Journal for Policy & Market Research

The modern agricultural landscape is predicated upon the integrity and accessibility of plant genetic resources, which serve as the primary basis for human sustenance and the repository of the genetic potential of crop species. These resources are the result of continuous selection and improvement over millennia, forming a bridge between historical biological diversity and future food security. In the contemporary era, the management of agricultural seeds has bifurcated into two distinct but overlapping paradigms: a centralized institutional infrastructure dedicated to ex-situ conservation and a highly consolidated commercial industry driven by biotechnological innovation and intellectual property protections. As the world faces accelerating climate volatility, geopolitical instability, and the exhaustion of traditional agricultural inputs, the governance of the agricultural seed cache and supply chain has emerged as a critical pillar of national and global stability.

The Institutional Framework of Global Seed Conservation

The global strategy for safeguarding agricultural biodiversity is anchored by a network of over 1,750 seed banks and genebanks, which collectively function as a biological insurance policy for the human species. These repositories are designed to protect the world’s crop diversity against loss due to mismanagement, equipment failure, funding fluctuations, natural disasters, and armed conflict.[1, 2] The conservation effort is overseen by international bodies such as the Food and Agriculture Organization of the United Nations (FAO) and the Global Crop Diversity Trust, which facilitate the management of nearly 7.4 million accessions stored in medium- and long-term facilities worldwide.[3]

The Svalbard Global Seed Vault and the Multilateral System

The Svalbard Global Seed Vault, located on the Norwegian island of Spitsbergen in the remote Arctic, represents the ultimate fail-safe within the global conservation hierarchy. Constructed 130 meters inside a sandstone mountain, the facility utilizes the natural permafrost to provide cost-effective and secure storage.[1, 2] The vault maintains a constant temperature of −18∘C, which is necessary for the long-term viability of seeds representing every important crop variety available today.[2]

Governance of the vault is dictated by a tripartite agreement involving the Government of Norway, the Crop Trust, and the Nordic Genetic Resource Center (NordGen). Under these terms, the Norwegian government owns the facility, while the depositing genebanks maintain legal ownership of the seeds they send, operating under “black-box” conditions similar to a safe deposit box in a bank.[1, 2] This arrangement ensures that the material remains accessible to the originators while benefiting from the highest level of physical security and geological stability, protected from ocean flooding even under worst-case sea-level rise scenarios.[2]

Major Institutional Depositors at Svalbard	Accessions Provided	Primary Crop Focus
International Maize and Wheat Improvement Center (CIMMYT)	187,083	Wheat and Maize
National Plant Germplasm System (USA)	156,950	Broad Agricultural Diversity
International Rice Research Institute (IRRI)	133,707	Rice Varieties
International Crop Research Institute (ICRISAT)	125,963	Semi-Arid Tropical Crops
International Center for Agricultural Research (ICARDA)	121,951	Dryland Cereals and Legumes
World Vegetable Center	55,742	Diverse Vegetable Species
Leibniz Institute of Plant Genetics (Germany)	69,671	Regional and Global Staples
Plant GeneResources of Canada	34,952	North American Cereals
[1]

The utility of the Svalbard repository was demonstrated in 2015 when the Syrian civil war necessitated the first-ever withdrawal of seeds from the vault. The International Center for Agricultural Research in the Dry Areas (ICARDA) requested the return of 38,073 samples to regenerate its collections in Lebanon and Morocco, effectively bypassing the loss of its original bank in Aleppo.[4, 5] This mechanism underscores the role of Svalbard as the terminal backup for a global system that is increasingly stressed by regional volatility.

