Kenya’s Country Report on Genome Editing (GEd) Landscape Analysis
Executive Summary
Background
Kenya, like many other African countries, is facing significant food security challenges to meet the food demands of a growing population. This situation is made worse by climate change and other weather-related shocks, pests and diseases. Biotechnology, thus genetically modified (GM) technology, particularly, its latest form, genome editing (GEd) technique is being explored/deployed as a potential solution. Biotech including GEd offers tools to enhance productivity or improvements/yields of crops, livestock, forestry, marine and fisheries. Additional benefits of Biotech/GEd, particular crops, livestock and fisheries, include the improvement of nutritional contents, increase resilience to climate change, and resistance to pests and diseases.
Key findings
The GEd Landscape Analysis revealed that Kenya has a robust regulatory environment (policies, laws, regulations & guidelines) for R&D and commercialization of modern Biotech including Genome-edited (GEd) products. National Biosafety Authority (NBA), established in 2010 through the Biosafety Act, No.2 of 2009 (rev. 2012), has mandate to regulate Biotech and Genome-Edited (GEd) products and works in close consultation with other specialized Regulatory Agencies (RAs). Kenya published Guidelines to regulate GEd products in 2022. Kenya’s regulatory framework is highly functional: 18 CFTs & 3 environmental release permits (Biotech) and 3 environmental approvals (GEds) have been granted. Kenya has several GEd projects (concluded and on-going), focusing on key food crops, livestock and traits addressing key production challenges (diseases, drought, poor soils, etc.) of economic importance. Among the GEd projects in Kenya crops constitute the largest number with 67% followed by livestock at 25% with no work currently on fisheries, marine and agroforestry.
Trends
Kenya is increasingly adopting biotech, particularly GEd to address food security and other agricultural challenges, moving from strict GMO regulations to product-based guidelines that facilitate the introduction of GEd products: crops (e.g. disease resistance bananas, maize, cassava, self-fertilizing maize, etc.) and livestock (vaccines development for ECF, etc). Due to legal challenges (court cases) involving GMO products, the overarching trend is one of expanding genomics infrastructure and knowledge/education to support innovation like GEd and cultivate a strong local biotech market. This trend is captured under short-, medium- and long-term policy implications below:
Policy Implications (Short- Medium- and Long-term)
Kenya faces short-, medium- and long-term policy implications related to biotech/GEd, particularly in agriculture, as outlined below:
Short-term implications include managing of the ongoing raging debate and legal challenges surrounding GMOs. This is well explained through Kenya’s recent lifting of the ban on GMO imports and cultivation and subsequent halting through court cases, which are still pending. Medium-term implications include leveraging biotech for national development, and trade in biotech products while ensuring compliance with international standards.
Long-term implications involve fostering sustainable agricultural practices, improved food security, and promoting economic growth through advances in Biotech, especially GEd techniques and regional standing.
Priority GEd Organisms
Overview
1.1. Description of Kenya’s agricultural landscape
Agriculture dominates the Kenya’s economy. Agriculture, including forestry and fisheries accounts about 20 – 25 % of the country’s gross domestic product (GDP) and 18% wage employment. Kenya’s agricultural exports, for examples, tea, coffee, cut-flowers, fruits (avocadoes) and vegetables are a key part of the economy, accounting about 50% of revenue from exports. While agriculture is vital, it faces numerous challenges like food insecurity, erratic weather, and land degradation. There is a growing trend towards sustainable practices and smart farming technologies to mitigate weather vulgarises and improve yields and resilience. Biotechnology, thus genetically modified (GM) technology, particularly, its latest form, genome editing (GEd) technique is being explored/deployed as a potential solution. Biotech including GEd offers tools to enhance productivity or improvements/yields of crops, livestock, forestry, marine and fisheries. Additional benefits of Biotech/GEd, particular crops, livestock and fisheries, include the improvement of nutritional contents, increase resilience to climate change, and resistance to pests and diseases.
1.2. National Frameworks and Investments
For Biotech in general and GEd specifically to have meaningful footprints in Kenya, national frameworks are crucial for guiding the responsible development and sustainable application of these technologies. In Kenya, these frameworks include biotechnology policy, biosafety law, biosafety regulations, and GEd guidelines, which aim to balance the potential benefits of the technologies with ethical, environmental, and biosafety considerations. These frameworks also provide enabling administrative and legal environments for the development of initiatives that will attract major investments in Biotech/GEd R&D from local and international companies or institutions. Currently, there is potential for increased investment in agricultural biotech and GEd infrastructure to improve productivity and resilience.
