The Coalition for Conservation Genetics

The Coalition is a global network of conservation genetic experts working towards a shared goal of improving the integration of genetic information into conservation policy and practice.

The Coalition also aims to increase global capacity in conservation genetics by offering opportunities and support for currently underrepresented groups.

How to use

Further information is available at: https://www.coalitionforconservationgenetics.org

A set of webinars, reports, and publications on genetic research, capacity building, and policy are available on the Resources page at:

https://www.coalitionforconservationgenetics.org/resources

The study by O’Brien et al. (2022) can be accessed at: Bringing together approaches to reporting on within species genetic diversity – O’Brien – 2022 – Journal of Applied Ecology – Wiley Online Library

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Conservation and sustainable use of Indigenous agricultural genetic diversity in Hubei

Hubei Province, a key agricultural region in central China, boasts rich agrobiodiversity with over 6,200 crop varieties and 23 livestock species. However, policy focus on production intensification threatens traditional farming practices and the diversity of genetic resources for food and agriculture (GRFA). This Solution prioritizes in-situ agrobiodiversity conservation that reduces GRFA threats, exemplified by a project targeting three indigenous varieties—Yanzhi rice, Wudang tea, and black goat—and establishing demonstration sites in Xishui, Yunyang, and Danjiangkou to promote conservation approaches.

Comprehensive Solution for the Rescue and Conservation of the Critically Small Population of Firmiana major

Firmiana major is an endemic species of China. It was declared extinct in the wild by the IUCN in 1998. Later, it was rediscovered in the Sichuan Panzhihua Cycad National Nature Reserve. However, the population size remains extremely small, natural regeneration is limited. The species faces several threats, including low seed plumpness, challenges in seed preservation, harsh habitat conditions in the dry-hot valley, and a lack of protective policies. Integrate field surveys, artificial propagation, in situ conservation, genetic diversity research, and policy advocacy. Core measures include sowing immediately after collection, habitat management. The wild population has increased nearly 400 individuals. More than 500 seedlings have been artificially cultivated. The species has been reclassified as a National Key Protected Wild Plant (Class II), assessed as Endangered (EN) by the IUCN, and its conservation efforts have been integrated into local ecological plans.

Beavers in Knapdale: Scottish Beavers Reinforcement Project

The Eurasian beaver (Castor fiber) has been extinct in mainland Britain since the 16th century. The Scottish Beaver Trial was the first licensed mammal reintroduction project in the UK, establishing a beaver population of Norwegian origin in Scotland’s Knapdale forest. However, the population was small, with low genetic diversity threatening it with extirpation. The Scottish Beavers reinforcement project was designed to mitigate this risk. Following extensive public consultation and genetic sampling, the project released 21 beavers of Bavarian origin with more, different genetic diversity to Knapdale between 2017 and 2020. The reinforcement was a success, with subsequent monitoring finding increased breeding and new lochs occupied. Additionally, genetic sampling has indicated significantly higher genetic diversity in the population compared to before the translocation, improving the population’s resilience. The project has acted as a template for other translocations and informed Scotland’s Beaver Strategy 2022-2045.

River Dolphins

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WildLabs Conservation Technology Community

WILDLABS is home to the global conservation technology community of 8,600 people in 120 countries discussing 1,500 topics like biologging, camera traps, and machine learning. With engaging spaces to ask questions and collaborate together, share your own work, and discover new ideas and innovations, WILDLABS is your platform to connect with #Tech4Wildlife experts and projects from around the world.

IWC Scientific Committee work on cetacean DNA

As genetic data are frequently applied to give advice to the IWC (including, but not limited to, detection of population structure), there is a need to agree on data quality criteria for currently used DNA marker types (sequences, microsatellites, Single Nucleotide Polymorphisms (SNPs); possibly nuclear DNA sequencing in the future). The guidelines and considerations on DNA quality provided here represent common practice subject to ongoing discussion and will need future adaptation, as the state-of-the-art of DNA analysis in population genetics progresses.

It is also evident that, although accordance to these guidelines is highly desirable, this does not preclude consideration of genetic work failing to fully meet these standards. Nonetheless, the issues raised below are intended to assist Scientific Committee members in judging the respective reliability of information from genetic studies. In addition, for studies explicitly carried out to give stock definition advice to the IWC, adherence to these guidelines is strongly recommended.

Sefari genetic scorecard

The following case study summarises a SEFARI Think Tank involving the Royal Botanic Gardens Edinburgh and Scottish Natural Heritage. SEFARI Think Tanks are designed to address challenging and often contested research questions of national and international importance. This project brought together experts to address Aichi Target 13 on the conservation of genetic diversity. The project has established a world-first method to help understand and conserve genetic diversity in some of Scotland’s most iconic wild species. This fills a significant gap in addressing this international target, as the practical tool will enable other countries to assess its genetic diversity and compare what has been measured in Scotland.

The Scottish genetic scorecard

This scorecard is a flexible tool for assessing the risk or potential risk to genetic diversity of wild species. The scorecard contains a set of questions on distribution, biology, and threats that enable users to score the level of potential genetic threat to a species, in situ and ex situ. The scorecard can therefore be used in situations where direct evidence from genetic analyses is not available. The scorecard can also be used in situations with limited resources, according to capacity, the level of knowledge, and the diversity and scale of the country.

How to use

Details of the scorecard and examples are available at: https://www.nature.scot/doc/scotlands-biodiversity-progress-2020-aichi-targets-conserving-genetic-diversity-development-national

https://www.nature.scot/doc/scotlands-biodiversity-progress-2020-aichi-targets-aichi-target-13-genetic-diversity-maintained