Vulnerabilities and the State of Global Plant Genetic Resources

Despite the existence of high-level backups, the primary genebank network remains remarkably fragile. The Third Report on the State of the World’s Plant Genetic Resources for Food and Agriculture highlights that while almost 6 million accessions are conserved in 867 national and regional genebanks, many of these facilities suffer from chronic underfunding, inadequate documentation, and a lack of proper regeneration cycles.[3]

The catastrophic loss of the Philippine National Plant Genetic Resources Laboratory (NPGRL) in 2006 during Typhoon Milenyo serves as a cautionary case study. Flooding and the subsequent failure of the electrical grid led to the germination and molding of over 30,000 samples, representing 70% of the country’s national collection.[6] Such incidents have prompted calls for intensified international support and the development of an Emergency Reserve fund, launched in partnership with the Plant Treaty, to provide rapid-response assistance to genebanks in crisis.[3]

The Political Economy of the Commercial Seed Sector

The commercial seed industry has undergone a radical transformation over the past three decades, evolving from a fragmented market of regional providers into a highly consolidated global enterprise. Valuation of the global seeds market reached approximately $70.28 billion in 2024 and is projected to grow to $94.23 billion by 2029, exhibiting a compound annual growth rate of 6.2%.[7] This growth is fueled by surging global food demand, government initiatives for food security, and a shift toward precision agriculture and bioengineered traits.

Market Consolidation and the “Big Four” Hegemony

The defining characteristic of the contemporary seed market is the extreme concentration of market share among a handful of transnational corporations. By 2025, four firms—Bayer, Corteva Agriscience, Syngenta (Sinochem), and BASF—control approximately 51% of global seed sales and over 62% of the agrochemical market.[8] This consolidation is the result of tactical acquisitions and megamergers, such as the 2021 combination of Sinochem and ChemChina, which created the world’s largest chemical conglomerate and the third-largest seed firm.[8]

Seed Industry Market Share and Financial Indicators (2024-2025)	Metric	Entity
Global Market Share	20%	Bayer CropScience
Global Market Share	18%	Corteva Agriscience
Global Market Share	15%	Syngenta Group
Global Market Share	10%	BASF Agricultural Solutions
Annual R&D Investment (Top 5 Firms)	$2.5 Billion	Collective Expenditure
Cost of Single Trait Regulatory Approval	$35 Million	Industry Average
[9]

This level of concentration has significant implications for market pricing and the direction of agricultural research. These dominant players utilize high research and development (R&D) barriers to prevent smaller competitors from entering the market, effectively dictating which traits—such as herbicide tolerance and insecticide resistance—are prioritized in the breeding pipeline.[9, 10]

The Seed Supply Chain: Multiplication, Logistics, and Quality Assurance

The commercial seed supply chain is a complex, multi-stage process that spans from genomic research to final delivery at the farm gate. The journey begins with breeder seed, which is the initial pure seed of a new variety. This material is multiplied through several generations—foundation seed, basic seed, and finally certified seed—often through contracts with specialized seed growers.[11, 12]

Quality maintenance is paramount throughout this process, requiring strict management to ensure genetic purity, high germination rates, and freedom from disease. Modern seed technology utilizes sophisticated management software to track lot genealogy, moisture content, and treatment traceability.[13] This is particularly critical for hybrid seeds, which require controlled crosses of parent lines each season to produce the F1 hybrid generations sold to farmers.[12]

The logistics of seed movement are increasingly globalized. For example, between 10% and 25% of the corn and soybean seeds planted in the U.S. Midwest each spring are produced in South America during the northern winter.[14] This “risk management” strategy allows companies to achieve multiple breeding cycles per year and ensures a buffer against domestic crop failures. However, this reliance on global supply chains makes the industry vulnerable to disruptions in freight transportation, as seen during the COVID-19 pandemic when the grounding of passenger flights significantly reduced air cargo capacity for high-priority seed shipments.[14]

Seed Conditioning and Technological Enhancements

After harvest, seeds undergo conditioning processes to improve their quality and marketability. This includes cleaning to remove debris, sizing and grading for uniformity, and drying to safe moisture levels for storage.[12, 15] Furthermore, the industry has shifted toward the provision of “technology packages,” where seeds are treated with biological or chemical agents to boost resilience.[7, 10] These treatments may include biofertilizers, biostimulants, and biopesticides, a market segment projected to grow at a 12% CAGR as farmers seek to enhance yields while reducing environmental runoff.[16]

Intellectual Property and the Legal Redefinition of Seeds

The transition of seeds from a renewable common resource to a proprietary industrial input was facilitated by significant changes in intellectual property (IP) law. These legal frameworks have fundamentally altered the relationship between farmers and their seeds, often criminalizing the age-old practice of seed saving.