1.3. Engagement in Regional Frameworks
Kenya is actively engaged in the development and operationalization of regional biotechnology frameworks, particularly within the East African Community (EAC). Kenya is a key player in developing and implementing a 10-year harmonized biotechnology strategy across the East African region. The new regional strategy on biotechnology was sponsored and developed by the East African Science and Technology Commission (EASTECO). The strategy that will guide biotechnology development and application from 2026 – 2036 aims to harmonize policies and regulatory frameworks across the region to address fragmented national approaches that hinder innovation and complicate cross-border trade.
1.4. Challenges and Opportunities: Justification of GEd Assessment based on Current Issues Identified in Kenya
Opportunities: Biotech and GEd offer Kenya the opportunity to enhance food security by developing climate-resilient, pest- and disease-resistant, abiotic stresses like drought, low soil fertility, and more nutritious crops and livestock. These opportunities are elaborated on as follows:
Improved Food Security: GEd can accelerate the development of improved crop varieties and livestock breeds that are resistant to diseases, pests, and abiotic stresses like drought/heat, crucial for Kenya’s food security and agricultural resilience.
Enhanced Nutritional value: GEd, through bio-fortification, can increase the vitamin, protein, and mineral content of staple crops, addressing malnutrition issues.
Increased Crop/Livestock Productivity: GEd Technologies like CRISPR-Cas9 can enhance crop yields by increasing traits like tiller, branch and grain numbers in crops like rice, sorghum, wheat, sugar cane, etc. In livestock breeds, CRISPR_Cas9 can enhance productivity by increasing egg number in poultry, high quantity and quantity of milk in animals, etc.
Faster and More Efficient Breeding: GEd allows for precise and targeted changes to a plant’s or animal’s existing genes, significantly reducing the time and cost compared to the traditional breeding methods.
Targeted Pest and Disease Resistance: In crops, to mention a few, research is ongoing to create GEd bananas resistant to bacterial wilt and sorghum resistant to the parasitic weed Striga. In livestock, to mention a few, GEd research is underway in Kenya to develop vaccines for diseases like East Coast Fever and African Swine Fever.
Climate Adaption: GEd provides a precise tool to breed crops and livestock with enhanced tolerance to the environmental stresses caused by climate change.
Challenges: As much as biotech and GEd offer Kenya the opportunity to enhance food security, there are a number of challenges these agricultural innovations face towards wholesome adoption. These challenges include resource limitations, technical expertise gaps, public perception, and need for robust, harmonized regulatory frameworks to support safe adoption. These challenges are elaborated on as follows:
Resource and Expertise Gaps: To implement the advanced GEd technologies, resource and specialized human expertise are needed. Limited availability of these poses a significant challenge in Kenya.
Regulatory Frameworks: While Kenya has the Biosafety Act, Biosafety Regulations and GEd Guidelines, consistent application and harmonization with international standards, which are ongoing, need to fully support and enable biotech/GEd R&D and commercialization. There is still a challenge in Kenya to some extent.
Public Perception and Awareness: Effective communication and public engagement strategies on GEd technologies is limiting in Kenya. Lack of public awareness and understanding can lead to skepticism and resistance to the GEd technology.
Technological and Infrastructure Limitations: Significant investment in infrastructure and sustained public and private sector investment in biotech and GEd R&D are still limiting in Kenya. To fully implement and validate these biotech/GEd technologies requires increased participation and investment by the identified stakeholders in biotech/GEd infrastructure.
Biodiversity Conservation: Kenya, like any other African countries, is faced with issues of balancing the use of biotech/GEd with the protection of the Kenya’s rich biodiversity. Although this is essential to ensure that adoption of agricultural innovations like biotech/GEd supports, rather than harm the local ecosystems, that balancing in decision-making process poses a challenge in wholesome embrace of the technology itself.
1.5 Objectives
The general (overall) objective of the Genome Editing (GEd) Landscape Analysis, therefore, is focused on obtaining an in-depth assessment and analysis of existing policies, infrastructural, institutional, and technical capabilities to encompass product development and commercialization in a select number of African countries. Specifically, for Kenya, like the other selected countries, the objectives/aims of the Landscape Analysis are/were to:
Provide an evidence-based description and analysis of the status of modern biotechnology and GEd in Kenya, 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 Kenya 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 Kenya national context that can improve the livelihoods of people through food security, better nutrition, climate resilience, and sustainable productivity.
