Animal Scientist Career Path Guide

Animal scientists study the biology, behavior, and genetics of animals to improve their health, productivity, and welfare. They conduct experiments, analyze data, and develop innovations that impact livestock production, wildlife management, and veterinary care, bridging scientific research with practical applications in agriculture, conservation, and medicine.

5%

growth rate

$87,500

median salary

remote-friendly

πŸ“ˆ Market Demand

Low
High
Medium

The demand for Animal Scientists is steady, supported by ongoing advancements in agriculture, food production, and biotechnology, but it remains a niche field with moderate growth potential.

πŸ‡ΊπŸ‡Έ Annual Salary (US, USD)

55,000β€”120,000
Median: $87,500
Entry-Level
$64,750
Mid-Level
$87,500
Senior-Level
$110,250

Top 10% of earners in this field can expect salaries starting from $120,000+ per year, especially with specialized skills in high-demand areas.

Core Functions of the Animal Scientist Role

Animal scientists are researchers and practitioners who dedicate their careers to understanding animals on multiple levelsβ€”from genetics and nutrition to physiology and behavior. Their work often directly contributes to enhancing food security by increasing the efficiency and sustainability of animal agriculture. By exploring how animals grow, reproduce, and respond to different environments, animal scientists develop methods to improve animal health and promote ethical treatment.

The role extends across various sectors including academic institutions, government agencies, private research organizations, and agricultural companies. Many animal scientists focus on livestock species like cattle, swine, sheep, goats, and poultry, while others specialize in wildlife or companion animals. This diversity demands a strong foundation in biology, chemistry, and genetics coupled with hands-on experience in lab and fieldwork.

Research conducted by animal scientists frequently leads to advances in breeding techniques, nutrition optimization, disease prevention, and environmental stewardship. They may design and manage experiments, collect data, analyze results using statistical software, and publish findings in scientific journals. Collaboration with veterinarians, farmers, conservationists, and policy makers is a common aspect of the job, requiring both technical expertise and communication skills.

Beyond research, animal scientists often play roles in teaching, advising agricultural businesses, and influencing animal welfare regulations. As technology evolves, the integration of genomics, biotechnology, and data analytics deepens the complexity and potential impact of their work. This profession is not only a gateway to improving animal well-being but also supports the broader goals of human health, environmental sustainability, and economic development.

Key Responsibilities

  • Conduct research on animal genetics, nutrition, reproduction, and behavior to improve productivity and welfare.
  • Design and implement experiments and trials involving livestock or wildlife species.
  • Analyze biological samples such as blood, tissue, and feed for research purposes.
  • Use statistical software to interpret experimental data and draw meaningful conclusions.
  • Develop breeding programs that enhance desirable traits while maintaining genetic diversity.
  • Recommend dietary plans and nutritional supplements to optimize animal health.
  • Collaborate with veterinarians and animal health professionals to study disease resistance.
  • Monitor animal populations in farm or wildlife settings to assess health and environmental impact.
  • Publish scientific papers and present findings at conferences and industry events.
  • Advise agricultural producers and policymakers on sustainable animal husbandry practices.
  • Implement welfare protocols and ensure compliance with animal care regulations.
  • Utilize biotechnology tools such as CRISPR gene editing and molecular diagnostics.
  • Train and supervise junior researchers, interns, or students in laboratory and fieldwork techniques.
  • Secure research funding through grants, proposals, and partnerships.
  • Stay current on advances in animal science disciplines and related technologies.

Work Setting

Animal scientists typically work in a combination of laboratory, office, and outdoor settings. Laboratory environments are equipped with specialized instruments for genetic analysis, biochemistry, and microbiology, which require strict safety and cleanliness standards. Fieldwork may involve visits to farms, ranches, wildlife reserves, or agricultural research stations, often exposing scientists to variable weather and rugged terrain. The job demands physical stamina for handling animals and collecting samples, alongside intellectual rigor for data interpretation and reporting. Many roles are embedded within universities or government research agencies, fostering collaborative and multidisciplinary interactions. The pace can fluctuate between intensive research periods and more reflective data analysis phases, with deadlines driven by grant cycles and publication schedules. Animal scientists must also adapt to emerging technologies and changing regulations that influence both their research priorities and operational practices.

