Ghana’s Country Report on Genome Editing (GEd) Landscape Analysis
EXECUTIVE SUMMARY
Background: Integration of knowledge in Genome Editing (GEd) and other emerging technologies is of growing importance to Ghana, aiming to strengthen the country's scientific reputation in this emerging field. In response, Ghana has established institutions focused on biotechnology research and its regulation and has developed policies and frameworks to guide GEd research, application.
Key findings: The National Biosafety Authority (NBA), established by legislative instrument, is mandated to supervise, approve, register and communicate Modern Biotechnology and GEd activities in the country. The NBA collaborates with multiple regulatory bodies to ensure food and environmental safety. Although several institutions and scientists have shown strong interest and launched genome editing research initiatives, there are currently no GEd products in the market, as most research projects are still in discovery and early development stages. Increased capacity building, funding, and collaborations are critical to accelerating the development and commercialization of GEd products in Ghana.
Trends: There is expansion of commercial farming (especially cashew, maize, and horticultural crops). There is also an increasing adoption of improved seed varieties and mechanization in some areas, though most farms remain low-input. Most farmers desire to involve technology in their farming practices, but adoption of technologies is driven by financial investments. There is also land use pressure due to population growth, leading to shorter fallow periods and soil degradation. Policy implications related to GEd adoption in Ghana are as follows:
Policy Implications (Short- and Medium- and Long-Term):
Short-term: Ghana should publicize the guidelines by the National Biosafety Authority (NBA) to provide regulatory certainty for researchers and developers. Targeted capacity building will train regulators, breeders, and researchers in editing techniques, risk assessment, and detection is important. These efforts should be complemented by strong public engagement through farmer fora, media, and extension services in local languages to build trust. Updating seed certification and variety release systems to accommodate genome-edited crops will prepare markets, while tax incentives, dedicated funding, and public–private partnerships can stimulate early innovation. Ghana has limited capacity for genome editing; therefore, local institutions should forge partnerships with regional and international institutions.
Medium- and Long-term: Harmonization with Economic Community of West African States (ECOWAS) and the African Union (AU) will further facilitate trade, seed movement, and research collaboration. At the same time, genome editing should be mainstreamed into breeding programs for staple crops such as cassava, yam, maize, and cowpea, with attention to equitable access for smallholders, women, and vulnerable farming communities. Genome editing should also be integrated into the curricula of higher education institutions to strengthen teaching, research, and innovation capacity.
To sustain progress, institutional capacity must be strengthened through a National Genome Editing Innovation Hub linking universities, Council for Scientific and Industrial Research (CSIR) institutes, seed companies, and regulatory agencies, supported by national reference laboratories for detection and safety assessment. Long-term financing will be critical, and a dedicated National Agri-Biotech Fund drawing from public, private, and donor contributions can secure resources for research and commercialization. Socioeconomic safeguards, including monitoring of adoption rates, productivity impacts, and benefit distribution, will ensure inclusivity, while periodic regulatory reviews will maintain adaptive governance.
Priority GEd Organisms
Overview
1.1. Description of Ghana’s Agricultural Landscape
Ghana’s agricultural landscape is diverse and shaped by its climate, soils, and cultural practices. In 2024, Ghana's agriculture sector contributed approximately 22.2% to the Gross Domestic Product (GDP) and employed between 35% and 40% of the total workforce serving as the backbone of food security and rural livelihoods. Ghana’s agricultural landscape is a mosaic of cocoa forests, food crop fields, savannah grasslands, and coastal farms, shaped by both traditional smallholder practices and emerging commercial agriculture. The landscape is characterized by the following features:
Agroecological Zones: Ghana’s land is divided into six major agroecological zones: the Sudan Savannah, Guinea Savannah, Forest-Savannah Transition, Deciduous Forest, Rainforest, and Coastal Savannah. The northern savannah zones are dominated by open grasslands, scattered shrubs, and drought-tolerant crops like sorghum, millet, groundnut, maize, yam, and cowpea. The forest zones in the south have richer soils and support tree crops such as cocoa, oil palm, rubber, and coffee, alongside plantain, cassava, cocoyam, and maize. The coastal belt supports fishing communities, coconut groves, maize, vegetables, and salt production.
Farming Systems: Predominantly smallholder and subsistence-based, with most farmers cultivating less than two hectares. Shifting cultivation and mixed cropping are common, with intercropping of maize, cassava, yam, and legumes to reduce risk and improve soil fertility. Cash crop plantations (especially cocoa in the forest zones) coexist with food crop farms.
Major Crops and Livestock: Crops: Cocoa (the main export crop), maize, cassava, yam, plantain, rice, sorghum, millet, groundnut, and vegetables. Tree crops are mostly cocoa, oil palm, cashew, coconut, and citrus. Livestock are mainly cattle, goats, sheep, and poultry, mainly concentrated in the savannah regions.
Irrigation and Water Resources: Rain-fed agriculture dominates, making production highly vulnerable to seasonal rainfall patterns and climate variability. Limited irrigation schemes exist, notably around the Volta River and in northern Ghana, supporting rice, vegetable, and dry-season farming.
Rural Landscape and Infrastructure: Scattered villages and small towns surrounded by farm plots, with bush fallow systems in some areas. In forest regions, cocoa farms and food crop fields are interspersed with secondary forests. In the savannah, open fields of cereals and legumes stretch across rolling plains.
National Agricultural Development / Investment Plans
Ghana’s agricultural transformation agenda, guided by frameworks such as the Medium-Term National Development Policy Framework (MTNDPF) and the National Agricultural Investment Plans (NAIPs), emphasizes food security, resilience to climate change, value chain development, and modernization of production systems. Within these priorities, the integration of advanced science and technology is recognized as a driver of sustainable growth. Policies on biotechnology and biosafety, including the Biosafety Act (2011) and the National Biotechnology Development Programme, provide a regulatory and strategic foundation for safe research, testing, and adoption of innovative technologies. Genome editing, with its precision and cost-effectiveness, aligns strongly with these frameworks by offering tools for developing high-yielding, stress-tolerant, and nutrient-enhanced crop varieties that directly respond to Ghana’s agricultural development priorities. Thus, embedding genome editing within national agricultural and biotechnology strategies not only strengthens policy coherence but also accelerates the country’s capacity to achieve food and nutrition security, promote agro-industrialization, and meet both national and continental commitments such as the CAADP/Malabo Declaration.
1.2 Regional Frameworks for Biotech and GEd
Ghana has been proactive in aligning its biotechnology and genome editing agenda with regional frameworks under the African Union AUDA-NEPAD, and the ECOWAS subregion. The country has domesticated elements of the AU’s Science, Technology and Innovation Strategy for Africa (STISA-2024) and the Comprehensive Africa Agriculture Development Programme (CAADP/Malabo Declaration), which emphasize agricultural innovation and biotechnology as pathways to food security and resilience. Through the Biosafety Act (2011) and the establishment of the National Biosafety Authority (NBA), Ghana has created a regulatory environment that is consistent with the AU Model Law on Biosafety and regional biosafety harmonization efforts. Moreover, Ghana participates in ECOWAS dialogues on biotechnology and biosafety, contributing to collective positions on modern biotechnologies, including genome editing, and ensuring that its policies are regionally coherent. This demonstrates Ghana’s commitment not only to national agricultural modernization but also to continental strategies that promote safe, ethical, and strategic deployment of genome editing for sustainable development.
1.3. Challenges and Opportunities: Justification of GEd Assessment based on Current Issues Identified in Ghana
Opportunities:
Robust Regulatory Foundations
Ghana’s Biosafety Act of 2011 provides the legal framework that includes provisions for emerging technologies like genome editing and gene stacking. In 2023, the NBA published specific guidelines for genome editing featuring case-by-case risk assessment, regulatory clarity, and exemptions for non-transgenic edits. The guidelines encourage pre-submission consultations to foster predictability and smoother regulatory processes.
Policy Coherence and Alignment with Continental Agendas
The country’s broader policy architecture encompassing the Science Technology and Innovation Policy, NAIP, FASDEP, and relevant Acts like CSIR and Biosafety provides a conducive environment for integrating genome editing. Institutional alignment with AUDA-NEPAD and African Union Agenda 2063 positions Ghana to benefit from continental support for biotech innovations. Ghana has already aligned with continental frameworks by publishing genome editing guidelines, making it one of only four African countries to do so (alongside Kenya, Nigeria, and Malawi).
Technological Promise
Genome editing presents cost-effective, precise tools for developing stress-resilient, high-yield, and nutrient-rich crop varieties, directly addressing food insecurity and climate challenges. It also offers environmental benefits by reducing reliance on agrochemicals, thereby safeguarding biodiversity and ecosystem health. The demand driven nature of the technology encourages its adoption/
Capacity Building through Education and Research
Ghana’s constitutional mandate to promote science and technology (1992 Constitution, Section 38(3)(a)) supports integration of advanced biotech, including genome editing, into education systems. Ghana has human capacity and basic infrastructure for genome editing activities. Collaborative training programs, such as STEM-focused curricula designed in partnership with the universities, research institutions and international researchers, aim to strengthen R&D pathways from education to commercialization.