From the Plant Variety Protection Act to Utility Patents

The legal architecture for seed privatization began with the 1970 Plant Variety Protection Act (PVPA), which allowed breeders to obtain certificates for new varieties while still permitting farmers to save seed for replanting.[17] However, the 1980 Supreme Court decision in Diamond v. Chakrabarty ruled that living organisms could be patented under utility patent laws.[18] This was further cemented by the 2001 ruling in J.E.M. Ag Supply v. Pioneer Hi-Bred, which extended utility patent protection specifically to plant breeds.[17]

Utility patents provide much stronger protection than PVPA certificates. They allow patent holders to exclude others from making, using, or selling the patented material, and unlike the PVPA, they do not include a “research exemption” or a “farmer’s seed saving exemption”.[17, 18] This shift has enabled companies to implement restrictive “Technology Agreements” that mandate annual seed purchases and prohibit the reuse of second-generation seeds.[10, 18]

The Impact of Litigation and Monopoly Pricing

The enforcement of these patents has been aggressive, leading to an environment where farmers are often at the mercy of major agricultural conglomerates. As of 2013, Monsanto alone had filed 144 lawsuits against 410 farmers and 56 small farm businesses for alleged patent infringement, known in the industry as “seed piracy” or “brown bagging”.[19, 20]

The result of this legal control is a dramatic increase in input costs for agricultural producers. Between 1990 and 2020, seed prices paid by farmers increased by an average of 170%, while prices for genetically modified (GM) seeds rose by 463%.[17] This outpaces the increase in commodity output prices, suggesting that corporate entities are capturing an increasing share of the value generated by agricultural productivity.

Crop Category	Price Increase (1995-2011)	Proportion of GE Varieties (US)
Soybeans	325%	93%
Cotton	516%	88%
Corn	259%	86%
[19]

The dominance of these patented “technology packages” has also led to a reduction in farmer autonomy. Herbicide drift from neighboring fields can force farmers to adopt GM varieties they did not otherwise choose, simply to protect their harvests from damage, creating a “seed-chemical treadmill” that extracts billions from the agricultural sector annually.[10]

The Rise of Seed Sovereignty and Community-Led Systems

In response to the perceived over-reach of corporate seed control, a global movement for seed sovereignty has emerged, advocating for the rights of farmers to manage their own genetic resources and protecting the “biocultural heritage” of indigenous and local communities.

Community Seed Banks and Sovereignty Movements

Community seed banks (CSBs) serve as localized alternatives to the formal genebank system. First appearing in the late 1980s in countries like Bangladesh, Brazil, Ethiopia, and Nepal, these banks focus on conserving traditional varieties, enhancing access to diverse local crops, and reducing dependency on commercial suppliers.[21, 22] In Nepal, there are now more than 100 self-described community seed banks that not only conserve seeds but also engage in commercial seed production of locally adapted varieties.[21]

These movements are increasingly influencing national policy. In Tanzania, the adoption of the National Ecological Organic Agriculture Strategy (NEOAS) 2023-2030 represents a landmark in the recognition of farmer-managed seed systems.[23] Similarly, Burkina Faso’s national strategy acknowledges farmers as legitimate breeders, challenging the paradigm that only professional institutions can produce high-quality seeds.[23]

The Open Source Seed Initiative (OSSI)