(Literature Review, Visits, Interviews, Questionnaires) – List of Institutions visited, Key resource persons who provided data, information – (Annex)
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 Kenya’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 Environment Treaties and Agreements
Kenya 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). By ratifying these treaties and agreements, Kenya commits to the global efforts in areas such as food safety, climate action, conversation of biodiversity, and ozone layer protection, integrating these commitments into its food and environmental management frameworks.
Kenya is a long-standing member of the Codex-Alimentarius Commission (CAC), having joined in 1969. This means that Kenya was a signatory member of the Codex standard-setting body in 1969. The Kenya Bureau of Standards (KEBS) is the national competent authority and Codex Contact Point. KEBS coordinates efforts to harmonize Kenyan Food Safety Standards with international Codex Standards to ensure food safety and quality, promote and facilitate fair trade, facilitate global market access for its exports, and project consumer health.
Kenya signed the UNFCCC in 1992 and ratified it in 1994. Kenya signed the UN CBD on the 5th June, 1992 at the Rio Earth Summit and became a party through ratification on the 24th October 1994. In the same year 1994, Kenya’s National Biodiversity Strategy and Action Plan (NBSAP) was developed in response to the CBD. On Cartagena Protocol, Kenya became the first (1st) nation on earth to sign the Protocol on the 15th May 2000. Kenya officially ratified and became a party to the Protocol on the 11th September 2003. The National Competent Authority for the Protocol in Kenya is the National Biosafety Authority (NBA). Kenya is a member of the Nagoya-Kuala Lumpur Supplementary Protocol on Liability and Redress, Access and Benefit Sharing, which came to force in 2018. Kenya signed the Supplementary Protocol in 2010 and did not ratify it immediately, with Kenya’s decision to accede to it only in 2024 and entered into force in 2025.
Table 1: Status of Kenya’s Participation in Key Multilateral Environmental and Food Agreements (ME&FAs) or Treaties
Multilateral Environmental & Food Agreements (MEFAs) / Treaties | Date: Signatory & Ratification or Accession by the Country | Reference |
Codex Alimentarius Commission (CAC): UN Food and Agriculture Organization and World Health Organization (UN FAO-WHO), a joint established body to develop international food standards, guidelines, and codes of practice critical for risk assessment of food developed through GEd | 1969 Member | https://www.fao.org/fao-who-codexalimentarius/about-codex/members/en/ |
UNFCCC convention on climate change | Signed1992 Ratified 1994 | https://unfccc.int/resource/docs/natc/kennc2es.pdf |
Convention on Biological Diversity (CBD) | 1992 Signed 1993 Ratified | |
Cartagena Protocol on Biosafety (CPB) | 2000 Signed 2003 Ratified | |
Nagoya Protocol on Liability & Redress, Access & Benefit Sharing (ABS) | Signed 2010 Ratified 2014 | https://www.cbd.int/abs/nagoya-protocol/signatories |
3.2. National Regulatory Framework
3.2.1. Biosafety Act, Biosafety Regulations and GEd Guidelines
Kenya’s regulatory framework for handling and regulating biotech and GEd products were found to consist of the Biosafety Act, No.2 of 2009, revised Edition 2012, the Biosafety Contained Use Regulation 2011, the Biosafety Environmental Release Regulation 2011, the Biosafety Import, Export, and Transit, and the Guidelines for determining the regulatory process of genome edited organisms and products in Kenya 2022 (Table 2). Kenya’s regulatory framework is highly functional. The National Biosafety Authority (NBA) is the competent authority with a mandate to regulate Biotech and Genome-edited products, but works in close consultation with other specialized Regulatory Agencies (RAs). Four (4) key specialized RAs alongside NBA from a list of eight (8) were identified in this Assignment for GEd products, namely, Kenya Plant Health Inspectorate Services (KEPHIS) for plant products and growth stimulants, Department of Veterinary Services (DVS) for livestock and veterinary products, Kenya Bureau of Standards (KEBS) for products’ conformity to the standards, and Kenya Industrial Property Institute (KIPI) for IP Rights Protection.
