What Is Conservation Biology? A Career-Focused Definition

Conservation biology is the applied scientific discipline that studies the causes of biodiversity loss and develops practical strategies to protect species, ecosystems, and genetic diversity. For students and professionals evaluating career paths, conservation biology combines ecological research with management action, policy engagement, and increasingly, technological innovation. The field operates at the intersection of natural science and human decision-making, addressing threats such as habitat destruction, overexploitation, invasive species, pollution, and climate change. This article defines the core principles of conservation biology, explains how they translate into specific career roles, and provides a practical framework for assessing whether this field matches your professional goals.

The Scientific Foundation of Conservation Biology

Conservation biology emerged as a distinct discipline in response to the accelerating loss of biodiversity worldwide. The field is often described as a crisis discipline because it combines fundamental research with urgent practical application. Unlike pure ecology, which seeks to understand natural systems for their own sake, conservation biology explicitly aims to preserve biological diversity through evidence-based intervention.

The intellectual origins of the field are frequently traced to Michael E. Soulé's foundational work, which framed conservation biology as a discipline with explicit values and goals. Soulé's 1985 paper "What is Conservation Biology?" established the normative framework that distinguishes this field from other biological sciences. The field has since evolved to address new challenges, including synthetic biology applications and the integration of social science perspectives. A 2023 analysis of Soulé's work in Biological Conservation examines how the discipline has adapted as biodiversity itself has become a contested concept in scientific and policy debates. The ongoing evolution of the field reflects its responsiveness to changing environmental conditions and societal expectations.

Conservation biology is inherently interdisciplinary. Practitioners draw on genetics, ecology, evolutionary biology, physiology, and behavioral science, but they also engage with economics, law, sociology, and political science. This multidisciplinary character means that conservation professionals must be comfortable working across traditional academic boundaries. Research priorities identified for the coming decades emphasize innovative technologies, involvement of local stakeholders and citizen scientists, legislation, and issues related to human health. These priorities indicate that solutions to conservation challenges require a multidisciplinary approach in design and a multi-actor approach in implementation.

Core Principles That Define the Discipline

Biodiversity as the Central Value

The primary focus of conservation biology is biodiversity at all levels: genetic diversity within species, species diversity within communities, and ecosystem diversity across landscapes. This hierarchical view means that conservation work can target anything from preserving the genetic variation in a single threatened population to maintaining the functional integrity of an entire biome.

Genetic diversity receives particular attention because it underpins the adaptive capacity of species. Populations with low genetic variation are more vulnerable to disease, environmental change, and inbreeding depression. Conservation geneticists use molecular tools to assess population structure, estimate effective population sizes, and guide breeding programs. The field has expanded to include genomic approaches that provide unprecedented detail about the evolutionary history and adaptive potential of threatened species.

The Precautionary Principle in Practice

Conservation biology operates under conditions of uncertainty. Managers rarely have complete information about population sizes, habitat requirements, or the consequences of intervention. The precautionary principle guides decision-making in these situations: when the risks of inaction are potentially severe and irreversible, lack of full scientific certainty should not be used as a reason to postpone cost-effective measures.

This principle has direct implications for career practice. Conservation professionals must be able to make recommendations with incomplete data, clearly communicate uncertainty to stakeholders, and design monitoring programs that reduce knowledge gaps over time. The ability to distinguish between what is known, what is inferred, and what is unknown is a core professional competency.

Integration of Science and Values

Conservation biology explicitly acknowledges that value judgments are embedded in conservation decisions. Choices about which species to prioritize, which habitats to protect, and which interventions to fund reflect human values as much as scientific evidence. The field does not pretend to be value-free, instead, it makes its values explicit and subjects them to scrutiny.

This characteristic distinguishes conservation biology from many other scientific disciplines. Professionals in this field must be prepared to engage with ethical questions, stakeholder conflicts, and trade-offs between competing objectives. Career success often depends on the ability to facilitate dialogue among groups with different values and to find solutions that respect multiple perspectives.

At a Glance: Conservation Biology Career Pathways

How Conservation Biology Translates into Career Roles

Research Careers: Generating Evidence for Action

Research scientists in conservation biology design studies that address specific management questions. They might investigate the habitat requirements of a threatened species, evaluate the effectiveness of different restoration techniques, or model the impacts of climate change on species distributions. Their work provides the evidence base that informs conservation decisions at all scales.