A significant development in the resistance to seed privatization is the Open Source Seed Initiative (OSSI). Launched in 2012, OSSI seeks to create a “protected commons” of crop varieties as an alternative to patented seeds.[24, 25] Using a non-legally-binding “OSSI Pledge,” breeders commit to keeping their varieties free for all to use, grow, save, share, and adapt, provided that they do not restrict others’ use of the same material or its derivatives.[24, 26]

As of 2025, OSSI has partnered with 52 seed companies to offer more than 550 pledged varieties, including unique lettuces, mustards, and tomatoes.[27, 28] This movement emphasizes the “Four Seed Freedoms”: the freedom to save, the freedom to share, the freedom to trial, and the freedom to select or adapt seeds for future use.[24]

Heirloom Networks and Cultural Stewardship

Major heirloom networks, such as the Seed Savers Exchange (SSE) in the United States and Navdanya in India, focus on the cultural and historical significance of seeds. SSE, founded in 1975, maintains over 25,000 varieties of vegetable and fruit seeds at its Heritage Farm in Iowa.[29, 30] These varieties often carry deep family and immigration stories, such as the “Grandpa Ott’s” morning glory, which became the foundation of the SSE collection after being brought to America from Bavaria in the 1870s.[29, 30]

These organizations promote “Earth Democracy,” a paradigm that views seeds not as an asset class or patented commodity but as a web of life that sustains ecosystems and creates the necessary balance for planetary health.[31, 32] In the Philippines, the Global Seed Savers network works to restore indigenous Ifugao rice rituals, which are inextricably linked to the preservation of heirloom rice varieties passed down through generations.[33]

Seed Security Protocols in Fragile and Conflict-Affected States

The destruction of agricultural infrastructure in conflict zones can have devastating long-term effects on food security and rural livelihoods. To address these challenges, international humanitarian organizations have developed sophisticated protocols for seed security response in fragile states (FCS).

The HDP-Nexus and Standards for Seed Aid

Effective response in conflict settings requires the integration of humanitarian, development, and peacebuilding (HDP) approaches. The HDP-Nexus aims to shift from short-term “direct distribution” of free seeds, which can undermine local markets, toward market-based interventions that support long-term sector resilience.[34]

The Standards for Supporting Agricultural Livelihoods in Emergencies (SEADS) provide a framework for determining whether a crop-related response is appropriate and feasible.[34, 35] These standards prioritize a participatory approach, engaging affected communities in the design and targeting of crisis responses to ensure that the seeds provided are culturally relevant and ecologically suited to the local environment.[35]

SEADS Minimum Standards for Crop Crisis Response	Objective
4.1 Initial Assessment Timing	Timely data collection before sowing cycles.
4.2 Livelihoods-Based Approach	Aligning response with long-term household stability.
4.4 Selecting Response Areas	Prioritizing areas with the highest potential impact.
7.1 Infrastructure Rehabilitation	Supporting community-led repair of storage facilities.
10 Guiding Principles	Ensuring interventions “do no harm” to local systems.
[34, 35]

Restoration Case Studies: Syria, Iraq, and Ukraine

The mobilization of seed caches in post-conflict zones is exemplified by the restoration efforts for the ICARDA collection. Savvy staff spent three years moving over 100,000 samples to the Svalbard vault before the Tal Hadya facility outside Aleppo was overrun.[36] These seeds have since been retrieved and used to establish new genebanks in Morocco and Lebanon, where they are being bred for drought tolerance to benefit farmers across the dryland regions.[5, 36]

In Iraq, the “genetic time capsule” of seeds shipped to Syria in 1996 has allowed for the rehabilitation of the Abu Ghraib seed bank, which was destroyed during the 2003 invasion. In 2024, the FAO initiated plans to rebuild the facility and restore the country’s agricultural heritage.[36] Meanwhile, in Ukraine, the National Center of Plant Genetic Resources in Kharkiv has survived repeated shelling, with scientists moving the majority of the collection to a secret location in the west to protect it from the front lines of the current conflict.[36]

Technological Frontiers: CRISPR, AI, and Digital Biopiracy

As we advance toward 2030, the seed sector is being reshaped by new genomic techniques (NGTs) and the digitalization of genetic data. While these technologies offer powerful tools for climate adaptation, they also raise profound ethical and regulatory challenges.

