Conservation Genetics

Shweta Singh | Senior Research Fellow | Wildlife Institute of India

What is Conservation Genetics?

You may be curious about a Career in Conservation Genetics. One should first understand What a Career in Conservation Genetics entails before investing time and effort to figure out How to start a Career in Conservation Genetics. Just like you would normally not trust a non Doctor with names of medicines, you should also not trust opinions about Conservation Genetics from non professionals.

Senior Research Fellow Shweta Singh is an experienced professional with 5 years & 8 months in Conservation Genetics. Here is how Senior Research Fellow Shweta Singh detailed Conservation Genetics:

Conservation genetics is an interdisciplinary subfield of Population Genetics that aims to understand the dynamics of genes in populations principally to avoid extinction. Therefore, it applies genetic methods to the conservation and restoration of biodiversity.

How Senior Research Fellow Shweta Singh got into Conservation Genetics?

After completing my B Sc & M Sc in Zoology from Dayalbagh Educational Institute, Agra, I joined Wildlife Institute of India (WII) in 2013 in All India Tiger Monitoring Project. I am working in Genetic Connectivity of Large Carnivores and I am a Senior Research Fellow at WII.

Senior Research Fellow Shweta Singh 's Talk on Conservation Genetics

The Journey of Conservation Genetics What Is Conservation Genetics Genetics & Conservation Genetics & Conservation is the scientific field that applies genetic principles and techniques to the preservation and management of biodiversity. It focuses on understanding genetic diversity within and between species to inform strategies that maintain healthy populations and prevent extinction, supporting long-term ecosystem stability and resilience. Genetics & Conservation plays a crucial role in modern conservation efforts by providing insights into the genetic health of populations, identifying threats such as inbreeding or loss of diversity, and guiding effective management decisions. For professionals in Conservation Genetics, this field enables the development of targeted strategies to protect endangered species and restore habitats. The benefits include preserving genetic diversity, which is essential for species’ adaptability to environmental changes, preventing the negative effects of inbreeding that can compromise population viability, and informing breeding or reintroduction programs to maximize the chances of long-term survival. By integrating genetic data into conservation planning, professionals can make evidence-based decisions that enhance the effectiveness of conservation initiatives. A conservation geneticist working to save an endangered population of cheetahs might collect DNA samples from individuals across different reserves. By analyzing genetic markers, the geneticist can assess the level of genetic diversity and identify signs of inbreeding or genetic bottlenecks. This information allows conservationists to design breeding programs that pair individuals with the greatest genetic differences, thereby increasing genetic diversity and reducing the risk of inherited health problems. Additionally, the genetic data can inform decisions about translocating individuals between reserves to maintain gene flow. Through these efforts, the population’s long-term viability is improved, demonstrating how genetics and conservation work together to support species survival in the wild. Education Formal Education Formal education refers to structured, systematic learning that takes place within recognized institutions such as schools, colleges, and universities. It follows a prescribed curriculum, is delivered by qualified instructors, and leads to officially recognized qualifications. In Conservation Genetics, formal education provides the essential academic and technical foundation for professional practice and research. Understanding formal education is crucial for anyone entering or advancing in Conservation Genetics because it equips individuals with the scientific principles, analytical skills, and ethical frameworks necessary for the field. Through formal education, professionals gain a comprehensive grasp of genetics, ecology, statistics, and conservation policy, all of which are vital for addressing complex biological challenges. This foundational knowledge enables practitioners to design effective research studies, interpret genetic data accurately, and make informed decisions that impact biodiversity conservation. Over the long term, a strong formal education enhances career prospects, fosters critical thinking, and supports ongoing professional development, ensuring that conservation geneticists remain adaptable and effective in a rapidly evolving scientific landscape. Consider a conservation geneticist working to protect an endangered species. Drawing on their formal education, they apply advanced genetic analysis techniques learned in university to assess genetic diversity within the population. Their understanding of population genetics, acquired through structured coursework, allows them to interpret DNA sequencing results and identify genetic bottlenecks. This theoretical knowledge, combined with practical laboratory experience, guides their recommendations for breeding programs and habitat management. By relying on the rigorous training and ethical standards instilled through formal education, the professional ensures that their conservation strategies are scientifically sound and aligned with best practices, ultimately contributing to the long-term survival of the species. Lab Techniques Lab Techniques encompass the standardized methods, protocols, and procedures used to conduct scientific experiments and analyses in a laboratory setting. In Conservation Genetics, these techniques are essential for extracting, amplifying, and analyzing genetic material, ensuring data accuracy and reliability, and underpinning both research and applied conservation efforts. A thorough understanding of lab techniques is indispensable for anyone pursuing a career in Conservation Genetics. Mastery of these methods enables professionals to accurately collect, process, and interpret genetic data from diverse species, which is crucial for assessing genetic diversity, population structure, and evolutionary relationships. This foundational knowledge ensures that genetic analyses are performed with precision, minimizing errors that could compromise conservation decisions. Over the long term, proficiency in lab techniques enhances a professional’s credibility, opens doors to advanced research opportunities, and allows for meaningful contributions to conservation policy and management. As technology evolves, those with strong lab skills are better equipped to adapt to new methodologies, ensuring their continued relevance and effectiveness in the field. Imagine a conservation geneticist tasked with assessing the genetic health of an endangered amphibian population. In their daily work, they collect tissue samples from the field and bring them to the laboratory. Using their expertise in lab techniques, they extract DNA, perform polymerase chain reaction (PCR) amplification, and run gel electrophoresis to visualize genetic markers. Their careful adherence to protocols ensures that the results are accurate and reproducible. The genetic data they generate informs conservation strategies, such as identifying individuals for breeding programs or monitoring genetic diversity over time. This