Tech Stack

  • PCR (Polymerase Chain Reaction) Machines
  • Microscopes (Light, Electron, Fluorescence)
  • Genetic Sequencers
  • Statistical Software (R, SAS, SPSS)
  • Animal Monitoring Devices (GPS Collars, Biologgers)
  • Feed Analysis Instruments
  • Laboratory Information Management Systems (LIMS)
  • CRISPR Gene Editing Tools
  • Data Visualization Software
  • Laboratory Centrifuges
  • Spectrophotometers
  • Animal Behavior Observation Cameras
  • Bioinformatics Platforms
  • Veterinary Diagnostic Equipment
  • Nutritional Formulation Software
  • GIS Mapping Tools
  • Incubators
  • Field Sampling Kits
  • Automated Milking Systems
  • Remote Sensing Drones

Skills and Qualifications

Education Level

To become an animal scientist, a solid foundation in biological sciences is essential, typically beginning with a bachelor’s degree in animal science, biology, zoology, or a related field. Undergraduate programs provide core knowledge in genetics, physiology, nutrition, and microbiology, along with practical experience in handling animals and conducting experiments. Many positions, especially in research or academia, require advanced degrees such as a Master’s or Ph.D. focusing on specialized areas like animal genetics, immunology, or reproductive physiology. Graduate studies emphasize independent research, data analysis, and scientific communication skills.

Certifications may also enhance career prospects; credentialing from professional organizations such as the American Society of Animal Science (ASAS) can signify expertise and commitment. Continuing education remains important due to rapid advancements in biotechnology and environmental science. Employers increasingly look for candidates skilled in computer-based data analysis, laboratory techniques, and interdisciplinary collaboration. While education forms the backbone of competence, passion for animal welfare, ethical research, and sustainability are vital qualities that define success in this field.

Tech Skills

  • Laboratory techniques (sample collection, microscopy)
  • Molecular biology methods (PCR, DNA/RNA extraction)
  • Statistical analysis and experimental design
  • Animal nutrition formulation
  • Genetic evaluation and breeding program design
  • Data management and bioinformatics
  • Use of laboratory information systems
  • Animal behavior assessment
  • Field data collection and monitoring
  • Biotechnology applications (gene editing, cloning)
  • Veterinary diagnostic procedures
  • Nutritional supplement development
  • Geographic Information Systems (GIS)
  • Environmental impact assessment
  • Report writing and scientific publishing

Soft Abilities

  • Critical thinking and problem-solving
  • Effective communication and writing
  • Collaboration and teamwork
  • Attention to detail and accuracy
  • Time management and organization
  • Adaptability to evolving methods
  • Ethical judgment and integrity
  • Patience and perseverance in long-term research
  • Public speaking and presentation
  • Mentoring and leadership

Path to Animal Scientist

Embarking on a career as an animal scientist begins with acquiring a relevant college education. High school students should focus on biology, chemistry, and mathematics courses to prepare for undergraduate studies. Pursuing a Bachelor of Science degree in animal science, biology, or a related discipline lays the groundwork by providing essential theoretical knowledge and practical skills. Engaging in internships, research projects, or volunteer work with farms, research labs, or wildlife organizations during undergraduate years can offer valuable hands-on experience.

After completing a bachelor’s degree, many aspiring animal scientists choose to pursue graduate education such as a Master’s or Ph.D. program. These advanced degrees enable specialization in areas like animal genetics, nutrition, physiology, or behavior, and are often prerequisites for research roles, teaching positions, or leadership in industry. Graduate studies provide opportunities to conduct original research, participate in professional conferences, and publish scientific papers.

Certifications obtained through professional societies can boost credibility and networking potential. Gaining proficiency in laboratory techniques, statistical software, and data analysis tools is vital, and staying current with technological advancements ensures competitiveness. Entry-level roles may be found in academic research centers, agricultural businesses, or government agencies, where individuals can develop skills under senior guidance.

Building a strong professional network by joining associations such as the American Society of Animal Science or attending symposiums enriches career development. Volunteering for community outreach or educational programs also sharpens communication skills. Animal scientists often need to continue education throughout their careers, adapting to innovations in biotechnology, sustainable farming practices, and animal welfare policies. Career advancement comes with experience, impactful research contributions, and demonstrated leadership abilities.

Required Education

Formal education often starts with a Bachelor’s degree in animal science or related biological fields. Coursework typically covers subjects such as animal physiology, genetics, nutrition, microbiology, and animal behavior. These foundational subjects equip students with comprehensive knowledge about animal biology and practical handling skills necessary for research and production settings.

