scholarly journals Optimizing ex situ genetic resource collections for European livestock conservation

Author(s):  
Rafael De Oliveira Silva ◽  
Bouda Vosough Ahmadi ◽  
Sipke Joost Hiemstra ◽  
Dominic Moran
Author(s):  
Anniina Kuusijärvi ◽  
Ville-Matti Riihikoski ◽  
Samuli Lehtonen ◽  
Gunilla Ståhls ◽  
Marko Hyvärinen ◽  
...  

The Nagoya Protocol (NP) of the Convention on Biological Diversity requires that genetic resource holders and users obtain, preserve and keep relevant documentation. Users and third parties need to be informed on terms of access, which utilisation is allowed, and which benefits need to be shared when respective genetic resources or associated traditional knowledge is utilised in the meaning of the NP. Following the recommendations in the Code of Conduct & Best Practices of the Consortium of European Taxonomic Facilities (CETAF) CETAF Legislations and Regulations Liaison Group 2019, institutions should implement appropriate data management systems to support compliance with the protocol and keep records on acquisition of biological material, utilization of genetic resources, transfers to third parties, benefits derived and shared, and deaccessioning of specimens or disposal of consumed samples. Here we describe how we have implemented the first set of tools to meet the NP requirements in the Kotka Collection Management System (CMS), which is used by eleven Natural History Museums in Finland. The Kotka CMS is used for storing and managing specimen data and for handling material transactions (loans, exchanges, donations and consumptive loans). Users can enter and store all necessary documentation for both incoming and outgoing material as material transactions, which hold information on e.g., the transaction type, description of the material, important dates, correspondent organization and contact person. Specimens are linked to transactions by their unique identifiers and each transaction also has a unique stable identifier. The first version of the tools for meeting the requirements of the Nagoya protocol on both in situ and ex situ accession of genetic resources have been integrated into the transaction section of the system. For genetic resource users to be able to enter, save and provide all the required information about an incoming genetic resource, we have implemented a set of fields to be completed in the transactions in Kotka CMS (Fig. 1). Users can record, for example, a possible IRCC number (Internationally Recognized Certificate of Compliance), acquisition date and providing country, description of the material, information on Prior Informed Consent, Mutually Agreed Terms, Material Transfer Agreement and other possible permits. The Finnish genomic resource legislation requires a notification within one month of acquisition to the Competent National Authority (CNA; The Finnish Environment Institute and Natural Resources Institute Finland) for any imported genetic resources. The required data for the notification is compiled in Kotka CMS and then sent to the CNA. All the documentation and conditions regulating the utilisation of each specimen and derived samples must follow with the specimen data at all times. To accomplish this all the necessary information and documents are linked from the material transactions to the relevant specimens by unique specimen or sample identifiers. In the specimen view page, links to the full transaction details and history are given, as a single specimen or a derived sample can be part of several different types of transactions. Users also see a summary of the transaction information directly in the specimen view, most importantly whether the specimen is available for genetic research or has any restrictions for use. The Kotka CMS transaction section makes use of the Application Programming Interface (API) provided by the Access and Benefit Sharing Clearing House (ABS-CH). Using the API, Kotka CMS validates the IRCC number if given and provides links to the ABS-CH, for example to the relevant country profile page, the contact details of the CNA, and specific requirements for access to genetic resources when applicable. This way, we provide Kotka CMS users up-to-date information from the original source to support their genetic resource management. We will further improve and develop the tools during the years 2019-2020. Now that the first version is in use, we will make adjustments according to user feedback. We also have a few changes planned, for example, the tools for transferring the necessary information on permits and other details with outgoing specimens to a user in another institution abroad will be updated. All users in Finnish natural history institutions have access to all the information directly in Kotka CMS, as it is a national system. Additionally, both specimen and transaction information searchability will be refined.