practical application of lab techniques directly impacts the success of conservation initiatives, demonstrating how theoretical knowledge translates into real-world conservation outcomes. Ecology & Field Knowledge Ecology & Field Knowledge encompasses the understanding of interactions among organisms and their environments, as well as the practical skills needed to observe, sample, and analyze these relationships in natural settings. This expertise is essential in Conservation Genetics, bridging theoretical genetic insights with real-world ecological contexts to inform effective conservation strategies. A solid grasp of Ecology & Field Knowledge is crucial for anyone pursuing a career in Conservation Genetics because it provides the context in which genetic data becomes meaningful. Professionals must understand species’ habitats, behaviors, and ecological pressures to interpret genetic variation accurately and design effective conservation interventions. This knowledge allows practitioners to identify critical habitats, recognize threats such as habitat fragmentation, and assess the impact of environmental changes on genetic diversity. Over the long term, expertise in ecology and fieldwork ensures that conservation geneticists can collaborate effectively with ecologists, land managers, and policymakers, making their research more impactful and actionable in real-world conservation efforts. Consider a conservation geneticist working to protect an endangered amphibian species in a fragmented wetland ecosystem. Their field knowledge enables them to identify breeding sites, migration corridors, and environmental stressors affecting the population. By integrating ecological observations with genetic sampling, they can determine whether isolated populations are experiencing inbreeding or loss of genetic diversity. This combined approach informs management decisions, such as habitat restoration or the creation of wildlife corridors, ensuring that genetic recommendations are grounded in the species’ ecological realities. Through this daily application of both ecological understanding and field skills, the conservation geneticist maximizes the effectiveness of their conservation strategies and contributes to the long-term survival of the species. Zoology Zoology is the scientific study of animals, encompassing their biology, physiology, behavior, classification, and distribution. It provides a comprehensive understanding of animal life, from molecular mechanisms to ecosystem interactions. In Conservation Genetics, zoology forms a crucial academic and professional foundation, enabling practitioners to contextualize genetic data within broader biological and ecological frameworks. A solid grasp of zoology is essential for anyone pursuing a career in conservation genetics because it bridges the gap between genetic information and the living organisms it represents. Understanding animal anatomy, physiology, and behavior allows professionals to interpret genetic data in light of species-specific needs and ecological roles. This knowledge is vital for designing effective conservation strategies, such as identifying critical habitats, understanding breeding systems, and predicting responses to environmental changes. Over the long term, expertise in zoology enhances a professional’s ability to communicate across disciplines, collaborate with ecologists and wildlife managers, and adapt to emerging challenges in biodiversity conservation. Consider a conservation geneticist working to preserve an endangered amphibian species. Their zoological knowledge enables them to recognize the species’ unique breeding behaviors and habitat requirements, which are critical for collecting representative genetic samples. By understanding the animal’s life cycle and ecological interactions, the geneticist can accurately interpret genetic diversity patterns and identify population bottlenecks. This integrated approach informs the development of targeted management plans, such as habitat restoration or captive breeding programs, ensuring that genetic recommendations are grounded in the species’ biological realities. Daily, the professional’s zoological expertise guides fieldwork decisions, data analysis, and collaboration with other conservation specialists, ultimately improving the effectiveness of genetic conservation efforts. Skills Commitment Commitment is the unwavering dedication to a cause, project, or goal, demonstrated through consistent effort, perseverance, and a willingness to overcome obstacles. In Conservation Genetics, commitment is vital because the field demands long-term focus, resilience in the face of setbacks, and a deep sense of responsibility toward preserving biodiversity and supporting sustainable ecosystems. Commitment directly enhances performance in Conservation Genetics by ensuring that professionals remain focused on their research objectives, even when progress is slow or results are uncertain. Clients and employers highly value this trait because it signals reliability, trustworthiness, and the ability to see complex projects through to completion. Conservation initiatives often span years or even decades, requiring professionals who are not easily discouraged by challenges such as funding shortages, fieldwork difficulties, or inconclusive data. Cultivating commitment involves setting clear personal and professional goals, regularly reflecting on the broader impact of one’s work, and building resilience through continuous learning and adaptation. Over time, these practices help individuals maintain motivation and contribute meaningfully to the advancement of conservation efforts. Imagine a conservation geneticist working to restore a critically endangered species whose population is fragmented and declining. Despite years of painstaking genetic analysis, habitat restoration, and collaboration with local communities, progress remains slow and setbacks are frequent. In this scenario, the professional’s commitment is tested repeatedly, as funding cycles fluctuate and public interest wanes. However, their steadfast dedication enables them to persist, adapt research strategies, and maintain partnerships. Eventually, their efforts yield a breakthrough: the identification of a genetic bottleneck that, once addressed, leads to a measurable increase in the species’ population. Without unwavering commitment, the project might have been abandoned, but perseverance ensures both scientific success and meaningful conservation outcomes. Reading & Writing Skills Reading & Writing Skills encompass the ability to comprehend complex scientific literature, synthesize information, and communicate findings clearly through written documents. In Conservation Genetics, these skills enable professionals to stay updated with research, interpret genetic data, and share insights with peers, stakeholders, and policymakers, forming a foundation for effective collaboration and decision-making. Strong reading and writing abilities directly enhance a conservation geneticist’s performance by enabling them to interpret scientific studies, draft grant proposals, and publish research findings. Employers and clients highly value these skills because clear communication ensures that complex genetic concepts are accessible to diverse audiences, including non-specialists and funding bodies. To cultivate these skills, professionals should engage in regular reading of scientific journals, practice summarizing articles, and seek feedback on their writing. Participating in writing workshops and