Undergraduate programs commonly include laboratory and field components, enabling students to apply theory to real-world scenarios. Participating in internship programs or assisting professors with research projects can broaden exposure to various subfields within animal science.

Graduate education sharpens specialization, research capability, and technical expertise. Master’s degrees provide intensive coursework and an opportunity to conduct a thesis project under faculty supervision. Doctoral programs push the frontier of knowledge, requiring original research with broader impact. Specializations might focus on areas like animal genetics, reproductive biology, animal nutrition, or environmental sustainability.

Several universities and colleges offer certification programs that complement formal degrees, focusing on emerging technologies such as bioinformatics, molecular techniques, or advanced animal nutrition. Additionally, training in statistical analysis software and scientific writing is crucial.

Continuing professional development is encouraged through workshops, seminars, and conferences offered by professional bodies. Animal scientists working in private industry or government may also undergo regulatory compliance and animal welfare training relevant to their job functions. Practical skills training remains vital due to technological advances, enabling animal scientists to integrate innovations like CRISPR technology or remote animal monitoring devices into their work.

Participation in multidisciplinary teams during education fosters communication and project management skills, essential for collaborating across diverse stakeholders including farmers, veterinarians, and policymakers.

Career Path Tiers

Junior Animal Scientist

Experience: 0-3 years

At this entry level, individuals assist senior scientists with data collection, sample processing, and routine laboratory tasks. Their responsibilities include managing animal care protocols, performing standardized experiments, and maintaining accurate records. Juniors learn to operate scientific equipment, engage in literature reviews, and contribute to smaller scale research projects. Mentorship and training sessions develop their technical skills and understanding of animal science principles. Communication skills are cultivated through report writing and team meetings. They also gain exposure to fieldwork environments, helping bridge theoretical knowledge with practical applications.

Mid-level Animal Scientist

Experience: 3-7 years

Mid-level professionals design and lead research studies with greater independence, managing experimental protocols, and interpreting complex data sets. They often supervise junior staff or interns and coordinate collaborations with external stakeholders such as agricultural producers or academic institutions. Responsibilities encompass grant writing, presenting findings at conferences, and contributing to policy recommendations. Mid-level scientists apply their specialization to optimize breeding programs, animal nutrition, or disease management. They balance hands-on research with strategic planning and interdisciplinary teamwork.

Senior Animal Scientist / Principal Investigator

Experience: 7+ years

Senior animal scientists hold leadership roles that include conceptualizing large-scale research initiatives, securing funding, and managing a research team. They influence institutional and industry directions by shaping animal welfare standards and sustainability practices. Skilled in translating scientific discoveries into practical solutions, they advise policymakers, industry leaders, and the public. Their expertise spans multiple disciplines, enabling them to innovate breeding technologies, environmental impact assessments, or animal health protocols. Often they publish extensively, mentor the next generation of scientists, and represent their organizations internationally.

Lead Scientist / Director of Animal Science Programs

Experience: 12+ years

This top-tier role involves strategic leadership over research portfolios, interdisciplinary collaborations, and institutional policy-making. Leads direct multi-departmental teams, oversee budgets, and set long-term goals aligned with industry or organizational visions. Responsibilities include representing the field globally at conferences, engaging with regulatory bodies, and influencing educational curriculum development. They drive innovation by integrating emerging technologies such as genomics, AI, and precision agriculture into animal science practices. Leadership qualities, visionary thinking, and an expansive professional network are essential.

Global Outlook

Animal science is a globally relevant field owing to agriculture’s universal importance and growing emphasis on sustainability and food security. Opportunities abound in countries with significant agricultural sectors such as the United States, Brazil, Australia, New Zealand, and parts of Europe where intensive livestock production demands ongoing research and innovation. Emerging economies in Asia and Africa increasingly invest in animal science to improve local farming systems, enhance nutrition, and stimulate rural development.

Developed regions emphasize cutting-edge technologies like genetic enhancement and precision livestock farming, offering roles in advanced research institutes and biotech firms. Meanwhile, tropical and subtropical regions provide unique challenges and learning environments related to endemic diseases, biodiversity conservation, and climate change impact on animal production.

International organizations, including the Food and Agriculture Organization of the United Nations (FAO), World Organisation for Animal Health (OIE), and various NGOs, create career pathways focused on global animal health, welfare, and policy development. Expanding concerns over zoonotic diseases have further elevated the demand for animal scientists versed in One Health principlesβ€”integrating human, animal, and ecosystem health.