CRISPR and the Development of Climate-Smart Crops

The Clustered Regularly Interspaced Short Palindromic Repeats (CRISPR/Cas9) system has enabled precise modifications of plant DNA, allowing for the targeted improvement of traits such as heat resilience, salt tolerance, and water use efficiency.[37, 38] Unlike traditional transgenics, which involve the insertion of foreign DNA, CRISPR can achieve “precision mutations” that mimic natural evolutionary processes.[37]

Research in 2025 has identified specific regulator genes, such as DREB, HSP, and SOS, as primary targets for enhancing abiotic stress tolerance in major cereals like wheat, rice, and maize.[37, 39] For example, the knockout of the OsSPL14 gene in rice has been shown to increase the number of pollen grains, directly translating to higher grain yields.[40]

CRISPR-Modified Trait Targets (2025 Research)	Regulatory Mechanism	Targeted Genes
Drought Resilience	Stomatal regulation and root architecture.	DREB, ERECTA
Heat Tolerance	Heat shock protein stability.	HsfA1, HSP
Salinity Adjustment	Ion transport and sequestration.	SOS, NHX
Yield Potential	Pollen production and grain density.	OsSPL14
Nutritional Quality	Lycopene and antioxidant accumulation.	crtB (multiplex)
[37, 40]

The regulatory landscape for these technologies is currently in flux. While India approved its first genome-edited, non-transgenic rice varieties in 2025, the European Union is currently debating a two-tier system that distinguishes between SDN1/SDN2 mutations (treated as conventional varieties) and SDN3 insertions (treated as GMOs).[16, 37, 41]

Artificial Intelligence and Precision Breeding

Artificial Intelligence is increasingly utilized to accelerate the breeding process, merging precision gene editing with robotics and high-throughput imaging. Precision phenotyping platforms now allow for the rapid assessment of plant health, identifying subtle variations in stress levels before visible damage occurs.[38] Machine learning models are also being used to design “self-optimizing” inputs and simulate large-scale agricultural scenarios to forecast the impact of future climate extremes on seed performance.[16, 38]

The Challenge of Digital Sequence Information (DSI)

The digitalization of genetic resources, known as Digital Sequence Information (DSI), poses a significant threat to the existing Access and Benefit-Sharing (ABS) regime. DSI refers to the genetic data derived from seeds, which can be stored in global databases and utilized in research and development without physical access to the original plant material.[42, 43]

This shift has led to concerns about “digital biopiracy,” where companies can patent genetic traits derived from sequence data without concluding benefit-sharing agreements with the resource owners.[41, 42] Within the Convention on Biological Diversity (CBD), several options are under consideration to address this issue, ranging from the status quo to a global multilateral fund where a percentage of revenue from products developed using DSI is redirected to the country of origin.[44]

Policy Options for DSI Benefit-Sharing	Mechanism	Access Implications
Option 1: Domestic ABS Integration	Traditonal bilateral approach.	Subject to Prior Informed Consent (PIC).
Option 2: Standard Mutually Agreed Terms	Decoupled from physical access.	Open access with standardized licenses.
Option 2.1: Payment to International Fund	Triggered at commercialization.	Multilateral, redirects to source countries.
Option 0: Status Quo	Divergence of views remains.	Unregulated at international level.
[44]

Conclusion: Toward a Pluralistic and Resilient Seed Future

The global agricultural seed cache and supply system is currently defined by a profound tension between the drive for corporate profit and the necessity of public-good conservation. The centralized infrastructure of genebanks and the “Doomsday” security of Svalbard provide a vital terminal backup for human civilization, yet they cannot substitute for the dynamic resilience of farmer-managed systems. The extreme consolidation of the commercial market has accelerated technological innovation but at a significant cost to farmer autonomy and seed diversity, creating a precarious dependency on a few proprietary varieties.