The research pathway typically requires advanced training. Doctoral degrees are common for university positions and senior research roles in government agencies. Master's degrees may be sufficient for research technician positions, NGO research roles, and some government positions. The U.S. Bureau of Labor Statistics provides occupational information for life scientists, including details about educational requirements, job duties, and employment outlook for various research positions. The National Institutes of Health Office of Intramural Training and Education offers training opportunities for students and early-career scientists interested in biomedical and life science research pathways.

Research careers demand strong quantitative skills. Conservation scientists increasingly rely on sophisticated statistical models, spatial analysis, and simulation approaches. The ability to write competitive grant proposals is essential for university-based researchers, who typically secure their own funding. Publication in peer-reviewed journals remains the primary currency for academic career advancement.

Management Careers: Applying Science on the Ground

Conservation managers translate scientific recommendations into concrete actions. They develop and implement management plans for protected areas, coordinate habitat restoration projects, manage threatened species populations, and monitor the outcomes of conservation interventions. This work requires a combination of ecological knowledge and practical skills.

Managers must be adept at working with diverse stakeholders, including landowners, government officials, community members, and other scientists. They often serve as the bridge between research findings and real-world application. Effective managers understand the social and economic contexts in which conservation decisions are made and can design interventions that are feasible as well as scientifically sound.

The management pathway typically requires a bachelor's or master's degree in conservation biology, ecology, environmental science, or a related field. Relevant experience through internships, volunteer positions, or seasonal field work is often as important as formal education. Many conservation managers begin their careers in field technician roles and advance to positions with greater responsibility.

Policy Careers: Shaping the Rules That Protect Biodiversity

Conservation policy professionals work to create the legal and institutional frameworks that enable effective biodiversity protection. They might draft legislation, develop regulations, design incentive programs, or negotiate international agreements. Their work translates scientific evidence into rules that shape the behavior of governments, businesses, and individuals.

Policy careers require an understanding of both science and governance. Many conservation policy professionals hold advanced degrees in environmental law, public policy, or natural resource management. Strong writing and communication skills are essential, as is the ability to synthesize complex scientific information for non-specialist audiences.

The policy pathway offers opportunities in government agencies at local, national, and international levels, as well as in non-governmental organizations that advocate for stronger environmental protections. Some conservation policy professionals work for international bodies such as the Convention on Biological Diversity, which coordinates global biodiversity conservation efforts.

Technology-Intensive Careers: New Tools for Old Problems

Conservation biology has been transformed by technological advances in recent decades. Geographic information systems enable precise mapping of habitats and threats. Remote sensing technologies allow monitoring of land-use change across vast areas. Genetic tools provide unprecedented insight into population structure and evolutionary processes. These technologies have created new career pathways for specialists with technical skills.

Open-source intelligence, a field that evolved in spy agencies, is now being applied to conservation problems. Conservation professionals use open-source tools to evaluate wildlife crime, study human-wildlife interactions, assess animal behavior, and investigate questions of distribution and abundance. Recognizing the conceptual foundations of this field allows expansion of conservation biology into new areas, including habitat use, habitat change, and animal behavior. This recognition also provides frameworks for conceptual advancement, especially in terms of data and privacy management.

Genome editing technologies are changing the face of modern biology and have the potential to make significant contributions to conservation. Emerging applications include new CRISPR-targeted sequencing approaches, nucleic acid detection methods, species genetic barcoding, and somatic genome-editing technologies. These tools could provide new noninvasive methods for monitoring threatened species or for enhancing critical adaptive traits. A pioneering effort by the conservation community is required to apply these technologies to real-world conservation problems.

Career opportunities in conservation technology include positions as data scientists, remote sensing specialists, bioinformaticians, and conservation technology developers. These roles often require specialized training in computer science, statistics, or engineering, in addition to biological knowledge. The U.S. Department of Labor's O*NET OnLine provides detailed information about the knowledge, skills, and abilities required for various technology-intensive occupations.

Practical Steps for Entering Conservation Biology

Step 1: Assess Your Interests and Skills

Conservation biology encompasses a wide range of activities, from laboratory-based genetic analysis to field-based ecological monitoring to desk-based policy analysis. Before committing to a specific career path, assess which aspects of conservation work align with your interests and abilities.

Consider the following questions:

• Do you prefer working outdoors or in a laboratory or office setting?
• Are you drawn to research questions or practical management challenges?
• Do you enjoy working with people or prefer independent work?
• Are you comfortable with statistical analysis and computer modeling?
• Are you willing to relocate for field work or employment opportunities?