Multinational agricultural companies and academic partnerships often support cross-border projects, increasing mobility for scholars and professionals. Proficiency in multiple languages and cultural competence enhances career prospects. However, regulatory frameworks, funding availability, and institutional structures differ widely worldwide, requiring adaptability and awareness of local contexts. As climate change and evolving consumer preferences reshape animal agriculture globally, animal scientists are poised to contribute internationally to sustainable and ethical food systems.

Job Market Today

Role Challenges

Animal scientists today face numerous challenges, most notably balancing production efficiency with animal welfare and environmental sustainability. Increasing public scrutiny and regulatory pressures demand ethical research practices and transparent reporting. Climate change introduces unpredictable variables affecting animal health and habitat stability, complicating long-term agricultural planning. Limited funding streams and competitive grant landscapes force scientists to continuously justify the practical impact of their work. Integrating rapidly advancing technologies such as genomics, bioinformatics, and precision monitoring also requires ongoing skill development. Bridging the gap between scientific discovery and real-world application is often hindered by fragmented communication among researchers, farmers, policymakers, and the public. Additionally, emerging zoonotic diseases remind animal scientists of their critical role in safeguarding both animal and human health, expanding the scope of their expertise.

Growth Paths

Growth in animal science careers is propelled by rising global demand for sustainable food production, improved animal health, and biodiversity conservation. Innovations in genetic engineering and biotechnology create avenues for enhanced breeding programs targeting disease resistance and productivity. The development of precision livestock farming tools incorporating sensors, drones, and AI offers prospects in data-driven animal management. Growing societal focus on animal welfare and ethical treatment opens new roles in regulatory compliance and advocacy. Cross-disciplinary integration with environmental science, veterinary medicine, and public health broadens job functions and research impact. Expansion of academic programs and government initiatives in developing countries further increases demand for qualified animal scientists. Corporate investment in sustainable agriculture startups provides entrepreneurial opportunities and diversified career paths. Adaptability to emerging technologies and expanding expertise in global health challenges amplify career longevity and impact.

Industry Trends

Current industry trends highlight the incorporation of cutting-edge genomics for personalized animal breeding and disease diagnostics. Digital agriculture technologies such as IoT sensors for monitoring animal health and behavior are increasingly adopted. CRISPR and other gene-editing tools are being explored to introduce desirable traits and reduce environmental footprints. Sustainable practices focusing on reducing greenhouse gas emissions and improving feed efficiency dominate research agendas. β€œOne Health” collaborations emphasize the interconnectedness of human, animal, and environmental health, broadening research scope. Consumer demand for ethically and sustainably produced animal products is reshaping farming practices and influencing policy. Big data analytics and machine learning are being used to optimize animal production systems. Interdisciplinary research approaches incorporating microbiome studies and climate resilience strategies are gaining momentum. These trends require animal scientists to be proficient with diverse technologies and able to operate in collaborative, multifaceted environments.

A Day in the Life

Morning (9:00 AM - 12:00 PM)

Focus: Data Collection & Fieldwork
  • Conduct animal health assessments on-site at farms or research facilities.
  • Collect biological samples such as blood, hair, or feces for analysis.
  • Monitor animal behavior using observation or automated tracking systems.
  • Coordinate with farm staff or wildlife managers on experimental protocols.
  • Record environmental and dietary variables impacting animals.

Afternoon (12:00 PM - 3:00 PM)

Focus: Laboratory Analysis & Experimentation
  • Process collected samples with molecular biology techniques like PCR or DNA sequencing.
  • Analyze nutritional content of feed and biological tissues.
  • Run laboratory assays for disease diagnostics or genetic markers.
  • Calibrate and maintain specialized scientific instruments.
  • Document results and troubleshoot experimental challenges.

Late Afternoon (3:00 PM - 6:00 PM)

Focus: Data Interpretation & Reporting
  • Use statistical software to analyze experimental data and generate reports.
  • Write research papers, grant proposals, or technical summaries.
  • Communicate findings with stakeholders through presentations or meetings.
  • Plan upcoming research activities and adjust study designs.
  • Collaborate with interdisciplinary teams and mentor junior researchers.