Challenges:
Political Resistance and Anti-GMO Sentiment
Political resistance and anti-GMO activism have historically slowed advances in biosafety regulations across Africa; Ghana has not been immune to these pressures. Civil society groups, including Food Sovereignty Ghana and the Ghana Catholic Bishops’ Conference, have challenged GMO commercialization, including through court actions that delayed Bt cowpea commercialization. Debates around the Plant Breeders’ Bill raise concerns around seed sovereignty and Multinational Corporation (MNC) control highlighting tension between protecting breeders' rights and safeguarding farmers’ autonomy.
Regulatory and Institutional Capacity Gaps
Despite progress, regulatory implementation remains uneven, and many African countries grapple with limited capacity to manage emerging technologies effectively. Even where regulations exist, uptake can stall when guidelines are not well understood or enforced, a risk mitigated in Ghana by the NBA’s proactive publication of detailed genome editing protocols. The NBA does not have capacity to confirm or verify reports submitted by clients (applicants) and this raises questions for some people.
Infrastructure and Resource Constraints
Ghana's limited research infrastructure, funding, and specialized facilities restrict access to and application of advanced DNA technologies. STEM capacity needs strengthening across academic institutions to drive innovation and sustain genome editing research.
Intellectual Property and Commercialization Issues
In Africa, high seed costs and restrictive IP regimes previously hampered GM seed adoption; similar challenges risk emerging in the genome editing space unless governance and licensing models are equitable.
Public Understanding and Trust
Public education remains essential. Misconceptions about biotech—including fears around health, environmental impact, or “neo-colonial control”—persist among communities. Without robust stakeholder engagement and transparency, mistrust could undermine adoption of genome editing tools.
Political Context and Implementation Risks
Ghana has stable democratic system with well-established constitutional rule. However, change in government is common. Since 1992, there has been change of government in at least every eight years. Since different political parties may have different priorities, biotechnology innovations such as genome editing might not be a priority to certain governments. This may impede resource allocation and affect GEd research and development in the country. Policy inconsistency and populist approaches may hamper long-term biotech strategies, as has been seen in other sectors. However, there has been consistency in political will towards biotechnology innovation over the past years spanning different political administration in the country. Broader governance challenges including corruption, weak accountability, and lack of transparency can slow policy implementation and deter investment in scientific innovation.
Justification of Assessment
- Empirical grounding: The analysis draws on recent, specific sources involving NBA genome editing guidelines (2023), national policymakers, and continental frameworks to substantiate both opportunities and challenges.
- Balanced scope: While Ghana benefits from strong foundational policies and regulatory clarity, the assessment acknowledges real-world obstacles including political resistance, institutional capacity, infrastructure, IP barriers, public skepticism, and governance limitations.
- Contextual nuance: The inclusion of civil society actions (e.g., anti-GMO lawsuits), broader political economy issues (transparency, corruption), and infrastructural limitations reflects a realistic, holistic perspective rather than an overly optimistic narrative.
1.4. Objectives
The landscape analysis sought to get information to inform strategic decision-making and policy development so that Ghana can harness genome editing responsibly and effectively for innovation, food security, and sustainable development. Thus, the main objective was to generate a clear and comprehensive understanding of the current state, opportunities, and challenges of genome editing research, application, and regulation in the country.
Specifically, the study sought to:
Provide an evidence-based description and analysis of the status of modern biotechnology and GEd in Ghana, highlighting key trends, intervening factors and areas for attention, as well as fundamental aspects such as science/technical, political, geo-political, social, human, culture and traditions, etc. that support or hinder advances in the application of genome editing in agriculture and food systems.
Identify the emerging needs in Ghana that GEd can readily address, especially those which require rapid responses at scale. These needs will focus on food systems i.e., agricultural productivity, reduction of postharvest losses, climate adaptation, food and nutrition security, diversified and healthy diets, and
Identify staple and indigenous crops based on Ghana national context that can improve the livelihoods of people through food security, better nutrition, climate resilience, and sustainable productivity.
2. APPROACH / METHODOLOGY
(Literature Review, Visits, Interviews, Questionnaires)
Data was collected from secondary and primary sources. The secondary data was gathered and assembled from the published literature and stakeholders (institutional) databases including websites. The primary data was assembled through live interviews using online data collection kit (ODK), surveys, and/or email communications through sharing of questionnaires in a word document format. The primary data further confirmed and/or improved/strengthened secondary data. Data from these two sources (primary and secondary) were then analysed, synthesized and packaged in terms of:
Status of biotech/GEd regulatory and policy frameworks: Components of the regulatory and policy frameworks were identified and documented via the secondary data (published literature, institutional website databases) and primary data (live interviews, surveys, and email communication channels) acquisitions.
Projects, crops and traits ready for commercialization and scaling: Similar to regulatory and policy frameworks, biotech and particularly GEd projects, crops and traits including key stakeholders (partnerships) involved, and sources of funding were documented through secondary data (published literature, website databases) and primary data acquisitions. The synthesized and analysed data from GEd projects which included crops, livestock, fisheries and forestry, and traits were used to further:
identify emerging needs to address economic, social and environmental/climate benefits, and,
provide information on the status of existing human and infrastructures capacities in GEd Technologies in target countries,
Staple, Indigenous and commercial crops that need improvement using GEd technology: The data on GEd projects were further disaggregated (categorized) in terms of those with highest potential that need GEd technology for national socio-economic impact and the possibility of successful completion in view of national acceptance, resource requirements and scalability.
Institutional capacity (human capital, laboratory and field infrastructure, equipment): Data on existing institutional capacities in terms of human capital, lab and field infrastructure, equipment to engage in GEd R&D, commercialization and scaling were gathered from the respondents during the primary data exercise.
Stakeholder mapping:Key stakeholders, institutions and, where appropriate, personnel, were identified to provide critical data on existing biotech and GEd technologies’ interventions, spread across the five (5) stakeholders categories identified in the Questionnaires (Data collection tools), namely, regulatory agencies, research organizations/institutions, universities, private sector/industry and other government agencies/ministries and policymakers.
Database Systems and Database Management: Appropriate data collection tools (Questionnaires) and platforms to support primary data collection were developed. The questionnaires were tailor-made and specific to identify and map stakeholder categories, namely, regulatory, research, universities, private sector and government and other agencies were used to produce data sets (data systems). The data set gauged a Ghana’s preparedness (capabilities) or lack of it to fully embrace, engage and scale up GEd technologies. To kick-off the primary data collection, enumerators, were identified, selected, and recruited. These enumerators were taken through an online training/induction exercise on the use of ODK and corresponding data collection questionnaires/tools by the IT team and the train-the-trainers (ToT) from the Africa Harvest and AGTECH consortium. The questionnaire tools and ODK platforms were pre-tested before use and the exercise rolled out to generate data that was used to build Data Base Systems and Data Base for each country. Both methodological and data triangulation to reduce bias and enhance the validity and reliability of the findings were used. All collected data were encrypted and stored in a secure, centralized server, ensuring participants’ confidentiality and compliance with ethical standards.
Data synthesis and statistical analysis: Data collected was synthesized and, where appropriate (quantitative), statistically analysed using SPSS. Variables subjected to statistical tools included but not limited to i) number of elements describing the regulatory frameworks, ii) number of applications received and approved (field testing, registration and commercialization), iii) number of R&D institutions and their personnel and lab/field infrastructure, iv) number of projects, v) number of crops or livestock, vi) number of traits and so on. Each country was “mapped” (reported) according to its regulatory framework, biotech and GEd projects, crops, livestock, fisheries or forestry and traits, GEd training, human capital, infrastructure and laboratory capabilities, funding opportunities etc.
3.1. Signatory and Ratification of Multilateral Food and Environment Treaties / Agreements
Ghana is a signatory to numerous Multilateral Environmental and Food Agreements or Treaties, including the Codex-Alimentarius Commission (CAC), the United Nations Framework Convention on Climate Change (UNFCCC), the Convention on Biological Diversity (CBD), Cartagena Protocol, the Nagoya-Kuala Lumpur Supplementary Protocol on Liability and Redress, Access and Benefit Sharing, etc. (Table 1).
The CAC, often called the Food Code, is jointly run by the United Nations Food and Agriculture Organization (UN-FAO) and World Health Organization (WHO) to develop international food safety and quality standards. Ghana became a member of CAC in 1971, and actively participates in Codex meetings, committees, and standard-setting processes. The Ghana Standards Authority (GSA) serves as the National Codex Contact Point, coordinating Codex activities in the country. Being a Codex member obliges Ghana to harmonize its food safety regulations with internationally accepted standards. This provides an important framework for evaluating food products derived from modern biotechnologies such as genome editing, ensuring that they meet both safety and international trade requirements. This strengthens Ghana’s position in adopting genome editing, since Codex has developed guidelines on food safety assessment of foods derived from modern biotechnology, which Ghana, as a signatory, can use to guide local regulatory decision-making.
