The significance of understanding the habitat requirements of the Sunda pangolin cannot be overstated. As listed among the most trafficked mammals globally, pangolins, particularly in Southeast Asia, are heavily impacted by poaching and illegal trade. The research conducted by Gomez et al. delves into the intricate relationships between human populations, urban development, and the natural habitats that are vital for the survival of the Sunda pangolin. By employing a habitat suitability model, the study meticulously assesses areas where pangolins can thrive amid anthropogenic pressures.

At the core of the model lies the integration of various environmental and socio-economic variables. The researchers collected extensive data on land use, vegetation types, and human population density, along with insights on local conservation practices. By employing sophisticated statistical analyses and machine learning algorithms, they were able to predict the optimal habitats for the Sunda pangolin. The findings of this study suggest that even in heavily modified landscapes, there are pockets of suitable habitats that could serve as refuges for these animals if suitable conservation strategies are implemented.

The implications of these findings extend beyond ecological predictions. As the demand for pangolin scales and meat continues to be a driving force behind wildlife trafficking, the results of this study provide essential information for policymakers. By identifying hotspots where human-wildlife interactions are most likely to occur, conservation efforts can be more effectively directed to regions where they are needed most. Furthermore, the study advocates for the development of conservation corridors that aim to connect fragmented habitats, allowing for safe passage for pangolins and other wildlife species.

The research also underscores the importance of community involvement in conservation efforts. Engaging local communities in protective measures not only fosters a sense of ownership but also enables sustainable practices that can mitigate the pressures of habitat destruction. Educational initiatives aimed at raising awareness about the plight of the Sunda pangolin are vital components of a comprehensive conservation strategy. Drawing connections between local livelihoods and pangolin conservation is essential to creating a sustainable approach that benefits both people and wildlife.

In addition, the study raises crucial questions about the future of wildlife trade regulations in the region. As the paper highlights, sustainable practices must be promoted alongside stricter enforcement of wildlife protection laws. Implementing guidelines that govern the trade of pangolins and their derivatives can reduce illegal poaching while ensuring that communities dependent on wildlife have alternative livelihoods. Collective action and better regulatory frameworks will be essential to safeguard the Sunda pangolin and maintain biodiversity in Borneo.

As Borneo’s natural ecosystems continue to face unprecedented threats, the conservation status of species like the Sunda pangolin is at a critical juncture. The research by Gomez et al. represents a clarion call to action, highlighting the urgent need for a multifaceted approach to conservation that includes habitat protection, community engagement, and regulatory reforms. Protecting the Sunda pangolin is not just about saving a single species; it is about preserving the intricate web of life that characterizes this exceptional region.

The powerful intersection of technology, community engagement, and wildlife conservation is exemplified in this study. By harnessing advanced modeling techniques and engaging local stakeholders, researchers are paving the way for innovative and sustainable conservation strategies. The future of the Sunda pangolin hangs in the balance, but through informed action and collaboration, there is hope for this remarkable species.

In conclusion, the habitat suitability model presented by Gomez and his colleagues provides a vital framework for understanding and addressing the threats faced by the Sunda pangolin in Borneo. As this research gains visibility, it is expected to resonate with conservationists, policymakers, and the general public alike. The urgency of the situation demands swift action, but the insights gleaned from this study illuminate a path forward, urging collective efforts to protect both the Sunda pangolin and its habitat.

As we reflect on the balance between human development and conservation, the study emphasizes that proactive measures must be taken now to ensure a future where the Sunda pangolin can thrive alongside human communities. The key takeaway from this research is clear: the time to act is now, for both wildlife and the wider environmental legacy that we leave for future generations.

By positioning this research within the broader context of wildlife conservation and human interactions, the study serves as a vital reminder of our responsibility to protect endangered species. With increased awareness and commitment to conservation, it is possible to envision a future where the Sunda pangolin is more than just a fleeting glimpse of a creature on the brink of extinction, but a thriving symbol of biodiversity resilience in Borneo.

Subject of Research: Habitat suitability model for Sunda pangolin conservation

Article Title: Habitat suitability model for identifying human-wildlife interface and implications for wildlife trade of Sunda pangolin in Borneo.