Honest answers to these questions will help you identify which conservation career pathways merit further exploration.

Step 2: Build Relevant Knowledge and Skills

Formal education provides the foundation for a conservation career. A bachelor's degree in biology, ecology, environmental science, or a related field is typically the minimum requirement for entry-level positions. Coursework in ecology, genetics, statistics, and geographic information systems provides a strong foundation.

Advanced degrees are increasingly common among conservation professionals. Master's programs provide specialized training in conservation science, natural resource management, or environmental policy. Doctoral programs prepare students for research careers and senior leadership positions. The National Institutes of Health Office of Intramural Training and Education offers information about graduate and postdoctoral training opportunities in the life sciences.

Beyond formal education, practical skills are essential. Field experience through internships, volunteer positions, or seasonal employment demonstrates your ability to apply scientific knowledge in real-world settings. Technical skills in data analysis, spatial modeling, and scientific communication are highly valued by employers.

Step 3: Gain Practical Experience

Conservation employers place a high value on practical experience. Entry-level positions often require demonstrated competence in field techniques, data management, or project coordination. Volunteer work with conservation organizations, internships with government agencies, and seasonal positions with research projects all provide valuable experience.

Field experience is particularly important for management and research careers. Working on real conservation projects teaches you how to design studies, collect data under challenging conditions, troubleshoot problems, and work effectively as part of a team. These experiences also help you build a professional network that can lead to employment opportunities.

Step 4: Develop Professional Networks

Conservation biology is a collaborative field, and professional networks are essential for career advancement. Attend conferences, join professional organizations, and connect with practitioners in your area of interest. The Society for Conservation Biology is the primary professional organization for the field and publishes the journal Conservation Biology, which provides a window into current research and emerging issues.

Mentorship relationships can be particularly valuable. Experienced conservation professionals can provide guidance about career pathways, introduce you to potential employers, and help you navigate the challenges of the field. Seek out mentors through academic programs, professional organizations, or workplace relationships.

Step 5: Pursue Continuous Learning

Conservation biology is a rapidly evolving field. New threats emerge, new technologies become available, and new scientific understanding changes management approaches. Successful conservation professionals commit to lifelong learning.

Professional development opportunities include workshops, certificate programs, and advanced degrees. Reading the primary literature is essential for staying current with scientific developments. The National Center for Biotechnology Information provides access to the biomedical and life sciences literature, including conservation biology journals. PubMed, the National Library of Medicine's searchable database, allows researchers to find recent publications on specific conservation topics.

Records and Measurements in Conservation Practice

Population Monitoring

Population monitoring is a core activity in conservation biology. Conservation professionals track population sizes, trends, and demographic parameters to assess the status of threatened species and evaluate the effectiveness of management interventions. Common monitoring approaches include:

• Direct counts of individuals or breeding pairs
• Mark-recapture studies to estimate population size and survival rates
• Occupancy surveys to document species presence across landscapes
• Acoustic monitoring for vocalizing species
• Camera trapping for elusive or nocturnal species
• Environmental DNA sampling to detect species presence from water or soil samples

Each monitoring approach has strengths and limitations. Direct counts are straightforward but may miss individuals or double-count others. Mark-recapture methods provide robust estimates but require capturing and handling animals. Occupancy surveys are efficient for documenting species distributions but provide limited information about population size. Conservation professionals must select monitoring approaches that match their specific questions and constraints.

Habitat Assessment

Habitat assessment documents the quantity and quality of habitat available to target species. Conservation professionals measure habitat variables such as vegetation structure, plant species composition, food availability, and the presence of key resources like nesting sites or water sources. They also assess threats such as fragmentation, degradation, and invasive species encroachment.

Habitat assessments often combine field measurements with remote sensing data. Satellite imagery and aerial photography allow conservation professionals to map habitat across large areas and track changes over time. Geographic information systems integrate these data with other spatial information to support conservation planning.

Genetic Monitoring

Genetic monitoring uses molecular tools to track changes in the genetic composition of populations over time. Conservation geneticists measure genetic diversity, assess gene flow between populations, detect inbreeding, and identify unique genetic lineages that may warrant separate management.