Ghana signed the UNFCCC in 1992 and ratified it in 1995. Ghana signed and ratified the UN CBD in 1992. Ghana is a member of the Nagoya-Kuala Lumpur Supplementary Protocol on Liability and Redress, Access and Benefit Sharing, which it signed in 2012 and ratified in 2019.
3.2. National Regulatory Framework
The competent authority responsible for issuing final authorizations for GMO and genome editing (GEd) products in Ghana is the National Biosafety Authority (NBA), formerly known as the National Biosafety Council (NBC) from 1999 to 2015. The NBA operates under the mandate of the Biosafety Act, 2011 (Act 831) and Legislative Instrument (L.I.) 2383.
The Biosafety Act was enacted to ensure an adequate level of protection in the safe development, transfer, handling, and use of genetically modified organisms (GMOs) resulting from biotechnology, particularly where such activities may pose risks to human health and the environment. The NBA became operational in 2015, with the primary role of leading the implementation of the Act’s provisions, and of establishing a transparent and predictable process for reviewing and making decisions on GMOs and related activities. The chief executive officer of the NBA under the Ministry of Environment, Science, Technology and Innovation is the authority in charge of handling applications of GMO and GEd products. However, there is a Technical Advisory Committee (TAC), appointed by the Board of NBA with specific functions which include:
Act as the national advisory body on matters concerning or related to genetic modification or organisms.
Carry out risk assessment and audit of applications.
Advise, on request or on its own accord, the Minister and through the Board and the Minister.
advise the Ministries and appropriate bodies on matters concerning genetic modification of organisms including:
aspects relating to the introduction and development of genetically modified organisms into the environment.
proposals for specific activities or projects concerning genetic modification of organisms.
aspects concerning the contained use of genetically modified organisms.
the importation and exportation of genetically modified organisms; and
proposed regulations and written guidelines.
The NBA is responsible for laboratory/facility certification, certification/approval/authorization of research/product development, contained or confined use, introduction into the environment, placing on the market, import/export, transit, and product registration.
Regulations & Guidelines
Ghana’s regulatory framework for handling and regulating GMO and GEd products are the Biosafety Act (Act 831) 2011, Biosafety Guidelines for Handling Requests for Use of Genetically Modified Organisms (GMO) in Ghana 2016, and the Biosafety (Management of Biotechnology) Regulations 2019 and Guidelines of Genome Editing and Gene stacking (Table 2). The Ghana Biosafety Regulatory system is a coordinated framework with a coordinating Agency, the National Biosafety Authority (NBA), whiles monitoring and enforcement issues are handled by the existing regulatory agencies, including the following bodies:
The Food and Drug Authority (FDA)
The Environmental Protection Authority (EPA)
The Customs Service
Plant Protection and Regulatory Services Directorate (PPRSD)
Veterinary Service Directorate (VSD)
Ghana Standards Authority (GSA)
Local Government Act (LGA)
Ghana Revenue Authority (GRA)
Municipal/District Assemblies
Table 1: Status of Country Participation in Key Multilateral Environmental Agreements (MEAs)
Multilateral Environmental Agreements (MEAs) / Treaties | Date of Ratification / Accession by the Country | Reference |
Codex Alimentarius Commission is a joint body of the Food and Agriculture Organization (FAO) and the World Health Organization established to develop international food standards, guidelines, and codes of practice. critical for risk assessment of food developed through genome editing |
Member 1966 |
https://www.fao.org/fao-who-codexalimentarius/about-codex/members/en/
|
Convention on Biological Diversity (CBD) | 1992 | https://www.unep.org/explore-topics/green-economy/what-we-do/environment-and-trade-hub/ghana |
UNFCCC convention on climate change | Signed 1992 Ratified 1995 | https://climate-transparency-platform.org/country/ghana?utm |
Nagoya Protocol on Access and Benefit Sharing (ABS) | Signed 2012 Ratified 2019 | https://unfccc.int/cop3/fccc/climate/fc2to006.htm?utm |
Table 2: Regulatory and Institutional Landscape for Genome Editing (GEd) in Ghana
Institutions | Mandate / Relevance to GEd | Regulatory instruments | Date of enactment or publication | Coverage/ scope | Reference |
National Biosafety Authority (NBA)
|
| Biosafety Act (Act 831) | 2011 | R&D, Commercialisation, Trade, etc. | |
Biosafety Guidelines for Handling Requests for Use of Genetically Modified Organisms (GMO) in Ghana | 2016 |
| https://leap.unep.org/en/countries/gh
| ||
The Biosafety (Management of Biotechnology) Regulations 2019 | 2019 |
| http://nepad-abne.net/wp-content/uploads/2019/ 04/ABNE-in-Africa-2019_final.pdf | ||
Guidelines for Genome Editing | 2023 |
|
3.3. Socio-economic considerations for decision-making
In Ghana, socio-economic considerations play a central role in shaping decision-making around genome editing. One of the foremost priorities is food and nutrition security, as the technology holds potential to deliver high-yielding, climate-resilient, and nutrient-enriched crops that can address the country’s persistent challenges of malnutrition and food shortages. At the same time, the livelihoods of smallholder farmers, who form the backbone of Ghana’s agricultural sector, must be carefully weighed. Decisions about genome editing need to ensure that seed affordability, accessibility, and intellectual property arrangements do not disadvantage these farmers but instead enhance their productivity, income, and resilience. Trade and market access also feature prominently, given Ghana’s status as a member of many international organizations such as the Codex Alimentarius Commission. Aligning genome editing applications with Codex standards is vital to safeguard international market opportunities for key exports such as cocoa, cashew, and horticultural crops, while preventing potential trade barriers.
Public perception and acceptance form another crucial consideration. The legacy of anti-GMO debates in Ghana has shown that consumer trust, cultural values, and civil society advocacy significantly influence biotechnology adoption. Thus, transparent communication, inclusive stakeholder engagement, and sustained public education will be critical for building legitimacy and trust in genome-edited products. Environmental sustainability is also central, as genome editing offers opportunities to reduce agrochemical use and develop pest- and disease-resistant varieties, but decisions must also account for potential ecological risks such as biodiversity loss or unintended long-term impacts.
Equity and access represent another layer of socio-economic concern. Policymakers must guard against scenarios where only large-scale commercial farmers or multinational corporations reap the benefits of genome editing, leaving smallholders marginalized. Finally, governance and policy coherence will determine the extent to which genome editing is successfully integrated into Ghana’s agricultural system. Effective implementation of the Biosafety Act, alignment with national frameworks such as the Food and Agriculture Sector Development Policy (FASDEP) and the National Agricultural Investment Plans, and consistency with continental strategies like the AUDA-NEPAD and the Malabo Declaration are all critical to ensuring that genome editing contributes meaningfully to national development goals. In sum, Ghana’s socio-economic considerations for genome editing revolve around balancing food security, farmer livelihoods, trade competitiveness, sustainability, equity, and public trust within a coherent policy and governance framework.
Social, human, culture and traditions and how they could advance or hinder adoption of GEd Ghana
In Ghana, social and cultural factors are deeply intertwined with agricultural practices and can play a decisive role in shaping the acceptance or resistance to genome editing. Agriculture is not merely an economic activity but a way of life, embedded in community identity, traditions, and social relations. For many rural households, farming practices are inherited across generations, and seed-saving, seed exchange, and communal farming traditions are culturally significant. These customs can both advance and hinder genome editing adoption. On one hand, strong community networks and farmer cooperatives could serve as channels for knowledge sharing and rapid diffusion of new technologies, especially if genome-edited crops are shown to reduce labor, enhance yields, and improve food security. On the other hand, cultural attachment to traditional seed varieties and skepticism toward “modern” or “foreign” technologies may slow down acceptance, particularly where communities fear loss of seed sovereignty or dependence on external seed suppliers.
Human and social factors, such as literacy levels, trust in institutions, and access to information, also shape adoption pathways. Low levels of scientific literacy in many farming communities can create vulnerability to misinformation, which was evident during earlier controversies around genetically modified organisms (GMOs). Civil society groups and religious institutions in Ghana, including the Catholic Bishops’ Conference, have previously voiced strong opposition to GMOs, citing ethical, health, and cultural concerns. These experiences suggest that without transparent communication, inclusive dialogue, and sensitivity to ethical and cultural worldviews, genome editing may face similar opposition. At the same time, Ghana’s relatively youthful population, increasing urbanization, and expanding use of digital platforms present opportunities for science communication and public engagement that can demystify genome editing and build trust in its applications.
Traditions around food and diet further influence perceptions of agricultural innovations. Staple crops such as cassava, yam, maize, and plantain carry cultural importance and are tied to rituals, festivals, and identity. Any intervention in these crops, whether for nutritional enhancement or resilience, must therefore be framed in ways that respect cultural food values. Conversely, the cultural centrality of these crops could become a powerful driver of adoption if genome editing demonstrably secures their availability against threats like pests, diseases, or climate stress.