collaborating with colleagues on reports or publications also fosters continuous improvement. Over time, these efforts build confidence and proficiency, allowing conservation geneticists to convey their expertise effectively and contribute meaningfully to their field. Imagine a conservation geneticist tasked with assessing the genetic diversity of an endangered species to inform a recovery plan. The professional must review recent studies on similar species, extract relevant methodologies, and interpret complex genetic data. They then synthesize this information into a comprehensive report for a government agency, ensuring that technical details are presented in an accessible manner for decision-makers. Their ability to read and understand scientific literature allows them to adopt best practices, while their writing skills ensure that recommendations are clear and actionable. In this scenario, strong reading and writing skills are crucial for bridging the gap between scientific research and practical conservation action, ultimately influencing policy and species recovery efforts. Data Analysis Data analysis is the systematic process of inspecting, cleaning, transforming, and modeling data to discover useful information, draw conclusions, and support decision-making. In conservation genetics, data analysis enables professionals to interpret genetic data, assess population health, and make informed recommendations for species conservation and management strategies. Mastering data analysis significantly enhances a conservation geneticist’s ability to interpret complex genetic datasets, identify trends, and generate actionable insights. Employers and clients highly value this skill because it leads to more accurate assessments of genetic diversity, population structure, and threats to species survival. Effective data analysis underpins evidence-based decision-making, ensuring that conservation actions are both scientifically sound and impactful. To cultivate this skill, professionals should engage in continuous learning through specialized courses, hands-on experience with statistical software, and collaboration with interdisciplinary teams. Over time, regular practice and staying updated with the latest analytical techniques help refine one’s ability to handle increasingly complex datasets and emerging challenges in conservation genetics. Imagine a conservation geneticist tasked with evaluating the genetic diversity of an endangered amphibian population fragmented by habitat loss. By applying data analysis to genetic samples collected from various subpopulations, the professional identifies patterns of inbreeding and gene flow. This analysis reveals that certain subpopulations are genetically isolated and at risk of decline. Armed with these insights, the geneticist recommends targeted habitat corridors to restore connectivity and enhance genetic exchange. The ability to analyze and interpret genetic data not only pinpoints the root of the conservation issue but also guides effective, science-based interventions that improve the species’ long-term survival prospects. Research & Observation Research & Observation is the systematic process of gathering, analyzing, and interpreting data through careful study and attentive monitoring of biological systems. In Conservation Genetics, this skill enables professionals to uncover genetic patterns, assess biodiversity, and identify threats to species survival, forming the foundation for effective conservation strategies and evidence-based decision-making. Mastering Research & Observation elevates a conservation geneticist’s ability to detect subtle genetic variations, monitor population trends, and anticipate environmental impacts on species. Employers and clients highly value this skill because it ensures that recommendations and interventions are grounded in robust, real-world data rather than assumptions. Over time, professionals can cultivate this skill by engaging in fieldwork, collaborating with multidisciplinary teams, and staying updated with the latest scientific methodologies. Regularly reviewing scientific literature, participating in workshops, and reflecting on past research outcomes also contribute to honing observational acuity and research rigor, ultimately leading to more accurate and impactful conservation outcomes. Imagine a conservation geneticist tasked with protecting a critically endangered amphibian species. Through meticulous research and observation, the professional collects genetic samples from various populations and monitors their habitats for environmental changes. By analyzing genetic diversity and observing breeding behaviors, the geneticist identifies a previously undetected population bottleneck caused by habitat fragmentation. This insight enables the development of targeted habitat restoration and breeding programs, directly addressing the genetic risks and improving the species’ chances of survival. Without rigorous research and observation, such critical issues might remain hidden, underscoring the indispensable role this skill plays in achieving conservation success. DNA Extraction & PCR DNA Extraction & PCR refers to the laboratory processes of isolating genetic material from biological samples and amplifying specific DNA sequences using Polymerase Chain Reaction. In Conservation Genetics, these techniques are fundamental for analyzing genetic diversity, identifying species, and monitoring populations, forming the backbone of informed conservation strategies and research. Mastery of DNA Extraction & PCR significantly enhances a conservation geneticist’s ability to generate reliable genetic data, which is crucial for making evidence-based decisions about species management and conservation planning. Employers and clients highly value this skill because it ensures accurate identification of species, detection of genetic bottlenecks, and monitoring of population health. Developing proficiency requires hands-on laboratory experience, familiarity with various extraction protocols, and a solid understanding of PCR optimization and troubleshooting. Over time, professionals can refine their technique by staying updated with advances in molecular biology, participating in specialized workshops, and collaborating with experienced colleagues. This continuous learning ensures that their genetic analyses remain robust and relevant to evolving conservation challenges. Imagine a conservation geneticist working to protect an endangered amphibian species whose population is suspected to be declining due to habitat fragmentation. The professional collects tissue samples from different habitats and uses DNA Extraction & PCR to analyze genetic variation across populations. By amplifying specific genetic markers, they reveal that certain isolated groups have dangerously low genetic diversity, making them more vulnerable to disease and environmental changes. This critical information enables conservation managers to prioritize habitat corridors and targeted breeding programs, directly influencing the species’ survival. Without the ability to efficiently extract DNA and perform PCR, such precise and actionable insights would not be possible, underscoring the indispensable role of these techniques in conservation genetics. Positives Travelling & Exploring Travelling & Exploring in conservation genetics means venturing into diverse habitats, from remote rainforests to arid deserts, to study and protect genetic diversity in wildlife. This aspect involves fieldwork, cultural immersion, and