Table 2: Regulatory and Institutional Landscape for Genome Editing (GEd) in Kenya
Institutions | Mandate / Relevance to GEd | Regulatory instruments | Date of enactment or publication | Coverage/ scope | Reference |
National Biosafety Authority (NBA) | Transfer, handling and use of GEd and Biotech Products | A National Biotechnology Development Policy 2006 |
2006 | R&D, Commercialisation, Trade, etc. | |
Biosafety Act No.2 of 2009 | 2009 | Contained use, environnemental release, import, export, transit, and placing on the market of GMOs | |||
Biosafety Contained Use Regulation 2011 | 2011 | Contained use of GMOs | |||
Biosafety Environmental Release Regulations 2011 | 2011 | Environnemental release and placing in the market of GMOs | |||
Biosafety Import, Export and Transit Regulations 2011 | 2011 | Import, export, and transit of GMOs | |||
Biosafety Labelling Regulations 2012 | 2012 | Labelling of GMOs in the shelfs in the market | |||
Guidelines for determining the regulatory process of genome edited organisms and products in Kenya | 2022 | All genome-edited organisms (GEds or GEOs) and derived-products | |||
Kenya Plant Health Inspectorate Service (KEPHIS) | Plant varieties, seed quality & health | Kenya Plant Health Inspectorate Service Act | 2012
| Plant Health and Quality Assurance | |
Plant Protection (General) Regulations | 2021 | Prevention of pest introductions and spread, management of pests and weeds, surveillance of plants and plant products, and regulation of plant movement and trade | |||
Plant Protection Act Cap 324 | 2022 | Regulate movement of plant and related items, empowers KEPHIS to control cultivation and harvesting of specific plants in affected areas, enforce measures for preventing pest spread, license and inspect nurseries. | |||
Seeds and Plant Varieties Act Cap 326 | 2022 | Testing, certification, and regulation of seeds and plant varieties to ensure quality, prevent the sale of fake seeds, and establish a national index of approved varieties | |||
Plant Breeders Rights and Regulations | 2022 | Grant right to plant breeders, upholding variety protection, enforce standards to ensure quality seeds reach farmers, and prevent introduction of pests and diseases | |||
Department of Veterinary Services (DVS) | Animal diseases and pests | Animal Diseases Act Cap 364, 1965 (revised 2007, 2012, 2022) | 1965, 2007, 2012, 2022 | Prevent, control, and eradicate animal diseases, with specific provisions for Directorate of Veterinary Services (DVS) to declare infected areas, impose movement restrictions, and regulate the importation of animals and animal products | |
Kenya Industrial Property Institute (KIPI) | Intellectual Property Rights protection | The Industrial Property Act Cap 509, 2001 (revised 2002, 2007, 2017, 2018, 2022) | 2001
| Promoting innovation and facilitatiing the acquisition of technology and providing a legal framework for the protection and regulation of industrial property rights, including patents, utility models, and industrial designs. | |
Industrial Property Regulations Guidelines for the examination of Patents, Utility Models and Industrial Designs | 2000 | Trade liberalization, dismantling of import licensing, adoption of pre-shipment inspection, and managed floating exchange rate system in the year 2000. | |||
Industrial Property Rights Guidelines for Commercialization in Kenya | 2007 | Provide guidance on procedures for examining and granting patents, utility models, and industrial designs, and to ensure consistent application of law. | |||
Kenya Bureau of Standards (KEBS) | Standards (commodities, materials & substances) | Standard Act | Rev. 2012 | Promote standardisation, providing conformity assessment services (e.g. testing, certification), maintain International Systems of Unit (SI), etc. |
3.3. Socio-economic considerations for decision-making
Kenya has embedded socio-economic considerations in its decision-making regulatory approvals of biotech/GEd products, especially during the processes of environmental release and placing in the market. The economic, social, cultural, human and environmental considerations on decision-making on biotech/GEd products include costs and market opportunities, employment and livelihoods, social impacts such as equity, consumer choice, cultural practices, food security, and environmental concerns including impacts on biodiversity and indigenous knowledge. These considerations help ensure biotech/GEd development aligns with national priorities, addresses potential negative consequences, and is integrated into regulatory frameworks through public participation. These socio-economic considerations can advance or hinder adoption of biotech/GEd products as follows:
Economic Impacts:
Employment and livelihoods: The adoption of biotech/GEd can create or, in some opinion, displace jobs, thereby impacting on income and the means of livelihood for various communities.
Market Opportunities: Biotech/GEd can create new economic opportunities but also considered by the opposing group to pose risks of market substitution, impacting existing markets and trade for traditional products.