Article References:
Gomez, C.R., Sartor, C.C., Macdonald, D.W. et al. Habitat suitability model for identifying human-wildlife interface and implications for wildlife trade of Sunda pangolin in Borneo.
Environ Monit Assess 198, 108 (2026). https://doi.org/10.1007/s10661-025-14922-6

Image Credits: AI Generated

DOI: https://doi.org/10.1007/s10661-025-14922-6

Keywords: Conservation, wildlife trade, Sunda pangolin, habitat suitability, Borneo.

The research involved tracking a cohort of 25 tohorā that began their journey from the subantarctic Maungahuka/Auckland Islands. The scientists meticulously monitored the whales as they traveled across the diverse and sometimes treacherous waters of the Southern Ocean. Dr. Leena Riekkola, a Rutherford Postdoctoral Fellow, led the charge in this investigative endeavor, focusing on the migratory patterns that emerged from the study. “It turned out that one destination was by far the most popular,” Dr. Riekkola remarked, alluding to the predominant movement of about 90% of the whales toward a nutrient-rich zone south of Australia, where various ocean waters converge.

Understanding the spatial dynamics of whale feeding habits is crucial, particularly when considering the historical decline of the southern right whale population, which was severely diminished due to extensive whaling, reducing numbers to as few as 400 individuals at one point in the early 20th century. Today, thanks to concerted conservation efforts, the global population stands at approximately 15,000 individuals. However, this resurgence does not eliminate the need for continuous protection and vigilance, particularly for critical feeding zones that these whales rely upon seasonally.

The implications of this wildlife study extend beyond just the tohorā; they draw attention to a broader ecological narrative involving various marine species, including seabirds, sharks, and seals, that likewise depend on these rich feeding ground ecosystems. Dr. Emma Carroll, the study’s senior author, emphasizes that “this work highlights why this region should be a marine protected area under the High Seas Treaty.” The High Seas Treaty, formally known as the Biodiversity Beyond National Jurisdiction Agreement, is an instrumental framework that allows nations the ability to designate certain areas for restricted activities, focusing on preservation rather than exploitation.

As discussions surrounding climate change and its impact on marine biodiversity become increasingly urgent, the establishment of these marine protected areas could provide a safeguard not just for the tohorā but also for other marine life threatened by overfishing and habitat degradation. Once ratified, the treaty has the potential to create a sustainable future for these ecosystems, highlighted by Dr. Riekkola’s assertion that “this treaty could provide a way of protecting these critical feeding areas for whales, but also seabirds, seals, fish, and sharks.”

Geographically, the area identified south of Australia spans over 2,000 kilometers in width and approximately 1,000 kilometers in depth, with essential feeding habitats lying close to the Subtropical Front—a notable boundary where warm, saline subtropical waters meet cooler Antarctic currents. The implications of understanding such geographical hotspots cannot be overstated; they form the crux of discussions addressing marine conservation as these ecosystems play a significant role in ocean health and biodiversity.

The tracking data revealed that these feeding grounds are primarily visited by the whales from October to January, during their migration to the Maungahuka/Auckland Islands for winter. This seasonal movement emphasizes the necessity of long-term monitoring and the formation of protective strategies that rotate with the migratory patterns of the tohorā and other marine species inhabiting the region.

The research further contrasts the migratory patterns of the New Zealand southern right whales with those of their Australian counterparts. Notably, 15 Australian whales included in the research displayed a more diverse range of foraging habitats. This observation provokes profound questions about the adaptability of each population, especially with the pressing challenges posed by climate change affecting prey distribution throughout the Southern Ocean.

Funding for this significant research initiative was procured from a variety of prestigious sources, including the Royal Society Te Apārangi, Rutherford Discovery, and Postdoctoral Fellowships, among others. The multi-faceted support reflects a growing recognition of the need for urgent scientific study in the realm of marine environmental conservation. Collaborative efforts from institutions such as the Marine Predator Research Group at Macquarie University and the Antarctic and Southern Ocean Coalition highlight the interconnectedness of global research efforts aimed at understanding and protecting marine biodiversity.

In summary, the findings of this comprehensive study shed light on the critical need for conservation measures to protect the newly discovered feeding grounds of the southern right whale population. With an eye toward implementing effective policies under the High Seas Treaty framework, there is hope for creating a sustainable future for not only the tohorā but a multitude of marine species that share the complex ecosystems of the Southern Ocean. As research advances, it becomes increasingly vital to advocate for these marine refuges, contributing to a broader conservation success story that honors the resilience of life in our oceans.