discovering new environments, which enriches scientific understanding and personal growth, making the profession dynamic, adventurous, and deeply rewarding. The opportunity to travel and explore is a cornerstone of job satisfaction in conservation genetics. Engaging with different ecosystems and communities allows professionals to witness firsthand the challenges and triumphs of conservation efforts. This constant exposure to new environments fuels curiosity, broadens perspectives, and fosters adaptability. Each journey brings unique learning experiences, from collecting genetic samples in the wild to collaborating with local experts. These adventures not only enhance scientific skills but also nurture a profound connection to the natural world. The sense of purpose derived from contributing to global biodiversity conservation, while experiencing the beauty and diversity of our planet, makes every day in this field both meaningful and inspiring. Imagine a conservation geneticist traveling to the Galápagos Islands to study the genetic diversity of endangered tortoises. Each day begins with a boat ride to a different island, where the scientist treks through volcanic landscapes, observes unique wildlife, and collects DNA samples. Along the way, they interact with local conservationists and learn about traditional ecological knowledge. The thrill of discovery, combined with the satisfaction of contributing to species preservation, makes the experience unforgettable. This hands-on exploration not only advances scientific research but also deepens the geneticist’s appreciation for the interconnectedness of life, reinforcing their passion for conservation and the value of their work. Studying Different Species Studying Different Species involves examining the genetic diversity, evolutionary relationships, and unique adaptations of a wide range of organisms, from plants and animals to fungi and microbes. This practice allows conservation geneticists to understand how species interact with their environments and each other, informing strategies to preserve biodiversity and ecosystem health. The opportunity to study different species is a cornerstone of conservation genetics, offering professionals a dynamic and intellectually stimulating career. Engaging with a diverse array of organisms fosters continuous learning and curiosity, as each species presents unique genetic puzzles and conservation challenges. This diversity not only keeps daily work exciting but also enhances problem-solving skills, as solutions must be tailored to the specific needs of each species and ecosystem. The exposure to various life forms broadens scientific perspective and deepens appreciation for the interconnectedness of life on Earth. As a result, conservation geneticists often experience a profound sense of purpose and fulfillment, knowing their work directly contributes to the survival and resilience of countless species. Imagine a conservation geneticist working in a national park, tasked with protecting both an endangered bird and a rare wildflower. Each species requires distinct genetic analyses and conservation strategies, from studying gene flow in bird populations to assessing genetic diversity in plant seeds. The professional collaborates with botanists, ornithologists, and local communities, learning about the unique ecological roles and evolutionary histories of each species. This daily immersion in the wonders of biodiversity not only sharpens scientific expertise but also instills a deep sense of accomplishment. Witnessing the positive impact of their work on multiple species, the conservation geneticist feels inspired and motivated, knowing their efforts help safeguard the intricate tapestry of life. Job Satisfaction Job satisfaction is the sense of fulfillment, pride, and contentment that arises when individuals find their work meaningful, feel valued, and see tangible results from their efforts. In conservation genetics, job satisfaction is deeply rooted in the knowledge that one’s work directly contributes to preserving biodiversity and protecting endangered species, making each day purposeful. The positive aspect of job satisfaction in conservation genetics is significant because it fuels motivation, resilience, and long-term commitment to the field. Professionals in this area often witness the direct impact of their research and interventions on the survival of species and the health of ecosystems. This daily connection to meaningful outcomes fosters a sense of pride and accomplishment, which not only enhances personal well-being but also encourages continuous learning and professional growth. The knowledge that their expertise is making a real difference in the world helps conservation geneticists remain passionate and engaged, even when facing complex challenges or setbacks, ultimately leading to a more rewarding and sustainable career. Imagine a conservation geneticist working on a project to restore a critically endangered population of native fish. After months of genetic analysis, fieldwork, and collaboration with local communities, the scientist witnesses the successful reintroduction of genetically diverse individuals into their natural habitat. Observing the thriving population and knowing that their work has directly contributed to the species’ recovery brings immense satisfaction. The gratitude expressed by conservation partners and the visible improvement in ecosystem health reinforce the geneticist’s sense of purpose and fulfillment. This real-world impact not only validates their expertise but also inspires them to continue their efforts, demonstrating how job satisfaction is woven into the very fabric of a career in conservation genetics. Challenges No Fixed Timings In Conservation Genetics, "No Fixed Timings" refers to the unpredictable and irregular work hours dictated by the needs of fieldwork, laboratory experiments, and urgent conservation crises. Professionals must often adapt to early mornings, late nights, or sudden schedule changes, making it a demanding aspect of the profession. The lack of fixed timings in Conservation Genetics can disrupt personal routines, challenge work-life balance, and increase stress levels. Field sampling may depend on animal behavior or environmental conditions, while laboratory analyses can require attention at odd hours. This unpredictability demands resilience and adaptability, as professionals must remain flexible and responsive to shifting priorities. Successful conservation geneticists manage this constraint by developing strong organizational skills, setting clear boundaries when possible, and prioritizing self-care. They also rely on supportive teams and open communication to share workloads and accommodate unexpected changes. By embracing the dynamic nature of their work, they turn unpredictability into an opportunity for growth and innovation, ensuring that both scientific goals and personal well-being are maintained. Consider a conservation geneticist working on a project to monitor the genetic diversity of an endangered nocturnal mammal. The fieldwork requires collecting samples during the animals’ active hours, which often means working through the night and sleeping during the day. Despite the irregular schedule, the professional maintains a healthy routine by planning rest periods in advance and coordinating with colleagues to share night shifts. They use downtime during the day for data analysis and administrative tasks, ensuring productivity is maintained. By staying flexible and communicating