Costs of Inputs: Some interest groups allude that the costs of purchasing biotech/GEd-derived inputs like seeds must be weighed against potential benefits for farmers, especially resource-poor ones and their ability to afford them.
Social and Cultural Impacts:
Equity: The benefits and costs of biotech/GEd products need to be distributed equitably across differently groups, considering factors like gender and age.
Consumer Choice: A significant social consideration in the adoption of biotech/GEd products is the public access to information and consumer choice.
Cultural Practices: The impact of on traditional/landrace seed exchange systems, traditional knowledge, and local customs have been proposed as factors that need careful evaluation towards wholesome adoption of biotech/GEd products to prevent the erosion of cultural heritage.
Food Security: Decision-making process has been made to evaluate and account for how biotech/GEd products affects the overall food supply and access to food for the population.
Environmental Considerations:
Impact on Biodiversity and Traditional Crops: The decision-making process on biotech/GED is fashioned to consider that the potential displacement of traditional crops and the loss of genetic diversity have direct socio-economic consequences for farming communities.
Impact on indigenous Technologies: Adoption of biotech/GEd and replacing of the traditional farming methods is considered disruption of local agricultural systems and associated cultural practices.
3.4. Analysis of Genome Editing Programs and Projects
There are several GEd projects (concluded and on-going) in Kenya, focusing on key food crops, livestock and traits of economic importance addressing key production challenges, e.g. diseases, drought, poor soils, etc. (Table 3). Among the GEd projects in Kenya, crops constitute the largest number with 67% followed by livestock at 25%. However, there are no GEd work currently on fisheries, marine and agroforestry. In relation to developmental stages of the GEd projects, majority are still in research and development (5) with only one product at scaling.
Table 3: Genome Editing Projects and Programs in Kenya
Projects/ Programs (organism) | Trait | Collaborating partners | GEd Technique | Stage (Lab, field trial, commercialization) | Funding (US$) | Funding source | Reference |
Striga Smart Sorghum for Africa Project | Striga resistance | Kenyatta university (Lead), Addis Ababa University (Ethiopia), International Service for the Acquisition of Agri-biotech Applications ISAAA) | CRISPR/Cas9 | Research & Development (R&D) | 3.8 | Feed the Future of United States Agency for International Development (USAID) | Ngure and Karembu, 2023 |
Gene editing to control maize lethal necrosis disease (MLND) in Africa for improved maize productivity and grain harvests | MLND | CIMMYT (Lead), Corteva Agriscience, Kenya Agricultural & Livestock Research Organization (KALRO) and Seed Trade Association of Kenya (STAK)
| CRISPR-Cas9 | Deployment & Commercialization (D&C) |
Not provided | Ngure and Karembu, 2023 | |
Genetic improvement of banana for control of bacterial wilt disease | Bacterial wilt resistance | International Institute of Tropical Agriculture (IITA), Nairobi, Kenya (Lead), National Agriculture Research Laboratory (NARO-NARL), Kawanda, Uganda | CRISPR/Cas9 | R&D | Not provided | USAID and Roots, Tubers and Banana program of CGIAR |
|
PROVEN®40 Microbial Field Efficacy Trials in Kenya
| Self-fertilizing (Nitrogen) | AGTECH Consulting Ltd (AGTECH), Kenya Agricultural & Livestock Research Organization (KALRO) and Pivot Bio, Inc., USA | Suicide plasmid | D&C | Not provided | Pivot Bio, Inc. | Micheni et al., 2023* (*Technical Report) |
Modulation of energy homeostasis in maize and Arabidopsis to develop lines tolerant to drought, genotoxic and oxidative stresses | Drought tolerance | Kenyatta University, Plant Transformation Laboratory (Lead), Kenya, VIB-University of Gent, Center for Plant Systems Biology, Belgium | CRISPR/Cas9 | R&D | Not provided | Belgian Development Corporation | Njuguna et al., 2018 |
Role of the CYP79D1 gene in biosynthesis of cyanogenic glycosides in cassava using CRISPR/Cas9 genome editing system | Low cyanogenic glycosides biosynthesis | Kenyatta University (Lead), Jomo Kenyatta University of Agriculture and Technology, Pwani University; South Eastern Kenya University
| CRISPR/Cas9 | Discovery & Innovation (D&I) | Not provided | The World Academy of Sciences and the International Centre for Genetic Engineering & Biotechnology | Juma et al., 2022 |