Subject of Research: Marine Ecology
Article Title: Large-scale differences, mesoscale similarities: Neighbouring marine predator populations provide insights into Southern Ocean productivity
News Publication Date: 1-Oct-2025
Web References: Global Ecology and Conservation
References: N/A
Image Credits: N/A

Keywords

Marine Conservation, Southern Right Whales, Climate Change, Marine Protected Areas, Ecosystem Health, Biodiversity.

This population resurgence, meticulously documented in the journal Marine Ecology Progress Series, underscores the slow pace of recovery expected for such a biologically slow-growing fish. Giant sea bass can grow to lengths over seven feet, weigh upwards of 550 pounds, and live for as many as 76 years. These impressive traits also position them as apex predators, playing a vital ecological role in sustaining healthy kelp forest ecosystems and rocky reef communities by controlling populations of prey species. Their large size and long lifespan, however, also impose vulnerabilities; their slow maturation makes population replenishment a lengthy process, hindering rapid rebounds following intense fishing pressure.

Commercial exploitation of giant sea bass reached a devastating peak from the late 1800s through the early 1980s. By 1981, alarming declines in landings prompted California to close its commercial fishery. At that time, fish numbers had dwindled by 95% across California and Mexican waters, a stark testament to the species’ collapse. International conservation bodies recognized the dire situation by listing the giant sea bass as critically endangered in 1996. Despite the fishing ban and subsequent regulatory measures, such as prohibiting gillnets nearshore and limiting incidental catches, population numbers have yet to return to historical levels, and conservationists remain vigilant.

In the face of these challenges, a dedicated team of researchers sought to harness an unconventional approach by leveraging the enthusiasm of Southern California’s diving community. Giant sea bass, known for their curious behavior and willingness to approach divers, became ideal subjects for photo-identification studies. Their individual spot patterns, unique and stable throughout adulthood, enabled scientists to identify and track fish without invasive tagging methods. By compiling more than 1,600 photographs submitted by over 420 citizen scientists through the Spotting Giant Sea Bass Project, the team applied sophisticated pattern recognition algorithms and statistical modeling to estimate population size and trends.

The resulting dataset revealed an estimated population of approximately 1,220 adult fish between 2015 and 2022. While this number indicates growth compared to past decades, it remains far below the population figures of the early 20th century, where commercial catches alone could exceed 4,500 fish annually. This lingering deficit is exacerbated by the ongoing incidental take in gillnet fisheries, which reportedly accounted for an average of 126 individuals caught per year from 1994 to 2022, with numbers even rising to 180 in 2022. Such data highlights both the fragile state of recovery and the persistent human impacts that continue to slow progress.

The species’ behavioral ecology contributes both challenges and opportunities for conservation. Notably, giant sea bass exhibit high site fidelity, tending to remain within localized home ranges. Although a few individuals have been documented making substantial movements across island chains or over 30 miles, the typical pattern involves seasonal aggregations in predictable locations. This trait historically subjected these aggregations to intense fishing pressure but also allows divers to reliably encounter the same individuals repeatedly, facilitating long-term monitoring. From a conservation perspective, these habitat preferences emphasize the critical importance of protecting key aggregation sites to promote population rebuilding, as genetic exchange between isolated groups appears limited.

Traditional survey and monitoring techniques involving catch-and-release tagging impose considerable risks, including stress-induced injury and mortality from rapid pressure changes during ascent. Giant sea bass are particularly susceptible to barotrauma, making non-invasive methods preferable. Photo-identification using community-collected images offers a significant advancement by avoiding these hazards and promoting public engagement. Through this model of participatory science, the project empowers recreational divers and fishermen to contribute directly to the stewardship of a keystone species, fostering a collective sense of responsibility and awareness that can bolster conservation outcomes.

Accounting for potential sampling biases inherent in community science data, researchers incorporated variables such as annual identification rates, encounter frequency, and the number of reporting days into their statistical models. This methodological rigor enhances confidence in the population estimates despite uneven spatial survey effort. Additionally, supplemental data from scientific research divers and baited remote underwater cameras, capable of exploring sites beyond diver reach, provided critical corroboration of observational trends. Commercial bycatch records further supported the observed increase in giant sea bass abundance, linking multiple data streams into a coherent picture of tentative recovery.