In essence, Ghana’s social and cultural context presents a double-edged dynamic: traditions, values, and social networks could facilitate acceptance of genome editing if the technology is aligned with community needs, ethical standards, and food traditions. Yet these same dynamics could also hinder adoption if stakeholders perceive genome editing as eroding cultural autonomy, threatening seed sovereignty, or conflicting with religious and moral values. Building legitimacy for genome editing in Ghana will therefore depend on inclusive, culturally sensitive, and transparent engagement that bridges scientific innovation with the lived realities of farming communities.
3.4. Analysis of Genome Editing Programs and Projects
Ghana currently has 2 ongoing and 2 set to start soon GEd projects on crops. Many scientists across different institutions and laboratories have also expressed interest in genome editing to improve crop traits (Table 3). Majority of the labs have now initiated development and optimization of genetic transformation and regeneration protocols. Though GMO products are at different stages of development in Ghana, the original transformation events did not occur in Ghana. The traits were either introgressed into local cultivars, or the cultivars were sent outside the country for the transformation event. With the advent of genome editing and the interest expressed among scientists in different institutions, researchers are actively embarking on optimizing transformation and regeneration protocols to pave the way for successful locally embarked genome editing processes for crop improvement.
Table 3: Genome Editing Projects and Programs in Ghana
Projects/ Programs (organism) | Trait | Collaborating partners | GEd Technique | Stage (Lab, field trial, commercialization) | Funding (US$) | Funding source | Reference |
Development of Improved Yam Varieties with Yam Mosaic Virus Resistance using CRISPR-Cas9 Editing | Yam Mosaic Virus Resistance | Biotechnology and Nuclear Agriculture Research Institute (BNARI) and University of California, Davis | CRISPR/Cas9 | Discovery | Not specified | The African Orphan Crops Consortium (AOCC) | Survey/interviews |
Development of CRISPR-Cas9 Edited Higher Yielding Drought and Salt Tolerant Rice Varieties | Drought and salt tolerance | BNARI and University of California, Davis
| CRISPR/Cas9 | Discovery | Not specified | The African Orphan Crops Consortium (AOCC) | Survey/interviews |
Boosting beta carotene content in sweet potatoes through genome editing | Boosting beta carotene | University of Cape Coast and the University of North Carolina, USA | CRISPR/Cas9 | Not yet started | Not specified | Bayer | Survey/interviews |
Improving the shelf life of tomato | Longer shelf life | UCC and BNARI
| CRISPR/Cas9 | Discovery | Not specified | Not specified | Survey/interviews |
3.5. Analysis of Human Capital and Institutional Capacity
Analysis of Human Capital and Institutional Capacity for Genome Editing in Ghana
Existing Capacity
Ghana has a growing pool of scientists trained in plant breeding, molecular biology, and biotechnology, with institutions such as the University of Ghana, Kwame Nkrumah University of Science and Technology (KNUST), and the Council for Scientific and Industrial Research (CSIR) providing relevant training and research platforms. The National Biosafety Authority (NBA) provides a regulatory framework for biotechnology, while Ghana’s participation in regional initiatives (e.g., African Biosciences networks, AUDA-NEPAD programmes) facilitates exposure to genome editing tools and biosafety practices. Collaborative projects with international partners have introduced elements of genome editing technologies, and a few researchers have short-term training in CRISPR-Cas and related methods. Notable among the Scientists are the following:
Dr. Andrews Sarkodie Appiah, Manager of the Plant Disease Research Centre (PDRC) at BNARI, under Ghana Atomic Energy Commission (GAEC), specifically working at the Biotechnology Centre in Accra.
Dr. Samuel Mahama, Senior Research Scientist, Council for Scientific and Industrial Research (CSIR). Supports deployment of genome editing to achieve food self-sufficiency and reduce reliance on agro-chemicals in Ghana's staple crops.
Dr. Seth Manteaw, Affiliation: Director, Institute of Science, Technology and Information (CSIR).
Prof. Eric Yirenkyi Danquah, a plant geneticist at the University of Ghana, is the founding director of WACCI (West Africa Centre for Crop Improvement) and former director of the Biotech Centre. His work in molecular genetics and biotechnology for crop improvement provides leadership and capacity-building momentum. He offers distinguished academic leadership in biotechnology in Ghana.
Dr. Francis Tanam Djankpa, Senior Lecturer in Molecular and Cellular Sciences, University of Cape Coast (UCC). He is a vocal advocate for adopting genome editing in Ghana to enhance crop resilience and agricultural productivity.
Dr. Samuel Acheampong, a lecturer, and researcher at the Department of Molecular Biology and Biotechnology, University of Cape Coast (UCC). Leading CRISPR-based gene editing research—targeting the sweet potato genome to enhance beta-carotene (pro–vitamin A) content and increase yield.
Dr. Joseph Opoku Gakpo, Alliance for Science Ghana, Joynews, Co-founder (with Samuel Acheampong) of HavAfric, arguably Africa’s first CRISPR-seed startup.
Capacity Gaps/Needs
- Specialized Skills: Limited number of researchers with hands-on expertise in genome editing tools, bioinformatics pipelines, and functional genomics.
- Infrastructure: Laboratories are under-equipped for advanced genome editing (e.g., lack of next-generation sequencing platforms, high-throughput genotyping tools).
- Funding and Sustainability: Inadequate domestic funding for long-term research projects in genome editing; heavy reliance on external donors.
- Regulatory Expertise: While a biosafety framework exists, regulatory capacity to evaluate genome-edited products (distinct from GMOs) is still limited
- Extension Linkages: Weak institutional arrangements for translating lab-based innovations into breeding pipelines and farmer-ready varieties.
Knowledge Transfer Gaps
- Research-to-Industry Linkages: Limited collaboration between research institutions and private seed companies hampers commercialization of genome-edited products.
- Extension Services: Weak capacity of extension agents to understand and communicate new biotechnologies to farmers, leading to slow adoption.
- Regional Collaboration: Insufficient leveraging of South-South partnerships with African countries that have advanced genome editing programs (e.g., Nigeria, South Africa).
- Public Awareness: Low awareness among policymakers, farmers, and the general public about genome editing compared to GMOs, creating communication gaps and potential mistrust.
3.5.1. Research, Development and Academic Institutions
Key Institutions & Their Roles
University of Ghana – Biotechnology Research Centre (Biotech Centre)
Established in 2007 under DFID/NRI, this Centre supports molecular studies—initially focused on diseases such as coconut lethal yellowing and cassava mosaic, among others. It offers MPhil and PhD programmes in biotechnology, particularly in plant and animal sciences, and supports research in genetics and molecular biology—creating a strong base for genome editing capacity.
West African Centre for Cell Biology of Infectious Pathogens (WACCBIP). A World Bank African Centres of Excellence initiative based at University of Ghana, Legon. Equipped with facilities for genome sequencing, bioinformatics, flow cytometry, confocal microscopy, and high-performance computing—capable of providing genome editing and molecular biology support
University of Cape Coast (UCC) – Department of Molecular Biology and Biotechnology
The site of Ghana’s CRISPR-mediated gene-editing project. The project targets increased β-carotene (pro-vitamin A) content and yield in sweet potatoes.
CSIR — Crops Research Institute (CRI) & Plant Genetic Resources Research Institute (PGRRI). CRI (Fumesua near Kumasi): Equipped with modern biotechnology labs, screenhouses, NIRS equipment (including β-carotene measurement), seed processing, irrigation infrastructure, and training facilities—supporting molecular research and crop screening.
PGRRI (Bunso): Alongside CRI, involved in a 2023 multi-authored review on CRISPR-Cas9 applications in crop improvement, illustrating their engagement in genome editing research.
Kumasi Centre for Collaborative Research in Tropical Medicine (KCCR), at KNUST, KCCR hosts BSL-2/3 labs, next-gen sequencers (Illumina iSeq100, MiSeq), Sanger sequencer, and strong data management systems. Although primarily focused on biomedical research, these facilities could support genome editing in pathogens or relevant molecular studies.
Training & Capacity-Building Initiatives
In 2021, a workshop on genome editing principles (using zebrafish as model) took place at the University of Ghana, organized under the TReND in Africa platform and supported by IBRO. The AUDA-NEAPD has in collaboration with the Ministry of Science and Technology and CSIR has organized several training workshops for policy makes, scientists, and journalists.These workshops help familiarize local scientists with CRISPR technologies and experimental design.
3.5.2. Training and Professional Development
Training and professional development for genome editing in Ghana has gained increasing momentum in recent years, reflecting both national commitment and continental support for building scientific capacity. At the domestic level, the Ministry of Environment, Science, Technology and Innovation (MESTI) with support from AUDA-NEPAD has played a central role in organizing targeted workshops. In March 2024, MESTI convened a two-day training for policymakers and regulators to strengthen their understanding of genome editing applications and the governance systems required to oversee them. Later in September of the same year, a similar two-day workshop focused on “Product Development with Genome Editing” was held for scientists, equipping participants with deeper insights into research and product development processes. These efforts were complemented by an in-country workshop jointly organized with the Council for Scientific and Industrial Research (CSIR) and AUDA-NEPAD, which emphasized both the potential of genome editing for agriculture and the importance of managing associated risks.