The future of global food security requires a move toward pluralistic seed systems that recognize the legitimacy of both formal and informal sectors. This involves supporting community seed banks, protecting the rights of farmers to save and innovate with their own seeds, and ensuring that the benefits of emerging technologies like CRISPR and DSI are shared equitably across the globe. As climate change intensifies the frequency of agricultural shocks, the maintenance of a diverse and accessible seed supply remains the most fundamental challenge facing humanity in the 21st century.

Ensuring the integrity of the world’s seed systems will require sustained international cooperation, the strengthening of regional genebank infrastructure, and a legal shift away from monopolistic patents toward a “protected commons” of genetic material. Only by balancing the precision of the laboratory with the ancestral wisdom of the field can we secure a food system capable of feeding a growing global population in a warming and volatile world. The seeds of our future are currently held in both the high-tech vaults of the Arctic and the calloused hands of the world’s smallholder farmers; protecting both is an existential necessity.

——————————————————————————–

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2. Svalbard Global Seed Vault – Crop Trust, https://www.croptrust.org/what-we-do/programs/svalbard-global-seed-vault/
3. New FAO Report Checks Up on the Health of Crop Diversity Conservation, https://www.croptrust.org/news-events/opinions/new-fao-report-checks-up-on-the-health-of-crop-diversity-conservation/
4. The Syrian seed bank that keeps going despite the war | Aeon Ideas, https://aeon.co/ideas/the-syrian-seed-bank-that-keeps-going-despite-the-war
5. How Scientists Are Ensuring Syria’s Seeds Survive War and Climate Change – VICE, https://www.vice.com/en/article/how-scientists-are-ensuring-syrias-seeds-survive-war-and-climate-change/
6. A genebank in tatters – Grain.org, https://grain.org/en/article/4203-a-genebank-in-tatters
7. Seeds Global Market Report 2025 – Research and Markets, https://www.researchandmarkets.com/reports/5939395/seeds-global-market-report
8. Full article: The stories of seed sovereignty, https://www.tandfonline.com/doi/full/10.1080/21683565.2023.2182526
9. Seed Market | Size, Share, Volume 2025 to 2032, https://www.statsmarketresearch.com/global-seed-forecast-2025-2032-768-8054382
10. Seeds and Pesticides: Farming Under Corporate Patents | Farm Action, https://farmaction.us/seeds-and-pesticides-farming-under-corporate-patents/
11. Challenges in the Seed Supply Chain – TraceX, https://tracextech.com/challenges-in-the-seed-supply-chain/
12. How the Seed & Plant Genetics Industry Works | Umbrex, https://umbrex.com/resources/how-industries-work/agriculture-and-food/how-the-seeds-plant-genetics-industry-works/
13. Advanced Seed Management Software for Modern Seed Producers – Folio3 AgTech, https://agtech.folio3.com/seed-management-software/
14. Logistics for seed movement – FreightWaves, https://www.freightwaves.com/news/logistics-for-seed-movement
15. How to strengthen seed sectors for food system outcomes, https://www.sdc-foodsystems.ch/en/k-hub-how-seed-systems-strenghten
16. Crop Science Innovation in 2025: The Frontline of Climate Resilience | Cleantech Group, https://cleantech.com/crop-science-innovation-in-2025-the-frontline-of-climate-resilience/
17. Expanded Intellectual Property Protections for Crop Seeds Increase Innovation and Market Power for Companies – USDA ERS, https://www.ers.usda.gov/amber-waves/2023/august/expanded-intellectual-property-protections-for-crop-seeds-increase-innovation-and-market-power-for-companies