2004 ◽  
Vol 16 (2) ◽  
pp. 27 ◽  
Author(s):  
H. D. Blackburn

Globally, animal genetic resources are contracting due to economic forces. As a result, during the 1990s there was a dramatic increase in national animal genetic resource activities. Many national programmes were initiated and the Food and Agriculture Organisation of the United Nations played a prominent role in coalescing national actions. Nationally, programmes have been initiated that comprise of in situ, ex situ and information-exchange efforts. A critical element to national conservation efforts is the development of cryopreserved collections of germplasm. Several countries have initiated substantial multispecies collections of cryopreserved germplasm. The selection of animals within breeds of interest is an important consideration in building cryopreserved collections. Animal selection should be based on a lack of genetic relationship, with sufficient numbers of animals to ensure the capture of rare alleles. Major issues facing repository development and genetic conservation are: (1) that all breeds are in need of genetic diversity management; (2) a better understanding of in situ breed population dynamics is needed; and (3) the concept that repository collections can be used by a broad range of clientele across time as well as during emergency situations.


2019 ◽  
Vol 4 (1) ◽  
pp. 47
Author(s):  
Zeleke Tesema ◽  
Abiy Shenkute

Conservation of native animal genetic resource is vital to maintain genetic diversity sustainably and to cope with the future challenging climate change. Thus, the aim of this paper was to review the experience of sheep conservation practice in Turkey and future prospects in Ethiopia. In turkey, fifteen sheep types are extinct and other native sheep population decreased by 47% due to an unplanned crossbreeding program. For these reasons, sheep genetic resource ex-situ in vivo conservation project started in 1995 with three sheep breeds. The animal breeding law regarding registration of new breed and conservation of animal genetic resources was enacted in 2001 in Turkey. In-situ conservation subsidies of sheep breeds near to extinction have been continued since 2005. Following these events, in vitro conservation of germplasm of 13 sheep breeds have been initiated in 2007 and two gene banks have been established and thereby sperm, embryo, cell, and DNA of from each sheep breed conserved in the gene bank. Although they were successful in both in-situ and ex-situ conservations with some limitations, in-situ conserved sheep breeds had better productivity than ex-situ in vivo conserved sheep in Turkey. In the case of Ethiopia, in-situ conservation will be compatible with the existing infrastructure. Through balancing the genetic gain and inbreeding level, it is possible to integrate the existing community-based genetic improvement programs (with in breed selection) with sustainable in-situ conservation of native sheep genetic resources in Ethiopia.