Advances in genomic technology have expanded the scope of genetic monitoring. Whole-genome sequencing provides detailed information about the evolutionary history and adaptive potential of populations. A study of the frog Oreobates chiquitanus in Bolivia demonstrated how genomic analysis of museum specimens can provide a comprehensive genetic definition of a species and assess the conservation value of threatened populations. The study highlighted the importance of collaboration between natural history collections and genomic initiatives for understanding anthropogenic impacts in times of global change.

Intervention Effectiveness

Conservation professionals must evaluate whether their interventions are achieving the desired outcomes. This requires clear objectives, measurable indicators, and systematic monitoring before, during, and after intervention.

A meta-analysis of conservation interventions for subterranean-roosting bats illustrates the importance of evaluating intervention effectiveness. The analysis, based on data from 345 papers recommending 910 conservation interventions, found that gating of roost entrances was applied to preserve bat populations in 21 studies, but its effectiveness was unclear. Habitat restoration and disturbance reduction positively affected bat populations and bat behavior, respectively, in four or fewer studies. Decontamination was assessed in two studies and positively affected bat populations, particularly in studies focused on reducing fungal spores associated with white-nose syndrome in North America. Monitoring of bat populations as an effective conservation strategy was unclear and infrequently tested.

This example demonstrates that conservation interventions are not always effective, and that rigorous evaluation is essential for improving practice. Conservation professionals must be willing to document both successes and failures, and to adapt their approaches based on evidence.

Common Failure Patterns in Conservation Practice

Failure to Define Clear Objectives

Conservation projects sometimes fail because they lack clear, measurable objectives. Without specific goals, it is impossible to design effective interventions or evaluate success. Conservation professionals must articulate what they are trying to achieve, how they will measure progress, and what time frame is realistic.

Inadequate Monitoring

Many conservation projects fail to include adequate monitoring components. Without systematic data collection before, during, and after intervention, it is impossible to know whether the intervention worked or why it failed. Monitoring should be designed as an integral part of conservation projects, not as an afterthought.

Ignoring Social and Economic Context

Conservation interventions fail when they ignore the social and economic context in which they operate. Protected areas that displace local communities without providing alternatives often generate resistance and fail to achieve their conservation goals. Conservation professionals must engage with local stakeholders, understand their needs and perspectives, and design interventions that are socially as well as ecologically sustainable.

Lack of Adaptive Management

Conservation operates in complex, dynamic systems where outcomes are uncertain. Adaptive management, which involves treating interventions as experiments and adjusting approaches based on results, is essential for effective conservation. Projects that follow rigid plans without learning from experience are more likely to fail.

Geographic Bias in Research and Practice

Conservation biology has historically exhibited geographic bias, with more research and conservation attention devoted to some regions than others. A 2015 article in Conservation Biology addressed the problem of decreasing geographic bias in the field. This bias means that conservation decisions in understudied regions are often based on limited evidence, increasing the risk of ineffective or harmful interventions.

Limitations and Ethical Considerations

Scientific Uncertainty

Conservation decisions are always made under conditions of uncertainty. Population estimates have confidence intervals, habitat models make simplifying assumptions, and future conditions are unpredictable. Conservation professionals must communicate uncertainty honestly and make decisions that are robust to a range of possible outcomes.

Value Conflicts

Conservation inevitably involves trade-offs between competing values. Protecting habitat may conflict with economic development. Prioritizing one species may come at the expense of others. Conservation professionals must be prepared to engage with these conflicts and to facilitate transparent decision-making processes.

Limited Resources

Conservation resources are always limited relative to the scale of the challenges. Conservation professionals must make difficult choices about how to allocate scarce funding, staff time, and political capital. Systematic prioritization frameworks can help ensure that resources are directed to the most urgent and tractable problems.

Ethical Questions About Intervention

Conservation interventions raise ethical questions about human responsibility for other species. Is it appropriate to use genome editing to enhance adaptive traits in threatened species? Should we intervene to protect species from climate change, or allow natural processes to take their course? These questions have no simple answers and require ongoing ethical reflection.

A review of the sea cucumber Apostichopus japonicus holobiont illustrates the complexity of conservation in practice. The sea cucumber is a physiologically and ecologically unique marine invertebrate with significant capability of organ regeneration, presence of microbes in coelomic fluid, mysterious nutrition connected to slow growth, and improvements in seed production for the bio-conservation of endangered and essential fisheries resources. Understanding the holobiont, the host organism plus its associated microorganisms, is important for basic biology, bio-conservation, and sustainable aquaculture.