18. going to seed?: using monsanto as a case study to examine the patent and antitrust implications of, https://www.law.ua.edu/wp-content/uploads/archive/law-review-articles/Volume%2061/Issue%203/smith.pdf
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20. The Encroachment of Intellectual Property Protections on the Rights of Farmers – Drake Journal of Agricultural Law, https://aglawjournal.wp.drake.edu/wp-content/uploads/sites/66/2016/09/agVol15No1-Rogers.pdf
21. Community Seed Banks – CGSpace, https://cgspace.cgiar.org/server/api/core/bitstreams/9357aa73-02eb-405f-971c-f894a412c18f/content
22. The Multiple Functions and Services of Community Seedbanks – ResearchGate, https://www.researchgate.net/publication/268812572_The_Multiple_Functions_and_Services_of_Community_Seedbanks
23. Countries Advancing Seed Sovereignty | Agroecology Coalition, https://agroecology-coalition.org/countries-advancing-seed-sovereignty/
24. Open Source Seed Initiative – Wikipedia, https://en.wikipedia.org/wiki/Open_Source_Seed_Initiative
25. Open Source Seed, a Revolution in Breeding or Yet Another Attack on the Breeder’s Exemption? – PMC – NIH, https://pmc.ncbi.nlm.nih.gov/articles/PMC6759460/
26. What Are Open Source Seeds? – Bhoomi Devi Seeds, https://www.bhoomideviseeds.com/what-are-open-source-seeds
27. Open Source Seed Initiative – Home of the OSSI Pledge, https://osseeds.org/
28. Open Source Seed Initiative – High Desert Seed + Gardens, https://highdesertseed.com/open-source-seed-initiative/
29. About – SeedSavers, https://seedsavers.org/about/
30. Seed Savers Exchange (SSE) | Research Starters – EBSCO, https://www.ebsco.com/research-starters/science/seed-savers-exchange-sse
31. Reports – Navdanya international, https://navdanyainternational.org/publications-category/reports/
32. Publications – Navdanya international, https://navdanyainternational.org/publications-docs/
33. About | Global Seed Savers, https://globalseedsavers.org/about/
34. ALP 2: Humanitarian seed security response in fragile and conflict …, https://issdafrica.org/alp-2-humanitarian-seed-response-in-fragile-and-conflict-affected-states/
35. SEADS Handbook, https://handbook.hspstandards.org/en/seads/2022/
36. In War Zones, a Race to Save Key Seeds Needed to Feed the World …, https://e360.yale.edu/features/seed-banks-war-palestine-ukraine-sudan-syria
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39. CRISPR/Cas9: a sustainable technology to enhance climate resilience in major Staple Crops – Frontiers, https://www.frontiersin.org/journals/genome-editing/articles/10.3389/fgeed.2025.1533197/full
40. Climate-smart Crops: Delivering Tolerant Genes Based on Engineered Nanocarriers and CRISPR/Cas Genome-editing System – CABI Digital Library, https://www.cabidigitallibrary.org/doi/10.1079/9781800627307.0022
41. Seeds of Resistance: GMO Deregulation and Grassroots Mobilization, https://navdanyainternational.org/publications/seeds-of-resistance-report/
42. Digital Sequence Information and the Access and Benefit-Sharing Obligation of the Convention on Biological Diversity – PMC – PubMed Central, https://pmc.ncbi.nlm.nih.gov/articles/PMC10043851/
43. Potential implications of the use of digital sequence information on genetic resources for the three objectives of the Convention on Biological Diversity, https://www.cbd.int/abs/dsi-views/cgiar-dsi-en.pdf
44. DIGITAL SEQUENCE INFORMATION ON GENETIC RESOURCES – Convention on Biological Diversity, https://www.cbd.int/doc/c/2e3e/f4c0/1d7922921540d01f0c45fd84/wg2020-05-crp-07-en.pdf