Future efforts aim to expand the geographic scope of this community-driven monitoring initiative beyond Southern California to include Northern California and Mexican waters. Given the interconnectedness of the population across international boundaries, understanding movements and gene flow in these regions is essential for comprehensive management. The project team has made their dataset openly accessible, inviting collaboration and further analysis from the broader scientific community. Ongoing public participation remains indispensable, as continuous photo submissions improve the resolution and accuracy of population tracking, informing adaptive conservation strategies.

The road to recovery for the giant sea bass is long and complex, entwined with ecological, economic, and social dimensions. Despite encouraging evidence of population growth, the species remains vulnerable due to its life-history characteristics and persistent anthropogenic threats. The innovative use of community science has provided a scalable and replicable model for monitoring elusive marine megafauna, representing a paradigm shift towards integrating citizen engagement and scientific rigor. This fusion enhances the potential for effective conservation and sustainable coexistence with one of California’s most iconic marine inhabitants.

By illuminating the slow resurgence of this underwater titan, researchers and citizen scientists alike underscore the profound impact of dedicated conservation efforts combined with technological innovation. This study not only raises awareness of the giant sea bass’s precarious status but also exemplifies how collaborative science can drive meaningful change. As the kings of the kelp forest gradually reclaim their space, their story serves as a beacon of hope for marine ecosystems worldwide, reminding us of the resilience of nature when protected by informed and engaged communities.

Subject of Research: Population estimation and conservation status of the giant sea bass (Stereolepis gigas) in Southern California.

Article Title: Southern California’s giant sea bass population shows slow signs of recovery through community science efforts.

Web References:

• Spotting Giant Sea Bass Project: https://spottinggiantseabass.msi.ucsb.edu/
• UCSB Benioff Ocean Science Laboratory: https://bosl.ucsb.edu/
• Professor Milton Love’s lab: https://lovelab.msi.ucsb.edu/
• Data repository: https://zenodo.org/records/13887764

Image Credits: Merry Passage

Keywords: Applied sciences and engineering, Applied ecology, Conservation biology, Marine conservation, Endangered species

The research immersed in ecological and environmental forecasting scrutinizes the myriad threats to emperor penguins, a species inherently tied to the Antarctic ecosystem. With a methodology that considers a variety of ecological models informed by decades of empirical data, this study establishes a more robust framework for predicting extinction risks amidst changing environmental conditions. The implications of this escalation in extinction risk cannot be overstated, as they enliven discussions surrounding global conservation policies and the imperative to safeguard not only emperor penguins but the Antarctic environment as a whole.

Lead author Stéphanie Jenouvrier, a senior scientist and seabird ecologist, articulated the necessity of integrating uncertainty into ecological assessments. This new paradigm positions the science community to make informed decisions by utilizing varied Earth system models to navigate unknown variables in predicting species survival. Given the unpredictable nature of climate-related habitat changes, this novel approach may serve as a lifeline for understanding and responding effectively to the challenges posed by climate change—both for emperor penguins and broader marine ecosystems.

The study capitalizes on a wealth of data, including individual penguin observations accumulated over decades and extensive satellite imagery that tracks the dynamics of penguin populations across more than 50 colonies. This meticulous combination of qualitative and quantitative data goes beyond mere statistical analysis; it lays the groundwork for a new standard in ecological modeling and sets a precedent for conservation policy more broadly. By accounting for myriad factors that influence population dynamics and habitat viability, scientists can draw a clearer picture of future trends while explicitly addressing uncertainties.

Conservation efforts hinge on these kinds of insights, as they empower policy-makers and stakeholders to understand better the nuanced risks faced by various species in the face of climate change. The meticulous modeling techniques utilized in this research immerse stakeholders in the complexities of the penguin plight, advocating for immediate action and enhancing global awareness of ecological vulnerabilities. By revealing the intricacies of these dynamics, the study plays a critical role in elevating the urgency of international conservation agendas and fostering a more proactive approach to securing the future of our planet’s wildlife.

This investigation also spotlights the significance of establishing Marine Protected Areas (MPAs) as a vital measure in safeguarding crucial habitats for emperor penguins and other marine creatures. The findings emphasize the disconnect between current protections and the immediate threats posed by skimming ecological thresholds; without appropriate actions, future generations may bear witness to irrevocable socioeconomic and ecological consequences. Addressing the multifaceted dimensions of climate change will increasingly demand collaborative efforts across nations to ensure robust protections against further habitat loss.