openly with their team, the geneticist successfully balances the demands of unpredictable hours with personal well-being, demonstrating how adaptability and teamwork can overcome the challenge of no fixed timings in conservation genetics. Tough Work Environment A tough work environment in Conservation Genetics refers to the combination of physically demanding fieldwork, limited resources, unpredictable conditions, and emotional strain from witnessing environmental degradation. This environment is demanding because it requires adaptability, perseverance, and the ability to work effectively despite logistical, environmental, and psychological challenges that are often outside one’s control. The tough work environment in Conservation Genetics can significantly affect daily routines by introducing unpredictability, long hours, and exposure to harsh or remote locations. Professionals may face isolation, limited access to equipment, and the emotional toll of slow progress or setbacks in conservation outcomes. This setting demands resilience, as setbacks are common and resources are often stretched thin. Successful professionals manage these constraints by fostering strong support networks, maintaining flexibility in their plans, and focusing on incremental progress. They also prioritize self-care and open communication with colleagues to share burdens and celebrate small victories, which helps sustain motivation and well-being in the face of ongoing challenges. Consider a conservation geneticist working to preserve an endangered amphibian species in a remote rainforest. The field site is accessible only by days of hiking, and unpredictable weather frequently disrupts research schedules. Equipment failures and limited communication with the outside world add to the stress. Despite these obstacles, the geneticist adapts by developing backup plans, collaborating closely with local communities for logistical support, and maintaining regular virtual check-ins with their research team when possible. By embracing flexibility, seeking help when needed, and celebrating each successful data collection trip, the professional not only advances their research but also builds resilience and a sense of accomplishment, demonstrating how to thrive in a tough work environment. Fund Raising Fund raising in Conservation Genetics refers to the ongoing process of securing financial resources to support research, fieldwork, and conservation initiatives. This task is demanding because it requires not only scientific expertise but also strong communication, networking, and grant-writing skills to compete for limited funding in a highly competitive environment. The challenge of fund raising significantly shapes the daily routines of conservation geneticists, often dictating the scope and continuity of their projects. Limited funding can restrict access to advanced technologies, fieldwork opportunities, and personnel, leading to delays or scaled-back research. This persistent uncertainty demands resilience, adaptability, and creative problem-solving from professionals. Successful individuals in the field proactively diversify their funding sources, build collaborative networks, and continuously refine their grant-writing abilities. They also engage with stakeholders and the public to demonstrate the value of their work, thereby increasing their chances of attracting support. By balancing scientific rigor with strategic outreach and communication, these professionals manage to sustain their research despite financial constraints. Consider a conservation geneticist working to preserve an endangered amphibian species whose habitat is rapidly declining. Facing repeated grant rejections, the professional broadens their approach by partnering with local conservation organizations and universities, pooling resources and expertise. They also launch a public awareness campaign, highlighting the species’ ecological importance and leveraging social media to reach a wider audience. Through these efforts, they attract small donations from the public and secure in-kind support from local businesses. This diversified funding strategy enables the continuation of critical genetic monitoring and habitat restoration work, demonstrating how adaptability and community engagement can overcome the formidable challenge of fund raising in conservation genetics. A Day Of Genetics & Conservation The hum of a centrifuge blends with the distant calls of birds outside the lab window as the day begins for a conservation genetics professional. Here, the boundaries between fieldwork and laboratory science blur, and each hour is a careful balance of precision, discovery, and collaboration. Whether extracting DNA from rare plant samples or analyzing genetic diversity in endangered animal populations, every moment is driven by the urgent need to protect biodiversity. The pace is brisk, the stakes are high, and the environment is a unique mix of high-tech analysis and deep connection to the natural world. As the sun rises, the conservation genetics practitioner arrives at the lab, greeted by the familiar scent of ethanol and the soft glow of computer monitors. The early morning is dedicated to calibrating sensitive equipment, reviewing the previous day’s sequencing results, and preparing fresh reagents. This is a time for focused solitude, where meticulous attention ensures that every pipette and PCR machine is ready for the day’s work. Reviewing field notes and sample logs, the practitioner double-checks that all collected specimens are properly labeled and stored, setting the stage for a productive day. By mid-morning, the lab is alive with activity as the core scientific work begins. The practitioner dons gloves and lab coat, moving efficiently between benches to extract DNA from tissue samples collected in the field. This is the most intense and technically demanding part of the day, requiring steady hands and unwavering concentration. As samples are processed, data begins to flow from sequencers, revealing the genetic secrets of threatened species. The practitioner monitors results in real time, troubleshooting any anomalies and ensuring that the integrity of the data is uncompromised. After a quick lunch, the afternoon shifts to collaboration and execution. The practitioner joins colleagues—ecologists, bioinformaticians, and conservation managers—in a meeting room or over a video call. Together, they analyze the morning’s genetic data, discussing patterns of diversity, population structure, and potential conservation interventions. This is a dynamic exchange of ideas, where scientific findings are translated into actionable strategies for habitat restoration or species management. The practitioner’s expertise is crucial in interpreting complex genetic information and guiding the team toward evidence-based decisions. As the day winds down, the practitioner turns to documentation and planning. Lab notebooks are updated with detailed observations, and reports are drafted for stakeholders and funding agencies. There is time for a final review of data, troubleshooting any unresolved issues, and setting up experiments for the next day. The practitioner reflects on the day’s progress, noting successes and challenges, and outlines priorities for tomorrow—whether it’s preparing for a field expedition or designing new genetic assays. The lab grows quiet again, but the sense of purpose remains, fueled by the knowledge that today’s work brings the world one step closer to conserving its irreplaceable biodiversity.