In addition to government-led efforts, international collaborations have provided hands-on learning opportunities. In 2021, the University of Ghana hosted a practical workshop organized by TReND in Africa with support from the International Brain Research Organization (IBRO). Using zebrafish as a model organism, the training introduced Ghanaian scientists to fundamental principles and experimental approaches in genome editing. Similarly, CSIR in 2023 convened a stakeholder validation workshop in Accra to develop Ghana’s National Genome Editing Communication Strategy and Action Plan, aimed at improving public engagement and communication around the technology.
Ghanaian scientists have also benefited from regional and continental programs. In 2020, the International Institute of Tropical Agriculture (IITA), in collaboration with the Cornell Alliance for Science and the University of Ghana’s West Africa Centre for Crop Improvement (WACCI), conducted one of the earliest genome editing training programs on the continent. More recently, Ghanaian researchers have participated in the African Plant Breeding Academy’s (AfPBA) specialized CRISPR training courses, coordinated by UC Davis, UC Berkeley’s Innovative Genomics Institute, and partners such as IITA and CIFOR-ICRAF. The first cohort of this multi-year training was launched in 2023, followed by a second class in 2024 in which Ghana was represented by Samuel Amiteye of the Biotechnology and Nuclear Agriculture Research Institute (BNARI) at the Ghana Atomic Energy Commission. The AfPBA courses combine intensive in-person sessions in Nairobi with mentorship and follow-up support, enabling participants to establish genome editing capacity in their home institutions.
Together, these initiatives reflect a growing ecosystem of professional development in Ghana, where policymakers, regulators, scientists, and communicators are gaining the skills required to harness genome editing responsibly. They also highlight the importance of partnerships—both local and international—in equipping Ghana with the technical expertise, regulatory understanding, and communication strategies necessary for advancing genome editing research and applications.
Table 4: Overview of Training Programmes on Genome Editing
Institution / Organization | Training Programme | Target Audience / # of Trainees per annual | Frequency | Duration | Gaps Identified |
Innovative Genomic Institute
| CRISPR Course | Postdoctoral, Mid-level research scientist | Annually |
|
|
Teaching and Research in (Neuro) science for Development (TReND) in Africa |
|
|
| 2021, 1 week | Not applicable |
African Orphan Crops Consortium (AOCC) | a specialized CRISPR gene-editing course | PhD-level scientists | Annually | 2023, 2024 | Not applicable |
Alliance for Science | Seminars, training workshops on GMOs and genome editing communication, webinars | Scientists/researchers, journalists, 60 people | Not specific | 2 days | Public trust and engagement |
Africa Plant Breeding Academy at University of California | CRISPR Course (Joint with IITA) | Postdoctoral, Mid-level research scientist | Annually | 4 weeks | Not applicable |
AUDA-NEPAD (GEd initiative) | CRISPR genome editing, Science communication, IPR, etc | Scientists/researchers, journalists | Not specific | 2 days | Public trust and engagement, Ghana needs more infrastructure and human capacity for Ged |
Open Forum on Agricultural Biotechnology in Africa (OFAB) | GMOs | Students and faculty, 200 | Annually | 1 day | Public trust and engagement |
Ghana’s universities such as University of Ghana and Kwame Nkrumah University of Science and Technology offer diversified MSc and PhD programs in plant breeding, molecular biology and biotechnology (Table 5). Institutional frameworks and alignment of programs on gene-editing could increase the championing of the technology.
Table 5: Universities Offering trainings on Biotechnology and GEd related courses
Institution | BSc Program | Master’s Program | PhD Program |
University of Cape Coast | Agriculture Biochemistry Molecular Biology & Biotechnology | Animal Science Biotechnology Crop Science Molecular Biology | Animal Science Biotechnology Crop Science Molecular Biology |
University of Ghana | Agriculture Animal Science Biological Sciences Plant Science | Biotechnology Botany Crop Science Molecular Biology Nuclear Agriculture | Biotechnology Botany Crop Science Nuclear Agriculture Plant Breeding |
University for Development Studies (UDS) | Biotechnology & Molecular Biology Biological Science
| Agricultural Science Animal Science Biotechnology Crop Science | Animal Science Biotechnology Crop Science |
Kwame Nkrumah University of Science and Technology | Agricultural Biotechnology | Animal Breeding and Genetics Biochemistry Biotechnology Plant Breeding Plant science and biotechnology Seed Science and Technology | Animal Breeding and Genetics Biochemistry Biotechnology Plant Breeding Plant science and biotechnology Seed Science and Technology |
AAMUSTED Akenten Appiah-Menka University of Skills) | Biological Sciences Education | M.Phil Biology | PhD Biology
|
3.6. Analysis of Infrastructure and Equipment
Several institutions have been listed as active in GEd projects with varying level of human and infrastructural capacities.
3.6.1. Universities
Several Ghanaian universities are involved in genome editing research and training, particularly in agricultural applications (Table 6). The University of Cape Coast is leading research on a gene-edited sweet potato with increased beta carotene, while the University of Ghana has hosted workshops on genome editing principles using zebrafish as a model. The West African Centre for Crop Improvement, based at the University of Ghana, also collaborates on genome editing training for agricultural applications.
Specific universities and their involvement are:
University of Cape Coast: Is researching a gene-edited sweet potato to increase beta carotene content, using CRISPR-Cas9 technology.
University of Ghana: Has hosted workshops on genome editing principles, including one focused on zebrafish research. The West African Centre for Crop Improvement (WACCI), based at the University of Ghana, is also involved in training on genome editing for agricultural applications. Kwame Nkrumah University of Science and Technology (KNUST): The Kumasi Centre for Collaborative Research in Tropical Medicine, which is part of KNUST, is also involved in genome editing research.
Table 6: Status and Needs Assessment of Biosafety Laboratory Facilities by Universities
Institution | Type of Facility | Biosafety Level | Status (see Annex A) | Limitations | Support Needed |
University of Ghana | Molecular lab; Glasshouse | Lab, BSL2 | Fully equipped, | Non-enabling national procurement law, inadequate funding, unstable supply of power, maintenance challenge | Specialized procurement/ waiver/ exemptions, import tax exemptions for universities |
University of Cape Coast | Molecular lab; Glasshouse | BSL 1, or BSL 2 | Not-fully equipped | Non-enabling national procurement law, inadequate funding, unstable supply of power, maintenance challenge | Specialized procurement/ waiver/ exemptions, import tax exemptions for universities |
University for Development Studies (UDS) | Molecular lab; Glasshouse | None | Not-fully equipped | Non-enabling national procurement law, inadequate funding, unstable supply of power, maintenance challenge | Specialized procurement/ waiver/ exemptions, import tax exemptions for universities |
Kwame Nkrumah University of Science and Technology (KNUST) | Molecular lab; Glasshouse | None | Not-fully equipped | Non-enabling national procurement law, inadequate funding, unstable supply of power, maintenance challenge | Specialized procurement/ waiver/ exemptions, import tax exemptions for universities |
3.6.2. Research institutions
Ghana has several national agricultural and forestry research organizations/institutes (NAROs/NARIs) (Table 7). However, the lab facilities at these NAROs/NARIs not well funded and lack certain specialized equipment like high-throughput DNA sequencers and/or bogged down with bureaucratic procurement laws (Table 7).
Table 7: Status and Needs Assessment of Biosafety Laboratory Facilities by Research Institutions
Institution | Type of Facility | Biosafety Level | Status (see Annex A) | Limitations | Support Needed |
Savana Agricultural Research Institute (SARI)-Nyankpala | Molecular lab; Glasshouse | BSL2 | Not-fully equipped | Non-enabling national procurement law, inadequate funding, unstable supply of power, maintenance challenge | Specialized procurement/ waiver/ exemptions, import tax exemptions for research institutions |
Crop Research Institute (CRI)-Kumasi | Molecular lab; Glasshouse | BSL2 | Not-fully equipped | Non-enabling national procurement law, inadequate funding, unstable supply of power, maintenance challenge | Specialized procurement/ waiver/ exemptions, import tax exemptions for research institutions |
Plant Genetic Resources Research Institute (PGRRI)-Bunso | Molecular lab; Glasshouse | BSL2 | Not-fully equipped | Non-enabling national procurement law, inadequate funding, unstable supply of power, maintenance challenge | Specialized procurement/ waiver/ exemptions, import tax exemptions for research institutions |
Biotechnology and Nuclear Agriculture Research Institute (BNARI) | Molecular lab; Glasshouse | BSL2 | Not fully equipped | Non-enabling national procurement law, inadequate funding, unstable supply of power, maintenance challenge | Specialized procurement/ waiver/ exemptions, import tax exemptions for research institutions |
Cocoa Research Institute | Molecular lab; Glasshouse | BSL2 | Not-fully equipped | Non-enabling national procurement law, inadequate funding, unstable supply of power, maintenance challenge | Specialized procurement/ waiver/ exemptions, import tax exemptions for research institutions |
Nuclear Agriculture Research Centre (NARC) | Molecular lab; Glasshouse | BSL2 |
|
|
|
3.7 Analysis of Indigenous and Staple Crops for Improvement Using GEd
Ghana has a number of staples, indigenous and commercial crops identified during this Assignment that potentially be improved through GEd interventions (Table 8). These prioritized crops are highlighted in terms of trait targets and socio-economic relevance (agricultural productivity, reduction of post-harvest losses, climate adaptation, food and nutrition security, diversified and healthy diets).