Work-Life Balance & Stress

Stress Level: Moderate

Balance Rating: Good

While the career of an animal scientist involves deadlines tied to grant submissions and research milestones, the flexibility of academic and government roles often allows for a balanced schedule. Fieldwork and laboratory tasks can vary, with some periods requiring intensive focus and others providing downtime for analysis and planning. Physical demands during field activities may add stress, but an overarching culture of collaboration and intellectual engagement contributes to job satisfaction. Work-life balance improves with experience and managerial control over projects, though peak stress may occur during publication cycles or regulatory reviews.

Skill Map

This map outlines the core competencies and areas for growth in this profession, showing how foundational skills lead to specialized expertise.

Foundational Skills

The absolute essentials every animal scientist must master to excel in research and practice.

  • Animal Physiology
  • Genetics and Breeding Principles
  • Animal Nutrition Basics
  • Laboratory Sampling & Techniques
  • Statistical Data Analysis

Specialization Paths

Advanced knowledge areas allowing scientists to focus their careers and research.

  • Molecular Biology (PCR, DNA Sequencing)
  • Bioinformatics and Genomics
  • Animal Behavior and Welfare Assessment
  • Sustainable Livestock Production
  • Environmental Impact Analysis

Professional & Software Skills

Tools and soft skills crucial for effective scientific communication and project management.

  • Proficiency with Statistical Software (R, SAS)
  • Laboratory Information Management Systems (LIMS)
  • Scientific Writing & Publishing
  • Grant Writing and Fundraising
  • Team Leadership and Collaboration

Pros & Cons for Animal Scientist

βœ… Pros

  • Opportunity to contribute to global food security and animal welfare improvements.
  • Engagement with cutting-edge scientific research and biotechnology tools.
  • Varied work environments including lab, office, and outdoor fieldwork.
  • Strong potential for interdisciplinary collaboration and career mobility.
  • High job satisfaction derived from meaningful impact on society and environment.
  • Diverse career paths in academia, industry, government, and nonprofits.

❌ Cons

  • Competitive funding environment leading to job insecurity in research roles.
  • Physical demands and exposure to unpredictable weather during fieldwork.
  • Need for continual learning to keep pace with rapid technological advancements.
  • Potential ethical dilemmas related to animal experimentation and genetic manipulation.
  • Workload fluctuations with periods of high stress around grant deadlines and publications.
  • Navigating complex regulatory environments and public scrutiny on animal welfare.

Common Mistakes of Beginners

  • Underestimating the importance of multidisciplinary skills such as statistics and data analysis.
  • Neglecting hands-on experience by focusing too narrowly on theory.
  • Poor time management when balancing fieldwork, lab work, and reporting.
  • Inadequate networking and failure to join professional societies.
  • Ignoring ethical standards or compliance regulations related to animal research.
  • Overlooking the importance of clear scientific communication to lay audiences.
  • Failing to stay current with technological and methodological innovations.
  • Lacking patience for the length and iterative nature of scientific research.

Contextual Advice

  • Seek internships and volunteer positions early to gain practical experience with animals.
  • Develop strong quantitative skills alongside biological knowledge.
  • Engage actively with professional organizations and attend conferences.
  • Learn to effectively communicate complex scientific ideas to diverse audiences.
  • Stay adaptable and open to emerging technologies and methodologies.
  • Prioritize ethical considerations and animal welfare in all research activities.
  • Build relationships across disciplines including veterinary medicine and environmental science.
  • Invest time in mentoring or tutoring to solidify understanding and leadership skills.

Examples and Case Studies

Genetic Improvement of Dairy Cattle for Disease Resistance

A research team conducted a multi-year study employing genomic selection techniques to identify dairy cattle with enhanced resistance to mastitis, a costly and common udder infection. By integrating molecular markers and statistical models, they developed a breeding program that reduced infection rates by 20% over five years. Collaboration with local farmers ensured practical adoption of findings while monitoring environmental impacts.

Key Takeaway: This case highlights how combining biotechnology with field partnerships can produce measurable health and economic benefits in animal agriculture.

Implementing Precision Livestock Farming to Optimize Feed Usage

A mid-sized swine operation partnered with animal scientists to deploy sensors tracking pig activity, growth, and feed intake. Analyzing this data allowed tailored feeding regimes, reducing waste by 15% and improving weight gain consistency. The study demonstrated the feasibility and profitability of integrating digital monitoring tools to enhance sustainable farming practices.

Key Takeaway: Applying technology in livestock management can create win-win outcomes for producers and the environment.