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Links for this Talk

Senior Research Fellow Shweta Singh 's LifePage:

[LifePage]
https://www.lifepage.in/page/shwetasingh

LifePage Career Talk on Conservation Genetics

[Career]
https://www.lifepage.in/careers/conservation-genetics

[Full Talk]
https://lifepage.app.link/20180724-0002

[Trailer]
https://www.youtube.com/watch?v=4gwZOw4Qeh8

(Conservation Genetics, Shweta Singh, Wildlife Institute of India, WII, Senior Research Fellow, Conservasionist, Ecology, Genes, PCR, DNA)

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Research Assistant & Content Writer | Various Assignments

[ 7 years & 1 month Experience ]

Wildlife conservation is the practice of protecting wild plant, animal species and their habitat. Wildlife plays an important role in balancing the ecosystem and provides stability to different natural processes of nature. The goal of wildlife conservation is to ensure that nature will be around for future generations to enjoy and also to recognize the importance of wildlife and wilderness for humans and other species alike.

"After my education, I started working on Wildlife Conservation. I have worked on many wildlife research projects in many states like in Assam, Uttarakhand , Madhya Pradesh, Karnataka and Kerala."

Evolutionary Biology

Vishnupriya Kolipakam
Scientist C | Wildlife Institute of India

[ 5 years & 7 months Experience ]

Evolutionary biology is the subfield of biology that studies the evolutionary processes that produced the diversity of life on Earth, starting from a single common ancestor. These processes include natural selection, common descent, and speciation.