Author(s):  
Eija Pouta ◽  
Annika Tienhaara ◽  
Heini Ahtiainen

The intensification of agriculture has led to remarkable changes in the utilization of agricultural genetic resources and many previously common breeds and varieties have become rare or even endangered (FAO 2007, 2010, Drucker, Gomez & Anderson 2001). In Finland, Eastern and Northern Finncattle, the Kainuu Grey Sheep and the Åland Sheep are endangered according to the FAO classification (FAO 2003) and, for example, majority of the old Finnish crop varieties and Finnish landrace pig are already extinct. Making informed decisions on the appropriate focus and extent of conservation of agricultural genetic resources requires information on both the costs and benefits of conservation. Economic analyses involving the valuation of conservation benefits can guide resource allocation of various types of genetic resources and conservation methods (Artuso 1998). The value of genetic resources is not typically revealed by markets, as they are not directly traded in the markets or the prices of agricultural products do not completely indicate their value (Oldfield 1989, Brown 1990, Drucker et al. 2001). Although the importance of economic analyses has been recognized, the literature on the monetary value of genetic resources in agriculture is relatively limited (see e.g. Evenson et al. 1998 and Rege and Gibson 2003, Ahtiainen & Pouta 2011). Currently the conservation policy of farm agricultural genetic resources in Finland is based on international agreements such as the Convention on Biological Diversity (1992) and the Global Plan of Action for Animal Genetic resources (FAO 2007). National genetic resource programs were initiated for plants in 2003 and for farm animals in 2005 to strengthen the conservation of genetic resources in Finland. Although there has been some progress in the implementation of the programs, they have also suffered from shortage of funds and lack of political interest in conservation. To re-evaluate the conservation policy, there is a need to use valuation methods capable of estimating also the non-use value components of genetic resources, i.e. stated preference methods. The choice experiment (CE) method has been found suitable to valuing genetic resources due to its flexibility and ability to value the traits of breeds or varieties and their attributes. Choice experiment makes it possible to value benefits of both plant genetic resources (PGR) and animal genetic resources (AnGR). The terms refer to all cultivated plant species and varieties, as well as all animal species and breeds that are of interest in terms of food and agricultural production. The CE method can also be used to evaluate the means of conservation in situ (live animals and plants) and ex situ (as seeds, cryopreserved embryos and other genetic material). Previous choice experiments have focused on valuing breeds or varieties and their attributes, especially on attributes that are related to the use of the breed or variety in agriculture (Birol et al. 2006, Ouma et al. 2007). In this study we present the results of a choice experiment valuing the benefits of a genetic resource conservation program in Finland. We test the effect of in situ and ex situ conservation on citizen choices between programs. We also analyse whether the plant varieties and animal breeds are perceived equally valuable by citizen. As the conservation of agricultural genetic resources (AgGR) cannot be expected to be equally valuable to all citizens, we analyse the existence of citizen segments that value differently the conservation of genetic resources. We can assume that AgGR is a rather unknown good for some of the respondents of the valuation survey. However, in valuation surveys respondents are assumed to make “informed” choices when responding to value elicitation questions (e.g. Blomquist &Whitehead 1998). Therefore, we offered an opportunity for respondents to obtain further information on AgGR. In our case, the internet-based survey allowed us also to measure how much time respondents took in reading the information and responding to questions. Furthermore, we also measured response certainty and tested the effects of uncertainty and information as reasons for heterogeneity.


Botany ◽  
2012 ◽  
Vol 90 (5) ◽  
pp. 337-346 ◽  
Author(s):  
Kim E. Hummer ◽  
Andrew R. Jamieson ◽  
Ruth E. Newell

Sam P. Vander Kloet, botanist, traveled the world examining and obtaining specimens to redefine infrageneric taxonomic units within Vaccinium L., family Ericaceae. Besides his botanical treatises, his legacy includes herbarium voucher specimens and ex situ genetic resource collections including a seed bank and living plant collections at the Agriculture and Agri-Food Canada Research Centre, Kentville, Nova Scotia, Canada; the K.C. Irving Environmental Science Centre and Harriet Irving Botanical Gardens, Acadia University, Wolfville, Nova Scotia, Canada; the Canadian Clonal Genebank, Harrow, Ontario, Canada; and the US Department of Agriculture, Agricultural Research Service, National Clonal Germplasm Repository, Corvallis, Oregon, United States. Sam P. Vander Kloet’s collections include representatives of wild Ericaceae with special emphasis on collections of North American and subtropical endemic Vaccinium species. These reference collections are significant and represent a lifetime of dedicated research. Representatives of his heritage collections have now been deposited not only in American genebanks (in Canada and the United States) but also in the World Genebank in Svalbard, Norway, for long term conservation and future evaluation of Vaccinium for the service of humanity. The bequest of his wild collected germplasm will continue to be available to facilitate utilization of an extended Vaccinium gene pool for development and breeding throughout the world.


1994 ◽  
Vol 70 (4) ◽  
pp. 427-434 ◽  
Author(s):  
G. P. Buchert

The processes which generate and maintain genetic variability in natural forest tree populations are reviewed in relation to genetic management of naturally regenerating white pine (Pinus strobus L.) stands. Genetic consequences of inbreeding and silvicultural selection on natural regeneration are discussed, with special reference to old-growth stand management.Ontario's old-growth white pine forests provide a unique opportunity to manage, utilize and conserve pristine gene pools in situ. However, fragmentation of white pine populations in other areas may require ex situ methods to preserve remnants of local genetic variation for future use. Key words: white pine, genetic diversity, inbreeding, mating systems, high-grading, old-growth, genetic resource management, gene conservation


Sign in / Sign up

Export Citation Format

Share Document