Table 8: Priority Crops for Genome Editing Application
Organism / Species | Trait improvement of Interest | Socioeconomic Justification | GEd Potential (Low/Medium/High) | Existing R&D | Actual Annual Production Capacity (tonnes) | Expected Annual Production Capacity (tonnes) |
Maize | FAW resistance | Staple food and industrial feed represent over 50% of grain output; crucial for poultry and human diet | High | Conventional breeding and GEd technology | …… million | Over…….. million |
Rice | Drought and salt tolerance | Growing urban consumer crop, rate of consumption increasing in both urban and rural areas | High | Conventional breeding and GEd technology | …… million | Over…….. million |
Cowpea | Maruca and/ or Bruchid resistance, Striga gesnerioides resistance | Significant source of protein; supports smallholder farming | High | Conventional breeding and GEd technology | …… million | Over…….. million |
Cassava | Cassava mosaic resistance | highly drought-tolerant; staple crop | High | Conventional breeding and GEd technology | …… million | Over…….. million |
Yam | Yam Mosaic Virus Resistance | Ghana is 2nd-largest global producer; high value crop | High | Conventional breeding and GEd technology | …… million | Over…….. million |
Sweet potato | Boosting beta carotene, | Nutrient-rich food crop | High | Conventional breeding and GEd technology | …… million | Over…….. million |
Tomato | Extended shelf-life & firmness | High-value vegetable; supports domestic and export markets | High | Conventional breeding and GEd technology | …… million | Over…….. million |
3.8. Analysis of Intellectual Property Rights and Benefit Sharing
In Ghana, Intellectual Property Rights (IPR) are managed under a structured institutional framework, involving government agencies, regulatory bodies, and international affiliations. The main organizations include:
Registrar-General’s Department (RGD)
The primary national authority responsible for administering intellectual property rights in Ghana. The Department handles patents, trademarks, industrial designs, copyright registration, and geographical indications. It operates under the Ministry of Justice and Attorney General’s Department.
The Copyright Office: It is under the RGD and manages copyright and related rights. The office works closely with the Ghana Copyright Society (COSGA) and other collective management organizations.
Plant Breeders’ Rights Office: It is at the Registrar-General’s Department, linked to PVP Act 2020 and administers plant variety protection (PVP) in accordance with Ghana’s Plant Variety Protection Act, 2020 (Act 1050). It Supports breeders in obtaining exclusive rights over new plant varieties. Ghana Standards Authority (GSA) ensures standardization and quality control of goods and services. GSA plays a role in protecting trademarks, certification marks, and geographical indications through standards compliance.
Food and Drugs Authority (FDA-Ghana): FDA regulates food, drugs, cosmetics, and biotechnology products, ensuring IP-related claims (e.g., brand names, product origin) meet safety and authenticity requirements.
Council for Scientific and Industrial Research (CSIR): CSIR is Ghana’s leading research institution, being both a user and beneficiary of IPRs, especially patents and plant breeders’ rights. The CSIR works with government and international partners to commercialize research outputs.
The Ministry of Justice & Attorney-General’s Department provides legal backing for IPR enforcement and oversees Ghana’s compliance with international treaties.
International and Regional Affiliations
- World Intellectual Property Organization (WIPO): Ghana is a member, aligning its IP laws with international standards.
- African Regional Intellectual Property Organization (ARIPO): Ghana is a contracting state, enabling it to process patents, trademarks, and designs through ARIPO.
- World Trade Organization (WTO): Ghana complies with the TRIPS Agreement (Trade-Related Aspects of Intellectual Property Rights).
- UPOV (International Union for the Protection of New Varieties of Plants): Ghana acceded in 2021 to support its Plant Variety Protection law.
Regarding IPR issues in GMOs and GEd activities, there’s no record of Ghana’s Registrar-General’s Department (RGD), Plant Breeders’ Rights Office, Ghana Standards Authority (GSA), or Food and Drugs Authority (FDA-Ghana) specifically dealing with IPR cases related to GMOs, Bt crops, or genome editing. Most of Ghana’s actions in biotechnology so far have centred on regulatory approval, biosafety oversight, and commercialization of products—rather than patent or IP litigation.
Linkage to Nagoya Protocol implementation and national Access and Benefit Sharing laws + Kuala Lumpur on liability and redress mechanism
1. Nagoya Protocol (Access and Benefit Sharing of Genetic Resources)
Ghana is a party to the Nagoya Protocol. Ghana signed the Nagoya Protocol on Access to Genetic Resources and the Fair and Equitable Sharing of Benefits Arising from their Utilization (ABS) and ratified it in 2012 (entered into force for Ghana in October 2014). Implementation is overseen by the Environmental Protection Agency (EPA) and the Ministry of Environment, Science, Technology (MEST). Ghana has developed national ABS regulations and measures to operationalize access and benefit sharing, though full enforcement and institutionalization are still evolving.
2. National ABS Laws / Implementation
Ghana has incorporated ABS principles into its Environmental Protection Agency Act and biodiversity-related policies. The EPA serves as the National Focal Point for ABS. Ghana has prepared draft regulations on ABS, aligning with its Nagoya obligations, although practical implementation (permits, monitoring, benefit-sharing contracts) has been slow. ABS issues also intersect with the Forestry Commission and CSIR, especially in relation to genetic resources for agriculture, forestry, and medicinal plants.
3. Nagoya–Kuala Lumpur Supplementary Protocol on Liability and Redress (under the Cartagena Protocol on Biosafety)
Ghana is not a Party as of 2025.The Supplementary Protocol, adopted in 2010, establishes international rules on liability and redress for damage caused by living modified organisms (LMOs). Ghana is a Party to the Cartagena Protocol on Biosafety (2003), and has enacted the Biosafety Act (2011) to regulate GMOs. However, Ghana has not signed or ratified the Supplementary Protocol on Liability and Redress.
In Ghana, IPR related to modern biotechnology have been addressed to a large extent, though the level of management varies between genetically modified (GM) projects and GEd initiatives. For modern biotechnology, the most notable example is the Bt cowpea project. Here, IPR issues were managed through a royalty-free, humanitarian license facilitated by the African Agricultural Technology Foundation (AATF). The trait package (Bt/nptII) was donated under terms that allowed Ghanaian seed companies and farmers to access the improved varieties without paying royalties. This arrangement ensured that ownership, licensing, and stewardship considerations were resolved before the product was released, providing a model for how IPR can be handled in agricultural biotechnology.
At the institutional and national level, Ghana also has enabling frameworks for IPR management. Research organizations such as the Council for Scientific and Industrial Research (CSIR) and universities, including the University of Cape Coast (UCC), operate formal IP policies in line with national legislation. Legal provisions such as the Patents Act, 2003 (Act 657), the Copyright Act, 2005 (Act 690), and more recently the Plant Variety Protection Act, 2020 (Act 1050), provide avenues for protecting biotechnological innovations and plant varieties. These policies and legal tools offer the foundation for securing IPR in the biotechnology space.
For genome editing, Ghana has made progress by developing guidelines under the National Biosafety Authority (NBA) that cover both gene editing and gene stacks. This shows a readiness to manage IPR and regulatory considerations in anticipation of emerging products. However, there are currently no commercial genome-edited products in the country, and as such, project-level IPR management in this area remains largely untested. In summary, Ghana has demonstrated the ability to address IPR issues effectively in GM projects, while in the case of genome editing, the guidelines exist but implementation is still at an infancy stage
IPR are enforced in Ghana through the courts. A recent case between CopyGhana and the University of Professional Studies, Accra (UPSA) illustrates how IPR are actively protected in Ghana. CopyGhana, a collective management organization mandated under the Copyright Act, 2005 (Act 690) and its regulations, sued UPSA for allowing unauthorized photocopying of books and learning materials on its campus without obtaining a reprographic license. After years of non-compliance, the High Court ruled in May 2025 that UPSA had infringed copyright and was liable not only for direct copying but also for unauthorized reproductions by students and copy shops operating on its premises. The court upheld CopyGhana’s authority to issue licenses and ordered UPSA to compensate rightsholders for unpaid fees dating back to 2004, in addition to legal costs. The court also imposed a perpetual injunction preventing further unlicensed copying. This case demonstrates the effectiveness of Ghana’s legal and institutional frameworks in enforcing IPR, highlighting that violations, even in educational and research contexts, are taken seriously. It also underscores the role of collective management organizations in safeguarding the rights of authors and publishers while ensuring that institutions comply with licensing obligations. Overall, the judgment reflects Ghana’s commitment to balancing access to knowledge with the protection of creators’ rights.