"I have done B Sc in Biotechnology) from Bharathiar University and M Sc in Bioscience from University of Leads, UK. I then did Ph D in Evolutionary Biology from Maxplanck Institute, Germany & Netherlands. I am a population geneticist with a strong interest in Evolutionary Biology, Molecular Anthropology and Conservation Genetics. For my PhD from Max Planck Institute (Nijmegen), I looked at incorporating information on genes, language and culture in a consilient framework towards a holistic approach to understanding pre-history. I used population genetic modelling, coalescent simulations, forward simulation techniques and phylogenetics to understand the pre-history of Polynesian and Dravidian Societies. My research interests are largely interdisciplinary, working at the interface of evolutionary biology, anthropology and conservation biology. I worked on the mitochondrial DNA stratigraphy of Islands of Southeast Asia (University of Leeds, United Kingdom), population genetics of northeastern hill tribes, and molecular ecology of large carnivores(National Centre for Biological Sciences , Bangalore), and the anthropological and evolutionary nature of perceptions of human wildlife conflict in semi-arid areas of India, (Centre for Ecological Sciences, Indian Institute of Science). I have been associated with the Monitoring Tigers, Co-Predators, Prey and their Habitat project here at the Wildlife Institute. My role was to lead the genetic component of the project, wherein we used molecular techniques to understand the genetic diversity of large carnivores across the country. I continue to contribute to this aspect of the project. I am currently associated with projects investigating the population genetic structure of large carnivores, characterization of genetic diversity of Asiatic lions, and population genetic characteristics and phylogeography of the Gangetic river dolphin. My interest lies in exploring the evolutionary trajectories of biological systems, adaptive functions and their consequences, and the use of this information in making scientifically sound conservation interventions. I am specialized in Evolutionary Biology, Population Genetics, Phylogenetics, and Molecular Anthropology. I am Scientist C and Faculty at Wildlife Institute of India."

Sustainability Consulting

Alok Gupta
Founder & CEO | Envecologic

[ 1 year & 7 months Experience ]

Sustainability consultancy entails providing innovative and smart strategies to businesses on how to make their products sustainable (usually in an ecological sense) for example, providing advice on engineering challenges to meet modern-day building standards and norms such as the LEED Green Building Rating System. Sustainability consultants might also advise a business on how to achieve carbon neutrality.

"After completing my education, I joined Boston Strategies International, a US-based company, where I served as Energy Economist & Country Representative. In December 2012, I started my own venture, Envecologic, which focuses on education & training, research and advisory services in the areas of environmental sustainability."

Wildlife Crime

Abdullah A Sadique
Wildlife Inspector | Bangladesh Forest Department

[ 6 years & 10 months Experience ]

Wildlife crime is an area of study typically defined from a legalistic perspective as an act in contravention of laws protecting wildlife. These crimes occur both within and across national borders and may include trafficking in wildlife or wildlife products.

"After completing my masters I started working as Wildlife Inspector to safeguard the wildlife and biodiversity. I am currently working in Bangladesh Forest Department."

Ecotoxicology

Anju Baroth
Scientist C | Wildlife Institute of India

[ 11 years & 9 months Experience ]

Ecotoxicology is the study of the effects of toxic chemicals on biological organisms, especially at the population, community, ecosystem, and biosphere levels. Ecotoxicology is a multidisciplinary field, which integrates toxicology and ecology.

"I did B Sc in Botany, Zoology & Chemistry and M Sc in Environmental Science from University of Rajasthan. I then did a Ph D in Environmental Toxicology. I joined General Electric as Toxicity Expert and worked for 2 years. I then moved to General Elastic Plastics as Life Cycle and Sustainability Expert and worked for 5 years. I am an Ecotoxicologist and Scientist C at Wildlife Institute of India."

Conservation Genetics

Dr S K Gupta
Scientist E | Wildlife Institute of India

[ 16 years & 7 months Experience ]

Conservation genetics is an interdisciplinary subfield of Population Genetics that aims to understand the dynamics of genes in populations principally to avoid extinction. Therefore, it applies genetic methods to the conservation and restoration of biodiversity.

"After completing B Sc in Botany, Zoology & Chemistry, I did Masters in Biotechnology from Meerut. Post that, I did Ph D in Wildlife Science from Saurashtra University. After that, I then worked as a Scientist at Dr Surapaneni Genomic Solutions for 2 years. I joined Wildlife Institute of India in 2008 as a Scientist C and am now I am a Scientist E."

Ecological Conservation

Dr Harshwanti Bisht
Deputy Director | Directorate of Higher Education

[ 41 years Experience ]

Ecological Conservation is the management of nature and of Earth's biodiversity with the aim of protecting species, their habitats, and ecosystems from excessive rates of extinction and the erosion of biotic interactions.

"I am a mountaineer. In 1981, I along with two other women became the first three women to summit the main peak of Nanda Devi (7,816 m). I was also a member of the Indian expedition to Mount Everest in 1984 and was awarded the Arjuna Award and Directorate of Higher Education, Government of UP Gold Medal. I am the Founder of Save Gangotri Project. I was awarded the Sir Edmund Hillary Medal for my philanthropic achievements and work to improve conditions in the Gangotri area of Uttarakhand, at the headwaters of the Ganges over the past 25 years. I am Deputy Director (Higher education) & Joint Director (RUSA) and actively working for the eco-conservation of Gangotri in Garhwal Himalaya."

Biodiversity Conservation

Ruchi Badola
Scientist G & Senior Professor | Wildlife Institute of India

[ 25 years & 7 months Experience ]

Conservation biology is the management of nature and of Earth's biodiversity with the aim of protecting species, their habitats, and ecosystems from excessive rates of extinction and the erosion of biotic interactions.

