signs of disease that are unusual, severe, or affecting multiple animals. Sudden deaths, abortions, neurological signs, or significant production drops warrant immediate veterinary investigation. Farmers should also seek veterinary advice for parasite monitoring programs and when developing biosecurity protocols.

Related Farming Guides

• Crayfish Farming: Pond and Tank Production Systems
• Goose Farming: Breeds, Housing, and Production Systems
• Waterfowl Farming: Duck and Goose Production Systems
• Dairy Farming Systems: Intensive vs Extensive Production Models
• Tilapia Farming: Production Planning for Pond, Cage, and Tank Systems

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.
• Toxoplasma gondii: transmission, diagnosis and prevention.. Clinical microbiology and infection : the official publication of the European Society of Clinical Microbiology and Infectious Diseases, 2002.
• Invasive wild deer exhibit environmental niche shifts in Australia: Where to from here?. Ecology and evolution, 2023.
• Seroprevalence of Coxiella burnetii antibodies in wild deer populations in eastern Australia.. Australian veterinary journal, 2023.
• Serosurveillance and Molecular Investigation of Wild Deer in Australia Reveals Seroprevalence of Pestivirus Infection.. Viruses, 2020.
• Novel Picornavirus Detected in Wild Deer: Identification, Genomic Characterisation, and Prevalence in Australia.. Viruses, 2021.
• The Ecological Separation of Deer and Domestic, Feral and Native Mammals in Tropical Northern Australia-A Review.. Animals : an open access journal from MDPI, 2024.
• Nemabiome metabarcoding reveals strongyle parasite diversity in wild deer in Victoria, Australia.. Parasitology research, 2026.
• Molecular Epidemiology and Characterization of Picobirnavirus in Wild Deer and Cattle from Australia: Evidence of Genogroup I and II in the Upper Respiratory Tract.. Viruses, 2021.
• A Critical Review of Bovine Viral Diarrhea Virus: Spotlights on Host Plasticity and Potential Spillover Events.. 2025.
• Heterogenous within-herd seroprevalence against epizootic hemorrhagic disease virus type 8 (EHDV-8) after massive virus circulation in cattle in France, 2023.. 2025.
• A Novel Ephemero- and a New CHeRI Orbivirus Isolated from a Dead Farmed White-Tailed Deer (&lt,i&gt,Odocoileus virginianus&lt,/i&gt,) in Florida, USA.. 2025.
• High Prevalence and Genetic Heterogeneity of &lt,i&gt,Anaplasma marginale&lt,/i&gt, in Smallholder Bovine Populations of Pakistan, and Its Implications.. 2025.
• Coinfection of Bovine ephemeral fever virus and 'Candidatus Mycoplasma haemobos' in cattle in Central China: implications for tick-borne transmission and viral divergence.. 2025.
• Bluetongue in ruminants: Global epidemiology, pathogenesis, and advances in diagnostic and control strategies within a One Health framework.. 2025.
• Deer farming in Australia.. 1980.
• Queensland's newest invasion: Feral urban deer. 2014.
• Molecular genetic characterization of Rusa (cervus timorensis) and sika (cervus nipon) deer Species in Malaysia. 2008.
• The Influence of Weaning Time on Deer Performance. 2004.
• A BREEDING PROGRAM FOR FARMED FALLOW DEER. 2001.
• Deer farming in Oceania. Wildlife Production Systems, 1989.

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