Ghana has developed a comprehensive legal and institutional framework to protect the rights of inventors, creators, and businesses. Intellectual property rights in the country are upheld through various laws, including the Copyright Act, 2005, Patents Act, 2003, Trademarks Act, 2004, Industrial Designs Act, 2003 and Plant Variety Protection Act, 2020. These national laws are reinforced by Ghana's participation in key international agreements, such as the Paris Convention for the Protection of Industrial Property and the Berne Convention for the Protection of Literary and Artistic Works. As a member of the World Intellectual Property Organization (WIPO), Ghana demonstrates its commitment to promoting and safeguarding innovation and creativity.
Copyright in Ghana is governed by the Copyright Act, 2005 (Act 690), which provides protection for a wide range of creative works, including literary, musical, and artistic works, as well as audiovisual productions, sound recordings, computer software, broadcasts, and films. Patent protection in Ghana is governed by the Patents Act, 2003 (Act 657), which provides inventors with exclusive rights to their inventions for a defined period, provided certain criteria are met. Trademark registration and protection in Ghana are governed by the Trademarks Act, 2004 (Act 664). Industrial designs in Ghana are protected under the Industrial Designs Act, 2003 (Act 660). The Plant Variety Protection Act, 2020 (Act 1050), was introduced to grant intellectual property rights to breeders of new plant varieties, providing a legal framework that supports the development and protection of innovative crop varieties.
3.9. Analysis of Private Sector Participation
Ghana's private sector has begun to play an active (Table 9), though still emerging, role in genome editing (GEd) and modern biotechnology supporting trait development, bio-input innovation, and regulatory engagement. Ghana’s private sector is building capacity and infrastructure for genome-editing through diagnostics, startup innovation, trait development, and regulatory collaboration. Key players like Yemaachi Biotech, university incubator teams, and consortia involving Alliance for Science Ghana are leading the charge. As regulatory guidelines mature, private sector involvement in training and commercializing GEd products is expected to increase. Several private seed companies operate in Ghana, including M&B Seeds and Agricultural Services, Heritage Seeds, and Seed Co. West & Central Africa. These companies play a vital role in the agricultural sector by producing and distributing seeds for various crops like maize, rice, and cowpeas. They also engage in research and development, and some work directly with smallholder farmers.
The Public–Private Partnership Act, 2020 (Act 1039) provides a clear and structured legal and regulatory environment for PPP projects in Ghana. It offers great protection and certainty for private investors, which is crucial for attracting both domestic and foreign capital for large-scale public projects. The Government of Ghana actively encourages and promotes PPP arrangements as a key strategy for driving national development. Recognizing the importance of leveraging private sector investment, expertise, and innovation to complement public resources, successive administrations have prioritized PPPs in critical sectors such as infrastructure, industry, and agriculture. Notably, the previous government introduced several flagship initiatives anchored on PPP principles, including the One District, One Factory (1D1F) programme, which sought to stimulate district-level industrialization by facilitating collaboration between the state and private investors. Through such initiatives, government provides policy direction, incentives, and enabling infrastructure, while the private sector mobilizes capital and manages operations, thereby creating jobs, enhancing value addition, and contributing to economic growth.
Table 9: Overview of Genome Editing Stakeholders and Activities in the Private Sector
Company/Entity | Type (Agri-biotech, Start-up, etc.) | GEd Activities | Partnerships/potential partners | Challenges Faced | Investment Interest |
M&B Seeds and Agricultural Services |
|
| e.g., with AfSTA, CropLife, etc |
|
|
HavAfric | R&D, seed production | Varietal developmental, commercialization | UCC, UG, media |
|
|
Heritage Seeds |
|
|
|
|
|
|
|
|
|
|
|
| Seed production | Commercialization | EIAR | No GEd products so far | Seed system |
| Seed production | Commercialization | EIAR | No GEd products so far | Seed system |
3.10. Analysis of Funding and Investment landscape
Ghana’s genome editing research landscape seemed to be externally driven and donor-dependent, with major inputs from the Gates Foundation, USAID – Feed the Future, CGIAR-Trust Fund and private sectot, led by Corteva, and Bayer (Table 10). To ensure sustainability, increased national funding through Ghana’s National Research Fund (NRF-Ghana) is critical in scaling PPP models that link global technology developers with Ghanaian research institutions and key stakeholders. To date, NRF has not allocated dedicated funding to genome editing (GEd) research in Ghana.
Table 10: Overview of National and Other Potential Funding Sources for Genome Editing activities in Ghana
Funder/Donor | Organization Type | GEd Project | Amount (USD) | Duration | Recipient Institution(s) | Area of Focus |
National Research Fund (NRF)-Ghana | Government | None | None | None | None | None |
Gates Foundation (formerly, Bill & Melinda Gates Foundation – BMGF) | Development partner | None | Not applicable | Not applicable | Not applicable | Not applicable |
CGIAR Trust Fund | Development partner | Different areas | USD 6 million in 2023 | Not applicable | Not applicable | Different areas |
Feed the Future Program (United States Agency for International Development (USAID) | Development partner | Boosting beta carotene content in sweet potato | USD 200,000 | 2016-2020 | University of Cape Coast, and North Carolina State University | Laboratory Training in genome editing technology |
AUDA-NEPAD | Development partner | Communications, advocacy and regulatory support | Not financial R&D grants; technical/regulatory support | 2021–present | Regulatory authorities, Universities, Research Institutions, media | Policy harmonization, capacity building, effective communication |
Crop Trust | Development partner | None | None | None | None | None |
Bayer | Private sector/ Industry | Early-stage GEd research in boosting beta carotene content in sweet potatoes | USD10,000, the rest largely undisclosed | Not applicable | University of Cape Coast | Seed development |
Corteva | Private sector/ Industry | trait development | Not disclosed |
|
| Seed development |
Advancing genome editing in Ghana requires a holistic strategy that addresses regulation, investment, institutional capacity, collaboration, and effective science communication.
Regulatory Framework: At the regulatory level, Ghana should strengthen its existing biosafety framework by explicitly incorporating genome editing into national legislation, providing clear and predictable pathways for GEd research, field trials, and commercialization. This will require the Biosafety Authority, EPA, and related institutions to update guidelines, harmonize them with international standards, and streamline approval processes to avoid delays that discourage innovation.
Capacity building: Capacity is equally critical. Universities, research institutes such as CSIR, and regulatory agencies need targeted training programs in genome editing techniques, risk assessment, bioethics, and intellectual property management. Establishing dedicated genome editing laboratories equipped with modern tools, alongside mentorship programs and exchange opportunities, would ensure Ghana develops a skilled pool of scientists and regulators who can both innovate and govern effectively.
Investment Strategies: Investment strategies must go beyond traditional donor funding. Ghana should create innovative financing mechanisms such as public–private partnerships, competitive grants, and national research endowment funds to support genome editing research from early-stage discovery to product development. Public investment can also be complemented by tax incentives and venture capital attraction for agri-biotech startups. Ghana can link research priorities to food security, climate resilience, and industrial crop development by embedding genome editing into national agricultural investment plans.
Collaborations and Partnerships: Collaboration and partnerships are vital in amplifying impact. Ghana should deepen its participation in regional initiatives under AUDA-NEPAD, ECOWAS, and ARIPO to share expertise, harmonize regulatory frameworks, and access joint funding schemes. Locally, stronger research networks between CSIR, universities, farmer-based organizations, and the private sector will enhance the translation of innovations into real-world solutions. Structured partnerships with international research bodies such as CGIAR and advanced labs abroad would also provide access to technical expertise and research materials that are often difficult to source locally.
Communication and Public Engagement: Communication and public engagement form the foundation of societal acceptance. Ghana must invest in sustained advocacy and science communication strategies that demystify genome editing, build public trust, and engage communities in decision-making. Civil society, farmer associations, and traditional authorities should be included in dialogue platforms that explain benefits, risks, and regulatory safeguards in accessible language. Tailored media campaigns and school-level biotechnology education can help cultivate a more informed society that is prepared to embrace innovation while holding institutions accountable.
Thus, Ghana’s path to effective adoption of genome editing rests on regulatory reforms that provide clarity, investments that sustain research, capacity development that empowers local expertise, regional and international collaborations that leverage shared resources, and communication strategies that secure public trust (Table 11). Together, these policy options will not only position Ghana as a leader in agricultural biotechnology in West Africa but also ensure that genome editing contributes directly to national priorities in food security, economic growth, and sustainable development.