"After completing B A & M A in Economics, I did Ph D in Economics from Jiwaji University. After that, I joined Wildlife Institute of India in 1993 and have been there for 25 years now. I am Scientist G & Senior Professor there."

High Altitude Ecology

S Sathyakumar
Scientist G | Wildlife Institute of India

[ 30 years & 7 months Experience ]

Ecology & Conservation is the branch of ecology and evolutionary biology that deals with the preservation and management of biodiversity and natural resources. It's goal is to find ways to conserve species, habitats, landscapes, and ecosystems as quickly, as efficiently, and as economically as possible.

"After completing B Sc in Zoology and M Sc in Wildlife Biology, I joined Wildlife Institute of India in 1988 as a Research Fellow. I then decided to pursue Ph D in Wildlife Science. I have experience of studying animals in Himachal Pradesh, J&K, and Sikkim & Trans-Himalayan region of Ladakh. I am a Scientist G at WII."

Natural Resource Management

K Ramesh
Scientist | Wildlife Institute of India

[ 23 years & 7 months Experience ]

Natural resource management refers to the management of natural resources such as land, water, soil, plants and animals, with a particular focus on how management affects the quality of life for both present and future generations.

"I have a Master's degree in Wildlife Biology from AVC College (Bharathidasan University), Tamil Nadu and a Ph D degree in Forest Ecology and Environment from Wildlife Institute of India (a Research Center of Forest Research Institute University, Dehradun). I have been working with WII since 1995; earlier as Research Fellow and joined the faculty in 2008. Prior to joining the faculty, I was with the World Pheasant Association-UK as a Post Doctoral Fellow for four years (2005-2008), undertaking a collaborative research project with WII on pheasants and partridges in northwest India. My professional interests include Landscape Ecology, Remote Sensing and GIS, Quantitative Methods, Species Distribution Models, Biostatistics, Radio-Telemetry, Wildlife Population Estimation and Monitoring. I have research and conservation experiences on birds and mammals of the Western Himalaya, Shivalik-Terai Landscape and Central India. Presently involved in diversity of projects that include Reintroduction and Monitoring of Tiger Population in Panna Tiger Reserve (Madhya Pradesh), Conservation Breeding and Reintroduction of Western Tragopan in Himachal Pradesh, Application of Wireless Sensor Networks for Forest and People Protection, Integration UAV (Drone) for wildlife research and management, and Climate Change Effects on Riverine Forests and Indicator Species along the Ganges. I have been a member of IUCN/SSC/Galliformes Specialist Group, International Association for Landscape Ecology, International Society for Restoration Ecology, etc. In addition to Gold Medal for my Graduation as well as Post-Graduation Courses, I received prestigious Distinguished Foreign Scholar Award by the US Regional Association of the International Association for Landscape Ecology and NASA-MSU Professional Enhancement Award by National Aeronautics and Space Administration, and Michigan State University, USA. I have traveled widely and am interested in sports."

Plant Ecology & Conservation

Dr G S Rawat
Dean | Wildlife Institute of India

[ 34 years & 9 months Experience ]

Plant ecology is a subdiscipline of ecology which studies the distribution and abundance of plants, the effects of environmental factors upon the abundance of plants, and the interactions among and between plants and other organisms. Conservation is the preservation or efficient use of resources in an efficient or ethical manner.

"I did Bachelors and Masters in Botany from Kumaon University, Nainital. I also did Ph D in Taxonomy & Ethnobotany from the same college. I taught Plant Ecology and Taxonomy at Kumaon University. I also served at Botanical Survey of India for some time. I joined Wildlife Institute of India in 1986 as a Professor and have held various positions at the Institute since then. I am Dean at Wildlife Institute of India."

Ecology & Conservation

Raman Kumar
Ecologist | Nature Science Initiative

[ 17 years & 10 months Experience ]

Ecology is the branch of biology which studies the interactions among organisms and their environment. Objects of study include interactions of organisms with each other and with abiotic components of their environment.

"After completing my graduation from HNB Garhwal University, I did post graduation from FRI, Dehradun. After that, I did my PhD from Manipal University. In 2001, I started working as an ecologist and since then I have been working for various institutions and projects."

Sustainability & LCA

Anju Baroth
Lead Engineer | General Electric

[ 9 years Experience ]

Sustainability is the process of change, in which the exploitation of resources, the direction of investments, the orientation of technological development and institutional change are all in harmony and enhance both current and future potential to meet human needs and aspirations. Life-cycle assessment is a technique to assess environmental impacts associated with all the stages of a product's life from raw material extraction through materials processing, manufacture, distribution, use, repair and maintenance, and disposal or recycling.

"I did B Sc in Botany, Zoology & Chemistry and M Sc in Environmental Science from University of Rajasthan. I then did a Ph D in Environmental Toxicology. I joined General Electric as Toxicity Expert and worked for 2 years. I then moved to General Elastic Plastics as Life Cycle and Sustainability Expert and worked for 5 years. I am an Ecotoxicologist and Scientist C at Wildlife Institute of India."