Professor Phil Trathan, another key author of the study, remarked on the emperor penguin’s essential role as an indicator of Antarctic ecosystem health. Their status reflects wider changes within Earth’s climate system, thus underscoring the interconnectedness of species survival and environmental stability. Analyzing how penguins adapt—or fail to adapt—will unveil critical insights not just for the species itself but for myriad interconnected organisms thriving within the Antarctic environment.

Furthermore, as policymakers reflect on the findings detailed in this significant study, the role of the IUCN Red List becomes crucial. This internationally revered framework guides conservation strategies and aids in prioritizing high-risk species for immediate attention. By advocating for urgent reassessments based on robust scientific evidence, the research aims to inform the governance frameworks that dictate protections afforded to vulnerable marine habitats. This study serves as a rallying cry for action—encouraging nations to rally together, solidifying their commitment to mitigating climate change and its diverse impacts on global biodiversity.

In embracing this newfound understanding, stakeholders can develop targeted conservation strategies designed to enhance the resiliency of emperor penguins and the ecosystems that support them. Intensified research efforts and strategic funding initiatives, as highlighted by the National Science Foundation and NASA, underline a commitment to conservation that must transcend national borders. As this study illuminates pathways to better science-based approaches, it also calls for communal initiatives aimed at fostering conservation-minded societies.

The research findings encourage rigorous discussions on future environmental assessments, refining policies not only for emperor penguins but for all species navigating the tumultuous waters of rapid environmental change. As the stakes continue to rise globally, integrating scientific findings into public awareness becomes increasingly vital, bridging the gap between research and real-world application.

By prioritizing comprehensive modeling and adaptive conservation strategies, humanity can strive towards a sustainable coexistence with its natural world, securing the health and vitality of the planet for future generations. In light of these findings, there is an ever-growing narrative that emphasizes the importance of global collaborative efforts in reshaping conservation trajectories, calling for dedicated actions that resonate in the hearts and minds of stakeholders across the globe.

This work embodies an urgent plea—a fusion of scientific discovery and passionate advocacy for the future of our planet. It beckons us to reassess our commitments to ecological integrity, reminding us of the reciprocal relationship that exists between humans and the fragile ecosystems that sustain life. The road ahead will undoubtedly pose challenges, but through collaboration, innovation, and a commitment to science-driven policy, there is hope that emperor penguins and countless other species can navigate the perils of a changing world and emerge resilient.

As we linger on the precipice of this critical juncture, let us heed the research contributions of WHOI and others, crafting pathways for conservation informed by both science and historical context. As stewards of our planet, we must unite efforts to protect vulnerable ecosystems and the species that embody their intricate connections—a collective responsibility that defines our shared humanity.

Subject of Research: Animals
Article Title: Living with Uncertainty: Using Multi-Model Large Ensembles to Assess Emperor Penguin Extinction Risk for Conservation Policy
News Publication Date: 25-Mar-2025
Web References: ScienceDirect Article
References: 10.1016/j.biocon.2025.111037
Image Credits: Credit: Stephanie Jenouvrier © Woods Hole Oceanographic Institution
Keywords: Antarctica, Ecological modeling, Marine conservation, Extinction

Horseshoe crabs serve as a vital component of coastal marine ecosystems, contributing significantly to nutrient cycling and serving as forage for numerous species, including migratory shorebirds. The eggs laid by horseshoe crabs are an essential food source for these birds, which have adapted their migration patterns to align with the crabs’ spawning cycles. Furthermore, horseshoe crabs are indispensable in biomedicine. Their blue blood, which contains a substance called Limulus Amebocyte Lysate, is harvested to test for bacterial contamination in vaccines and medical devices, underscoring their economic and scientific importance.

Among the four recognized species of horseshoe crabs, only the Atlantic horseshoe crab has been extensively studied. The three Asian species—the mangrove horseshoe crab, coastal horseshoe crab, and tri-spine horseshoe crab—have received comparatively little attention from researchers, leading to insufficient data to evaluate their extinction risks effectively. While the two mangrove and coastal species are categorized as “data deficient” by the IUCN Red List, the tri-spine horseshoe crab has earned an endangered status, indicating an urgent need for targeted conservation efforts.