Introducing the non-rancidity trait into pearl millet seed / Increasing shelf life of pearl millet milled flour | Non-rancidity | ICRISAT, CIMMYT | CRISPR/Cas9 | Discovery & Innovation (D&I) | Not provided | Muindi et al., 2023 | |
Gene Editing for Reducing Aflatoxin in Groundnuts | Aflatoxin Resistance | CIMMYT, ICRISAT | CRISPR/Cas9 | Discovery & Innovation (D&I) | Not provided | Prasad et al., 2023 | |
CRISPR/Cas-based genome editing for yam improvement | Genetic improvement for pest, disease and yield | IITA, University of Nairobi, Iowa State University, Ames, IA, USA, Division of Plant Sciences, Bond Life Sciences Center, University of Missouri, Columbia, MO, USA, Donald Danforth Plant Science Center, St. Louis, MO, USA
| CRISPR/Cas9 | Discovery & Innovation (D&I) | Not provided | US National Science Foundation | Syombua et al., 2021 |
CRISPR/Cas9 gene editing of Theileria parva for the development of vaccine against East Coast fever (ECF) | ECF vaccine | ILRI Nairobi (Lead), FLI (Germany), J. Craig Venter Institute (JCVI), USA | CRISPR-Cas9 | Scaling | Not provided | CGIAR Trust Fund, USAID, BMGF | Ngure & Karembu, 2023 |
Accelerating African Swine Fever Virus (ASFV) vaccine development via CRISPR-Cas9 and synthetic biology technologies | ASFV vaccine | ILRI Nairobi (Lead), FLI (Germany), J. Craig Venter Institute (JCVI), USA | CRISPR-Cas9 | R & D | Not provided | CGIAR Trust Fund, USAID, BMGF | Ngure & Karembu, 2023 |
Application of reproductive biotechnologies to develop a transgenic goat as a model for genetic control of animal diseases | Trypanosomiasis disease | ILRI (Lead), UoN | CRISPR-Cas9 | D&I | Not provided | CGIAR Trust Fund | Deeni & State, 2024 |
3.5. Analysis of Human Capital and Institutional Capacity
3.5.1. Summary of existing human capacity
Kenya possesses a significant and growing human capacity for the regulation and R&D of the GEd technology, particularly in agriculture (crops and livestock). Knowledgeable and relevant individuals in GEd were found in the five (5) categories of stakeholders, namely; regulatory agencies, research organizations/institutions, universities, private sector/industry and other government agencies/ministries and policymakers (Annex 1). Programs at Kenyatta University’s curriculum integration and the International Institute of Tropical Agriculture’s (IITA’s) and Innovative Genomics Institute’s (IGI’s) collaborative platform at the International Livestock Research Institute (ILRI), were found to train African scientists in the GEd cutting-edge technologies. To mention a few of the existing human capacity in GEd, notable individuals are: Leena Tripathi and Rose Harriet Okech from IITA based at ILRI, Nairobi, Stephen Runo from Kenyatta University (KU), and Christian Tiambo and Kouadio Nasser Yao from Biosciences Eastern and Central Africa at the International Livestock Research Institute (BecA-ILRI). Other scientists that possess great knowledge in GEd include James Kamau Karanja, Emily Waringa Gichuhi, and Paul Kuria, and Jane Mbugua from the Kenya Agricultural and Livestock Research Organization (KALRO), Edith Mnyazi Muwawa from Pwani University, Grace Wacheke Mungai from Jomo Kenyatta University of Agriculture and Technology (JKUAT), and Stephen Kironji Githeng'u from Egerton University.
Despite the existence of above-mentioned top scientists in GEd technology in Kenya, there are still capacity gaps/needs as well as knowledge transfer gaps. These gaps/needs include lack of investment in advanced laboratories with high-throughput sequencing, insufficient numbers of trained scientists and regulatory professionals, needs for more hands-on training platforms like the IITA one to complement the theoretical knowledge, and funding challenges to support GEd R&D, etc.
3.5.2. Research, Development and Academic Institutions
There are several research and development (R&D) and academic institutions in Kenya that are engaged in various activities of GEd technologies. Examples include:
Kenya Agricultural & Livestock Research Organization (KALRO); involved in GEd R&D, GEd communication, and extension services;
Kenyatta University (KU), involved in GEd R&D, education and research training of BSc, MSc and PhD students through curricula
University of Nairobi (UoN), involved in education and research training of BSc, MSc and PhD students through curricula;
Egerton University (EGU), involved in education and research training of BSc, MSc and PhD students through curricula;
Jomo Kenyatta University of Agriculture and Technology (JKUAT), involved in education and research training of BSc, MSc and PhD students through curricula.