Table 11: Policy matrix linking issues → gaps → recommended actions → lead institutions
Issues | Gaps | Recommended Actions | Lead Institutions |
---|---|---|---|
Regulatory framework for genome editing | Biosafety Act (2011) and regulations focus on GMOs, not genome editing; absence of clear guidelines. | Revise Biosafety Act/Regulations to explicitly include genome editing; adopt tiered risk-based assessment; align with AU, ECOWAS, and international standards. | National Biosafety Authority (NBA), Ministry of Environment, Science, Technology & Innovation (MESTI), Parliament. |
Institutional and human capacity | Limited expertise in genome editing, biosafety risk assessment, and bioethics; inadequate labs. | Establish genome editing centers of excellence; build technical and regulatory capacity through training, mentorship, and international exchanges. | CSIR, Universities (UG, KNUST, UCC), NBA, Ghana Standards Authority (GSA). |
Funding and investment in research | Over-reliance on donor support; limited public investment; no dedicated biotech funding streams. | Create a national biotech/genome editing fund; incentivize private sector participation; establish public–private partnerships. | Ministry of Finance, MESTI, Ministry of Food and Agriculture (MoFA), Private Sector Associations. |
Access to research tools and materials | Delays and high costs in importing reagents and equipment; weak supply chains. | Streamline customs processes for scientific imports; build regional biotech hubs; promote local production of key reagents. | Ghana Revenue Authority (Customs), CSIR, Universities, MoFA. |
Research collaboration and networks | Weak coordination among local institutions; limited participation in regional/global biotech initiatives. | Strengthen national biotech networks; join and leverage AUDA-NEPAD, ECOWAS, ARIPO, and CGIAR platforms for knowledge and resource sharing. | CSIR, Universities, MESTI, ARIPO Ghana Office. |
Public awareness and communication | Low awareness and understanding; mistrust from GMO debates; weak engagement with farmers and communities. | Develop inclusive science communication strategies; use traditional leaders, farmer groups, media, and schools to build trust. | National Commission for Civic Education (NCCE), MoFA, CSOs, Farmer-Based Organizations (FBOs). |
Socio-cultural acceptance | Religious and cultural skepticism; limited integration of local knowledge into biotech policies. | Institutionalize consultations with traditional authorities, faith-based groups, and communities in biotech governance. | MESTI, Ministry of Chieftaincy & Religious Affairs, NBA, CSOs. |
Intellectual property rights (IPR) | Weak IPR enforcement in biotechnology; little experience handling patents for GMOs/genome editing. | Build IPR capacity; implement Plant Breeders’ Rights Act (2020); strengthen alignment with ARIPO and WIPO frameworks. | Registrar-General’s Department, ARIPO Focal Point, Ministry of Justice & Attorney General’s Department. |
Regional and international obligations | Slow domestication of Nagoya Protocol and weak Access and Benefit Sharing (ABS) enforcement. | Fully implement Nagoya and Kuala Lumpur Protocols; strengthen ABS laws; ensure equitable benefit sharing of genetic resources. | Environmental Protection Agency (EPA), MESTI, MoFA, Attorney General’s Department. |
Short- and Long-term Policy / Action Plans
Short-Term Policy/Action Plans (1–3 years)
In the immediate term, Ghana should focus on establishing regulatory clarity by revising the Biosafety Act and related regulations to explicitly address genome editing, while adopting a tiered, risk-based assessment framework. Building technical capacity is critical, including training regulators, researchers, and IPR officers in genome editing, biosafety risk assessment, and bioethics. Public awareness and trust must be strengthened through inclusive communication strategies using traditional leaders, farmer groups, CSOs, and the NCCE. To facilitate research, customs processes for importing scientific tools should be streamlined, while Ghana actively aligns with regional initiatives such as AUDA-NEPAD, ECOWAS, and ARIPO to ensure harmonization of biotech frameworks.
Long-Term Policy/Action Plans (7–10 years)
In the longer term, Ghana should aim to position itself as a regional hub for genome editing innovation by investing in state-of-the-art research centers, biorepositories, and sustainable funding streams such as biotech endowments and public–private partnerships. Full implementation of Access and Benefit Sharing (ABS) under the Nagoya and Kuala Lumpur Protocols will ensure equitable use of genetic resources. Socio-cultural inclusivity should be institutionalized through consistent engagement with communities, traditional authorities, and faith-based groups. Strengthening intellectual property systems, operationalizing Plant Breeders’ Rights, and fostering global collaborations will enable Ghana to achieve competitiveness, and sustainability.
Biosafety Act, 2011 (Act 831) (Ghana).
Copyright Act, 2005 (Act 690) (Ghana).
Environmental Protection Agency. (n.d.). Environmental Protection Agency Ghana. https://www.epa.gov.gh/new/
Ghana News Agency. (2023). NBA develops genome editing and gene stacking guidelines. https://gna.org.gh/2023/11
Industrial Designs Act, 2003 (Act 660) (Ghana).
Innovative Genomics Institute. (n.d.). AfPBA CRISPR course in Africa. https://innovativegenomics.org/programs/public-impact/afpba-crispr-course-africa/
International Trade Administration. (2023). Ghana country commercial guide: Protecting intellectual property. https://www.trade.gov/country-commercial-guides/ghana-protecting-intellectual-property#:~:text=Investment%20Climate%20Statement-,Protecting%20Intellectual%20Property,the%20region%2C%20usually%20in%20Asia
National Biosafety Authority. (n.d.). Homepage. https://nba.gov.gh/
NEPAD (2019). ABNE in Africa 2019. http://nepad-abne.net/wp-content/uploads/2019/04/ABNE-in-Africa-2019_final.pdf
Patents Act, 2003 (Act 657) (Ghana).
Plant Variety Protection Act, 2020 (Act 1050) (Ghana).
Registrar General’s Department. (2019). GHANA patent registry—Patent procedure. https://rgd.gov.gh/Patent.html
Trademarks Act, 2004 (Act 664) (Ghana).
TReND in Africa. (n.d.). Courses. https://trendinafrica.org/courses/
UNFCCC. (n.d.). Climate transparency platform: Ghana. https://climate-transparency-platform.org/country/ghana
United Nations Environment Programme. (n.d.). UNEP in Ghana: Environment and trade hub. https://www.unep.org/explore-topics/green-economy/what-we-do/environment-and-trade-hub/ghana
United States Department of Agriculture Foreign Agricultural Service. (n.d.). Production summary: Ghana – Maize, rice, sorghum, etc. https://ipad.fas.usda.gov/countrysummary/Default.aspx?id=GH
World Intellectual Property Organization. (n.d.). Homepage. https://www.wipo.int/
World Trade Organization. (n.d.). Homepage. https://www.wto.org/
Annex 1. List of institutions and resource persons involved in the interview
SN | Sector | Ministry/Department/Institution/ |
1 | Regulatory | National Biosafety Authority (NBA) |
6 | Regulatory | Environmental Protection Agency (EPA) |
7 | Regulatory | Ministry of Environment, Science and Technology |
10 | Regulatory | Customs |
11 | Regulatory | PPRSD- MOFA |
12 | Regulatory | Ministry of Food and Agriculture (MoFA) |
13 | Regulatory | Ghana Standards Authority (GSA) |
14 | Regulatory | Food and Drug Authority (FDA) |
18 | Research Intitution | CSIR-Crop Research |
19 | Research Intitution | CSIR-Crop Research |
20 | Research Intitution | Savanna Agricultural Research Institute (SARI) |
23 | Research Intitution | Biotechnology and Nuclear Agriculture Research Institute (BNARI) |
30 | Research Intitution | Cocoa Research Institute |
31 | University | University of Ghana-West Africa Centre for Crop Improvement (WACCI) |
36 | University | University of Ghana-Department of Plant and Environmental Biology |
37 | University | Kwame Nkrumah University of Science and Technology-Department of Biochemistry and Biotechnology |
44 | University | Akenten Appiah-Menkah University of Skills Training and Entrepreneurial Development |
45 | University | University of Cape Coast- Department of Molecular Biology and Biotechnology |
47 | University | University Of Cape Coast-School of Medical Sciences |
48 | University | University of Cape Coast- Department of Molecular Biology and Biotechnology |
52 | University | University of Cape Coast-Department of Crop Science |
56 | University | University for Development Studies- Biotechnology Centre |
57 | University | UDS- University for Development Studies: |
59 | Other government Agencies | Ghana News Agency (GNA) |
60 | Private | HavAfric |
62 | Private | Esoko |
63 | Private | H.S.A Consult Ltd, Kumasi |
64 | Private | The National Seed Trade Association of Ghana (NASTAG) |
65 | Private | Open Forum on Agricultural Biotechnology (OFAB) |
66 | Private | Alliance for Science Ghana |
75 | Other government Agencies | Centre for Scientific and Industrial Research (CSIR) |
78 | Other government Agencies | MOFA |
79 | Other government Agencies | Ministry of Food and Agriculture (MoFA) |
80 | Other government Agencies | CSIR-Plant Genetic Resources Research Institute (PGRRI) |
81 | Other government Agencies | Cocoa research Institute |
82 | Other government Agencies | Ghana Atomic Energy Commission |
83 | University | Kwame Nkrumah University of Science and Technology (KNUST) |
84 | University | University of Ghana |
85 | Other government Agencies | Council for Scientific and Industrial Research (CSIR) |
86 | Other government Agencies | Ghana Atomic Energy Commission |
Add new comment