The Role of Parasites in Conservation

Conservation biology increasingly recognizes the importance of organisms that were historically overlooked. Parasites, for example, are now understood as conservation tools instead of simply as threats to host species. Parasite success typically depends on a close relationship with one or more hosts, so attributes of parasitic infection can provide indirect details of host natural history. Characterization of parasite infections has been useful in delineating host populations and has served as a proxy for assessment of environmental quality. Innovative studies of parasite biology can provide information to manage major conservation threats, including overexploitation, habitat loss and fragmentation, invasive species, and climate change.

The Role of Fungi in Conservation

Fungi have rarely been considered in conservation biology, but this is changing as the field moves from addressing single species issues to an integrative ecosystem-based approach. The current emphasis on biodiversity as a provider of ecosystem services highlights the vast diversity of fungi, their crucial roles in terrestrial ecosystems, and the benefits of considering fungi in concert with animals and plants. There are five areas in which fungi can be readily integrated into conservation: as providers of habitats and processes important for other organisms, as indicators of desired or undesired trends in ecosystem functioning, as indicators of habitats of conservation value, as providers of powerful links between human societies and the natural world because of their value as food, medicine, and biotechnological tools, and as sources of novel tools and approaches for conservation of megadiverse organism groups.

Professional Escalation Criteria

Conservation professionals should seek additional expertise or escalate concerns when they encounter situations that exceed their knowledge, authority, or resources. The following situations warrant escalation:

When Scientific Uncertainty Exceeds Your Expertise

If a conservation decision requires expertise in a field outside your training, such as advanced population modeling, genomic analysis, or environmental law, consult with specialists who have the relevant expertise. Attempting to make decisions beyond your competence risks ineffective or harmful outcomes.

When Stakeholder Conflicts Cannot Be Resolved

Conservation professionals sometimes encounter conflicts that cannot be resolved through normal stakeholder engagement processes. When conflicts escalate to the point of threatening project success or personal safety, escalate to supervisors, mediators, or appropriate authorities.

When Legal or Regulatory Issues Arise

Conservation work is governed by a complex web of laws and regulations. If you encounter legal questions about permitted activities, land use, or species protection, consult with legal experts or regulatory authorities. Do not attempt to interpret or apply laws beyond your expertise.

When You Observe Ethical Violations

Conservation professionals may observe unethical practices, including data fabrication, conflicts of interest, or mistreatment of animals or people. Report ethical violations through appropriate channels, which may include institutional review boards, professional organizations, or regulatory authorities.

When Resources Are Inadequate for the Task

If a conservation project lacks the resources needed to achieve its objectives, escalate the resource question to decision-makers. Continuing with inadequate resources may waste effort and create false impressions of progress.

Frequently Asked Questions

What is the main goal of conservation biology?

The main goal of conservation biology is to protect and maintain biodiversity, including genetic diversity within species, species diversity within communities, and ecosystem diversity across landscapes. The field achieves this goal through scientific research, practical management interventions, policy development, and public engagement. Conservation biology is distinctive among scientific disciplines because it explicitly combines scientific evidence with value judgments about what should be protected and why.

How is conservation biology different from ecology?

Ecology is the scientific study of the relationships between organisms and their environments. Conservation biology applies ecological knowledge to the specific goal of protecting biodiversity. While ecologists may study natural systems without any particular management objective, conservation biologists are explicitly focused on preventing biodiversity loss and restoring degraded systems. Conservation biology is a crisis discipline that combines fundamental research with urgent practical application.

What careers are available in conservation biology?

Conservation biology careers span research, management, policy, and technology. Research scientists generate new knowledge about biodiversity and threats. Conservation managers implement protection and restoration programs. Policy analysts translate scientific evidence into regulations and incentives. Conservation geneticists assess and manage genetic diversity. Restoration ecologists rehabilitate degraded habitats. Conservation data scientists manage and analyze biodiversity information. Employers include universities, government agencies, non-governmental organizations, consulting firms, zoos, and botanical gardens.

What education is required for a conservation biology career?

Entry-level positions typically require a bachelor's degree in biology, ecology, environmental science, or a related field. Many conservation professionals hold master's degrees, which provide specialized training in conservation science or natural resource management. Doctoral degrees are common for university research positions and senior leadership roles. Practical experience through internships, volunteer positions, and seasonal field work is often as important as formal education for career advancement.

What skills are most valuable for conservation biology professionals?