Pwani University (PU), involved in education and research training of BSc, MSc and PhD students through curricula.
South Eastern Kenya University (SEKU), involved in education and research training of BSc, MSc and PhD students through curricula
International Institute of Tropical Agriculture (IITA), involved in GEd R&D and capacity building (training), including hands-on of scientists and regulators.
International Livestock Research Institute (ILRI), involved in GEd R&D and capacity building (training) of scientists.
Global Alliance for Livestock & Veterinary Medicine (GALVmed), involved in commercialization of vaccines developed by ILRI through GEd technologies.
AGTECH Consulting Ltd (AGTECH), involved in field-testing and commercial registration of GEd products.
International Service for the Acquisition of Agri- biotech Applications (ISAAA), involved in training of stakeholders in GEd communications and public perception.
3.5.3. Training and Professional Development
The International Institute of Tropical Agriculture (IITA) at ILRI, Kenya has established a state-of-the-art Genome Editing Platform in Nairobi to train African scientists, including Kenyan agricultural scientists, mentioned in section 4.1. in cutting-edge GEd technologies like CRISPR-Cas9 and Cas-CLOVER. Uniquely positioned, the IITA platform, in partnership with international and regional bodies like Innovative Genomics Institute (IGI), African Orphan Crops Consortium (AOCC), Africa Plant Breeding Academy at University of California, Davis (AfPBA, UC Davis) (Table 4) conducts the entire genome editing pipeline in-house—from target gene identification and guide RNA design to cloning, transformation, regeneration, and molecular characterization of edited plants. Since the inception of this IITA platform, a broad spectrum of Kenya’s stakeholders—including scientists, regulators, and science communicators have been trained through short-term training programs aimed at raising awareness, fostering understanding, and enabling informed decision-making around genome editing and develop next-generation scientific leaders. Also, through its Capacity Building Initiative, IITA has provided support for PhD students, postdoctoral researchers, and early-career MSc scientists, the platform provides rigorous, hands-on training in genome editing research. Currently, five PhD students are undergoing training in genome editing at IITA-Nairobi, while two other PhD and two MSc students have previously completed similar training for their degree program (Figure 3). IITA is collaborating with local universities in Kenya including Kenyatta University (KU), Jomo Kenyatta University of Agriculture and Technology (JKUAT) and Egerton University to further strengthen this effort, providing students with academic mentorship and access to advanced laboratory facilities (Table 4).
Through this integrated capacity building approach, IITA’s Genome Editing Platform is not only generating scientific innovations but also cultivating a new generation of African leaders in agricultural biotechnology. These trainees are equipped to become future experts and trainers, helping to build and sustain national capacities across Kenya. These Kenyan scientists have acquired the critical skills needed to integrate genome editing into national research programs and establish local capacities. Each cohort gets training in three focused, two-week sessions annually.
Other organizations/initiatives like the Alliance for Science in Africa, the Open Forum on Agricultural Biotechnology in Africa (OFAB), and the AUDA-NEPAD/ABNE (GEd Initiative) have been training key stakeholders in Kenya, namely, regulators, scientists, communicators (media), and farmers on the genome editing communication through organized workshops. These workshops run from 1 to 4 days, depending on the need and the consortium holding the workshops.
Another initiative, the Teaching and Research in (Neuro) science for Development (TReND) in Africa in partnership with the Kenya Medical Research Institute (KEMRI) Wellcome Trust and NeuroDev Kenya Study, and the Aga Khan University Hospital (AKU), are supporting capacity building in neuroscience education and research by providing equipment, training, and volunteering schemes.
In addition, several Kenyan universities and tertiary institutions are offering training courses on biotechnology, which can be major driver and leverage on GEd technologies. Some of the institutions and their training programs are listed in Table 5.