Assessing Wildlife Population Health Using Non-invasive Sampling

Scientists investigating endangered deer populations used saliva and fecal DNA samples collected non-invasively to monitor genetic diversity and pathogen prevalence. This approach minimized stress and disturbance to animals while delivering critical data for conservation strategies. Their work informed habitat protection policies and captive breeding programs to maintain species viability.

Key Takeaway: Innovative, ethical research methods enable conservation science to protect biodiversity effectively.

Nutritional Intervention to Enhance Poultry Productivity in Tropical Climates

By analyzing locally available feed ingredients, researchers formulated optimized diets for broiler chickens resistant to heat stress common in tropical environments. Field trials showed improved growth rates and survival under high temperatures, benefiting small-scale farmers. Knowledge transfer sessions with community cooperatives facilitated widespread adoption.

Key Takeaway: Context-specific nutritional solutions can empower farmers in challenging environments while boosting animal performance.

Portfolio Tips

Crafting an effective portfolio as an animal scientist involves more than listing degrees and job titles. Start by showcasing your hands-on experience such as internships, research projects, and any fieldwork that demonstrates your practical skills. Include detailed descriptions of the methodologies used, the scope of your research, and any innovations you contributed to. Visual elements like charts, graphs, or photos of experiments and field activities can add impact. Highlight publications, posters, presentations, and any awards or recognitions received to establish credibility.

Tailor your portfolio to the audience and the position you seek. For academic roles, emphasize your research proposals, grant writing experience, and collaborations. For industry roles, focus on applied projects that demonstrate problem-solving and cost-effective innovations. Digital portfolios should be easy to navigate and regularly updated, using platforms such as personal websites or professional networks like LinkedIn or ResearchGate.

Don’t overlook soft skills; including testimonials from mentors or colleagues can provide evidence of teamwork and communication abilities. Be transparent about your role and contributions to projects, offering clear narratives of challenges and outcomes. Lastly, link your portfolio to broader goals such as sustainable agriculture, animal welfare, or public health to illustrate your professional vision and commitment to positive societal impacts.

Job Outlook & Related Roles

Growth Rate: 5%
Status: Growing at an average rate, with specialized areas growing faster due to biotechnology and sustainability demands
Source: U.S. Bureau of Labor Statistics

Related Roles

Frequently Asked Questions

What degree is most suitable for becoming an animal scientist?

A Bachelor of Science in animal science, biology, or a related field provides foundational knowledge. For research, development, or academic positions, pursuing a Master’s or Ph.D. specializing in areas like genetics, nutrition, or animal physiology is often necessary.

Are animal scientists involved only with farm animals?

While many focus on livestock such as cattle, pigs, and poultry, animal scientists also work with wildlife, companion animals, and exotic species depending on their specialization and employer. Conservation biology and veterinary research are common intersections.

What technical skills are important for this career?

Key skills include molecular biology techniques (e.g., PCR), statistics and data analysis, bioinformatics, nutritional formulation, laboratory management, and proficiency with scientific software and databases.

How much fieldwork does an animal scientist do?

Fieldwork frequency varies by position; some roles are primarily lab-based, while others require regular visits to farms, ranches, or natural habitats to monitor animals, collect samples, and observe behavior.

Can animal scientists work remotely?

Remote work opportunities are limited due to the necessity of hands-on animal and laboratory work. Certain data analysis and writing tasks can be done remotely, but overall, the role is not typically remote-friendly.

What professional organizations should animal scientists join?

Joining groups such as the American Society of Animal Science (ASAS) or similar national and regional societies provides access to continuing education, networking, conferences, and certification.

What are the career growth prospects for an animal scientist?

The field is growing steadily, driven by global demand for sustainable animal production and health innovations. Experienced scientists can advance to senior research, leadership, or policy advisory roles.

How important is ethics in animal science?

Ethics are foundational; animal scientists must adhere to strict animal welfare standards and ethical guidelines when designing and conducting research, balancing scientific goals with humane treatment.

What are common challenges faced in this career?

Challenges include securing research funding, managing regulatory compliance, integrating emerging technologies, and addressing public concerns about animal welfare and environmental sustainability.

What industries hire animal scientists besides agriculture?

Beyond agriculture, employers range from academic and government research institutions, pharmaceutical and biotech companies, environmental NGOs, wildlife conservation organizations, and food production firms.

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