Valuable skills include ecological knowledge, statistical analysis, geographic information systems, scientific writing, and project management. Communication skills are essential because conservation professionals must work with diverse stakeholders, including landowners, government officials, community members, and other scientists. Increasingly, technical skills in remote sensing, bioinformatics, and data science are in high demand.

How does conservation biology address climate change?

Climate change is a major threat to biodiversity, and conservation biology addresses it through multiple approaches. Conservation professionals assess the vulnerability of species and ecosystems to climate change, identify climate refugia that may buffer species from the worst impacts, design protected area networks that facilitate species movement, and develop assisted migration and other intervention strategies. Climate change adaptation is now a central component of conservation planning.

What role do zoos play in conservation biology?

Zoos are increasingly recognized as strategic actors in global biodiversity conservation, particularly under the Kunming-Montreal Global Biodiversity Framework adopted under the Convention on Biological Diversity. As centers of conservation, education, and public engagement, zoos are uniquely positioned to contribute to species conservation, free-ranging biodiversity, climate resilience through plant diversity, urban biodiversity via green spaces, and biodiversity education and awareness. Research on Indian zoos found a significant association between conservation breeding programs and the protection of threatened species, a positive correlation between green space and free-ranging mammal and bird richness, and a moderate link between visitor engagement and biodiversity education.

How is technology changing conservation biology?

Technology is transforming conservation biology in multiple ways. Geographic information systems enable precise mapping of habitats and threats. Remote sensing allows monitoring of land-use change across vast areas. Genetic tools provide unprecedented insight into population structure and evolutionary processes. Open-source intelligence, a field that evolved in spy agencies, is now being applied to conservation problems including wildlife crime, human-wildlife interactions, and questions of distribution and abundance. Genome editing technologies have the potential to provide new noninvasive methods for monitoring threatened species or for enhancing critical adaptive traits.

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References and Further Reading

• Life, Physical, and Social Science Occupations. U.S. Bureau of Labor Statistics.
• Healthcare Occupations. U.S. Bureau of Labor Statistics.
• O*NET OnLine. U.S. Department of Labor.
• Office of Intramural Training and Education. National Institutes of Health.
• NCBI Literature Resources. National Center for Biotechnology Information.
• PubMed. National Library of Medicine.
• Open-source intelligence for conservation biology.. Conservation biology : the journal of the Society for Conservation Biology, 2022.
• Conservation Biology celebrates success.. Conservation biology : the journal of the Society for Conservation Biology, 2016.
• Transforming ecology and conservation biology through genome editing.. Conservation biology : the journal of the Society for Conservation Biology, 2020.
• A fungal perspective on conservation biology.. Conservation biology : the journal of the Society for Conservation Biology, 2015.
• Parasites as conservation tools.. Conservation biology : the journal of the Society for Conservation Biology, 2022.
• Conservation Biology at twenty.. Conservation biology : the journal of the Society for Conservation Biology, 2006.
• Decreasing geographic bias in Conservation Biology.. Conservation biology : the journal of the Society for Conservation Biology, 2015.
• Effective conservation of subterranean-roosting bats.. Conservation biology : the journal of the Society for Conservation Biology, 2024.
• The Sea Cucumber Holobiont and Probiotics: Recent Progress on Apostichopus japonicus.. 2026.
• Infinitesimal homeostasis in mass-action systems.. 2026.
• Genomics as a time capsule: insights from Oreobates chiquitanus type specimens.. 2026.
• Conservation Biology: New Goals and New Partners for Managers of Biological Resources. Challenges in the Conservation of Biological Resources, 2019.
• Assessing the contribution of Indian zoos to achieving international biodiversity conservation goals. Discover Conservation, 2025.
• Biobanks, offspring fitness and the influence of developmental plasticity in conservation biology. Animal Reproduction, 2023.
• Conservation biology research priorities for 2050: A Central-Eastern European perspective. Biological Conservation, 2021.
• Conservation after biodiversity: An analysis of Michael E. Soulé's ‘What is Conservation Biology?’. Biological Conservation, 2023.
• Strange natures: Conservation in the era of synthetic biology. Strange Natures Conservation in the Era of Synthetic Biology, 2021.
• Marine Conservation Biology: THE SCIENCE OF MAINTAINING THE SEA’S BIODIVERSITY. Marine Conservation Biology the Science of Maintaining the Seas Biodiversity, 2013.

This article is educational and does not replace institutional policy, professional advice, or applicable safety and regulatory requirements.