To bridge the information gap regarding these species, a dedicated research team led by Associate Professor Frank Rheindt from the Department of Biological Sciences at NUS embarked on the first comprehensive genomic study of the three Asian horseshoe crab species. The team collected samples from 251 horseshoe crabs spread across 52 sites in 11 countries, providing an extensive dataset for genetic analysis. This pivotal research effort not only promises to enhance our understanding of these species but also sets the stage for effective conservation strategies tailored to their unique needs.

The researchers discovered that Southeast Asia’s Sunda Shelf—a shallow-marine area—plays a critical role in the persistence of horseshoe crab populations. The region has historically served as a refuge during climate fluctuations, allowing these ancient arthropods to adapt and thrive. By establishing a genomic baseline dataset for the horseshoe crab species, the team can better understand their population structure, evolutionary history, and responses to changing environmental conditions. Such insights are crucial for devising conservation plans that cater to the specific requirements of each species.

Analysis of the genomic data revealed distinct population structures among the three species, which can serve as a reference for understanding their adaptive capacities. Dr. Tang Qian, one of the study’s primary authors, highlighted the significance of identifying populations with unique genetic traits. These traits may be critical for survival as they determine how these species can adapt to local ecological conditions. Furthermore, pinpointing coastal hotspots is essential for prioritizing conservation efforts, particularly in regions that are vital for the species’ long-term sustainability.

The study elucidated how climate change poses varying challenges for each horseshoe crab species. While all three are susceptible to environmental changes, their capacity to adapt to these challenges differs markedly. The mangrove horseshoe crab faces increased threats due to its limited dispersal ability, placing it at a higher risk for local extinction compared to its more mobile relatives, the coastal and tri-spine horseshoe crabs. This differential vulnerability advocates for the necessity of customized conservation strategies that address the distinct risks faced by each species.

The researchers proposed several targeted conservation measures based on their findings. For the mangrove horseshoe crab, protecting and restoring mangrove habitats is essential for facilitating migration in response to rising global temperatures. Additionally, prioritized conservation efforts in areas facing the most significant evolutionary threats will bolster this species’ chances of survival. For the coastal horseshoe crab, maintaining connectivity between populations is critical, necessitating the protection of key coastal corridors to mitigate habitat fragmentation.

Meanwhile, for the tri-spine horseshoe crab, the researchers recommend sustainable fishing practices and the restoration of coastal habitats, particularly in regions where industrial development has historically had detrimental impacts. Importantly, addressing human-induced threats, such as habitat loss and overharvesting, is crucial, as these factors currently represent more pressing risks than climate change for this species.

The research team emphasized that understanding horseshoe crab populations and their ecological dynamics is only the first step in ensuring their survival. Their findings provide a vital framework for future conservation initiatives but must also be contextualized within the broader spectrum of human activities that may disrupt marine habitats. Future studies will aim to explore how specific genetic traits relating to functional genes may enhance the horseshoe crabs’ ability to adapt to their local environments and the ramifications of climate change.

Looking ahead, the establishment of the Horseshoe Crab Global Biorepository at NUS is an exciting development for ongoing research. This biorepository will house physical specimens and genomic data that can be utilized for future studies, fostering collaboration between researchers worldwide. The insights gained from this genomic research on Asian horseshoe crabs not only pave the way for effective conservation strategies but also emphasize the importance of integrating scientific inquiry with on-the-ground actions to mitigate the threats these ancient species face.

In summary, this groundbreaking research has illuminated the need for urgent conservation action regarding the endangered Asian horseshoe crab species. As scientists continue to unravel the complexities of their genetics and ecological roles, it becomes increasingly clear that strategic efforts are necessary to safeguard their populations and habitats. The persistence of horseshoe crabs, a symbol of resilience in the face of environmental change, will rely on a combination of scientific understanding and proactive conservation measures that take into account the nuanced challenges posed by both natural and human-induced threats.

Subject of Research: Conservation strategies for Asian horseshoe crabs
Article Title: Evolution and Viability of Asian Horseshoe Crabs Appear Tightly Linked to Geo-Climatic Dynamics in the Sunda Shelf
News Publication Date: 16-Dec-2024
Web References: https://doi.org/10.1111/conl.13074
References: Conservation Letters, National University of Singapore
Image Credits: Dr Tang Qian

Keywords: Horseshoe crabs, Conservation, Genomics, Biodiversity, Climate change, Marine ecology, Endangered species, Sustainable practices, Genetic diversity, Population dynamics