Heavy Burden: Promoting Public Policy through the Use of Material Transfer Agreements for Plant Genetic Resources

2005 ◽  
Vol 2 (4) ◽  
Author(s):  
Cary Fowler

AbstractIntroductionPlant genetic resources – seeds and other genetic materials containing functional units of heredity of actual or potential use – are the biological foundation of agriculture, the raw material of plant breeding, and an increasingly important component in biotechnology research and product development. The conditions under which plant genetic resources for food and agriculture (PGRFA) may be accessed and used is therefore of critical importance to broad segments of the economy, to academic and applied researchers, to the legal profession, and to important social concerns such as achieving food security. Each year, hundreds of thousands of samples of PGRFA are distributed to researchers and breeders by genebanks and crop breeding programmes, arguably making this resource the most commonly exchanged of biological materials for research and development purposes in the academic and commercial world.

Author(s):  
Fiona Hay

Food security is dependent on the work of plant scientists and breeders who develop new varieties of crops that are high yielding, nutritious, and tolerate a range of biotic and abiotic stresses. These scientists and breeders need access to novel genetic material to evaluate and to use in their breeding programs; seed- (gene-)banks are the main source of novel genetic material. There are more than 1,750 genebanks around the world that are storing the orthodox (desiccation tolerant) seeds of crops and their wild relatives. These seeds are stored at low moisture content and low temperature to extend their longevity and ensure that seeds with high viability can be distributed to end-users. Thus, seed genebanks serve two purposes: the long-term conservation of plant genetic resources, and the distribution of seed samples. Globally, there are more than 7,400,000 accessions held in genebanks; an accession is a supposedly distinct, uniquely identifiable germplasm sample which represents a particular landrace, variety, breeding line, or population. Genebank staff manage their collections to ensure that suitable material is available and that the viability of the seeds remains high. Accessions are regenerated if viability declines or if stocks run low due to distribution. Many crops come under the auspices of the International Treaty on Plant Genetic Resources for Food and Agriculture and germplasm is shared using the Standard Material Transfer Agreement. The Treaty collates information on the sharing of germplasm with a view to ensuring that farmers ultimately benefit from making their agrobiodiversity available. Ongoing research related to genebanks covers a range of disciplines, including botany, seed and plant physiology, genetics, geographic information science, and law.


2016 ◽  
Vol 8 (6) ◽  
pp. 65-79
Author(s):  
Atieno Otieno Gloria ◽  
Wasswa Mulumba John ◽  
Seyoum Wedajoo Aseffa ◽  
Jae Lee Myung ◽  
Kiwuka Catherine ◽  
...  

2011 ◽  
Vol 47 (Special Issue) ◽  
pp. S43-S48 ◽  
Author(s):  
A. Börner ◽  
K. Neumann ◽  
B. Kobiljski

It is estimated that world-wide existing germplasm collections contain about 7.5 million accessions of plant genetic resources for food and agriculture. Wheat (Triticum and Aegilops) represents the biggest group comprising 900 000 accessions. However, such a huge number of accessions is hindering a successful exploitation of the germplasm. The creation of core collections representing a wide spectrum of the genetic variation of the whole assembly may help to overcome the problem. Here we demonstrate the successful utilisation of such a core collection for the identification and molecular mapping of genes (Quantitative Trait Loci) determining the agronomic traits flowering time and grain yield, exploiting a marker-trait-association based technique. Significant marker-trait associations were obtained and are presented. The intrachromosomal location of many of these associations coincided with those of already identified major genes or quantitative trait loci, but others were detected in regions where no known genes have been located to date.


2006 ◽  
Vol 4 (1) ◽  
pp. 54-63 ◽  
Author(s):  
Niels P. Louwaars ◽  
Eva Thörn ◽  
José Esquinas-Alcázar ◽  
Shumin Wang ◽  
Abebe Demissie ◽  
...  

Applied genetics combined with practical plant breeding is a powerful tool in agricultural development and for food security. The Green Revolution spurred the world's potential to meet its food, feed and fibre needs at a time when vast regions were notoriously food-insecure. Subsequent adaptations of such strategies, from the late 1980s onwards, in order to develop new plant varieties in a more participatory way, have strengthened the focus on applying technology to farmers' diverse needs, feeding research results into a variety of seed systems. During these developments, there were no major legal impediments to the acquisition of either local or formal knowledge or of the building blocks of plant breeding: genetic resources. The emergence of molecular biology in plant science is creating a wealth of opportunities, both to understand better the limitations of crop production and to use a much wider array of genetic diversity in crop improvement. This ‘Gene Revolution’ needs to incorporate the lessons from the Green Revolution in order to reach its target groups. However, the policy environment has changed. Access to technologies is complicated by the spread of private rights (intellectual property rights), and access to genetic resources by new national access laws. Policies on access to genetic resources have changed from the concept of the ‘Heritage of Mankind’ for use for the benefit of all mankind to ‘National Sovereignty’, based on the Convention on Biological Diversity, for negotiated benefit-sharing between a provider and a user. The Generation Challenge Programme intends to use genomic techniques to identify and use characteristics that are of value to the resource-poor, and is looking for ways to promote freedom-to-operate for plant breeding technologies and materials. Biodiversity provides the basis for the effective use of these genomic techniques. National access regulations usually apply to all biodiversity indiscriminately and may cause obstacles or delays in the use of genetic resources in agriculture. Different policies are being developed in different regions. Some emphasize benefit-sharing, and limit access in order to implement this (the ‘African Model Law’), while others, in recognition of countries' interdependence, provide for facilitated access to all genetic resources under the jurisdiction of countries in the region (the Nordic Region). There are good reasons why the use of agricultural biodiversity needs to be regulated differently from industrial uses of biodiversity. The International Treaty on Plant Genetic Resources for Food and Agriculture, which entered into force in 2004, provides for facilitated access to agricultural genetic resources, at least for the crops that are included in the Treaty's ‘Multilateral System of Access and Benefit-sharing’. Ratification of the Treaty is proceeding apace, and negotiations have entered a critical stage in the development of practical instruments for its implementation. Although the scope of the Treaty is all plant genetic resources for food and agriculture, there are important crops that are not covered by its Multilateral System. Humanitarian licences are being used to provide access for the poor to protected technologies: countries may need to create such a general humanitarian access regime, to ensure the poor have the access they need to agricultural genetic resources.


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