Table 4: Overview of Training Programmes on Genome Editing
Institution / Organization | Training Programme | Target Audience / # of Trainees per annual | Frequency | Duration | Gaps Identified |
International Institute of Tropical Agriculture (IITA) | CRISPR Course | Postdoctoral, Mid-level research scientist | Annually | 4 weeks | Need for more hands-on training; funding gaps; limited number of advanced laboratories with state-of-the art equipment |
Capacity Building Initiative |
| Annually | 3 months | Need for more hands-on training and more funding | |
Innovative Genomic Institute (IGI)
| CRISPR Course (Joint with IITA) | Postdoctoral, Mid-level research scientist | Annually | 4 weeks | Same as in IITA |
Africa Plant Breeding Academy at University of California, Davis (AfPBA, UC Davis), | CRISPR Course (Joint with IITA) | Postdoctoral, Mid-level research scientist | Annually | 4 weeks | Same as in IITA |
African Orphan Crops Consortium (AOCC) | CRISPR Course (Joint with IITA) | Postdoctoral, Mid-level research scientist | Annually | 4 weeks | Same as in IITA |
Africa Plant Breeding Academy at University of California | CRISPR Course (Joint with IITA) |
| Annually | 4 weeks | Same as IITA |
Alliance for Science in Africa | Hands-on in GEd & GEd communication | Farmers, scientists and communicators | As need arises | 6 weeks; 4 days | Public trust and engagement |
Open Forum on Agricultural Biotechnology in Africa (OFAB) | Genome editing communication | Regulators, scientists, media, and farmers | Annually | 1 to 4 days | Public trust and engagement |
AUDA-NEPAD/ABNE (GEd initiative) | Genome editing communication | Regulators, scientists and communicators | As need arises | 2 to 4 days | Public trust and engagement |
Teaching and Research in (Neuro) science for Development (TReND) in Africa | Capacity building in neuroscience | Healthcare scientists or researchers | Annually | 8 weeks to 3 years | Curriculum and training, funding, and research infrastructure gaps |
Table 5: Universities Offering trainings on Biotechnology and GEd related courses in Kenya
University | Courses offered | ||||
Certificate | Diploma | BSc | MSc | PhD | |
Kenyatta University | ---- | ---- | Biotechnology Biochemistry Molecular & Cellular Biology | Biotechnology Biochemistry | Biotechnology Medical Biochemistry |
University of Nairobi | ---- | ---- | Food Science and Technology Microbiology and Biotechnology | Plant Breeding and Biotechnology Biotechnology Bioinformatics | Plant Breeding and Biotechnology Biotechnology Bioinformatics |
Jomo Kenyatta University of Agriculture and Technology | Basic Microbiological Techniques Molecular Biology
| ---- | Biotechnology Biochemistry and Molecular Biology Genomic Sciences Industrial Biotechnology | Molecular Biology and Bioinformatics Medical Biotechnology
| Molecular Biology and Bioinformatics Molecular Biology and Biotechnology
|
Pwani University | ---- | ---- | Biotechnology | Biotechnology Bioinformatics | Biotechnology |
Egerton University | ---- | ---- | Biochemistry and Molecular Biology Biomedical Science and Technology | Plant Biotechnology Animal Breeding and Genomics | Plant Biotechnology Animal Breeding and Genomics: |
University of Embu | ---- | ---- | Microbiology and Biotechnology | Genetics Plant Breeding and Biotechnology Biotechnology Bioinformatics | Biotechnology Bioinformatics Animal Genetics and Breeding
|
University of Eldoret | ---- | ---- | Biotechnology and Biosafety Agricultural Biotechnology | Plant Breeding and Biotechnology Seed Science and Technology
| Plant Breeding Seed Science
|
---- | ---- | Agricultural Biotechnology
| Agricultural Biotechnology | Agricultural Biotechnology | |
Maseno University | ---- | ---- | Medical Biotechnology with IT | Molecular Microbiology & Biotechnology Genetics | Molecular Microbiology & Biotechnology |
.
3.6. Analysis of Infrastructure and Equipment
3.6.1 Universities
Several academic institutions in Kenya have molecular laboratories with basic equipment and glasshouse infrastructure. However, nearly all these institutions have limitations and need support in acquiring laboratory consumables, sequencing services, are constrained with national procurement laws, etc. (Table 6).
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 |
Kenyatta University | Molecular lab with PCR machines, glasshouses | BSL 2 | Not-fully equipped | Political issue (non-enabling national procurement law), inadequate funding, unstable supply of power, maintenance challenge | Specialized procurement/ waiver/ exemptions, |
University of Nairobi (CEBIB) | Molecular lab, tissue culture, Bioinformatics | BSL 2 | Not-fully equipped | Political issue (non-enabling national procurement law), inadequate funding, unstable supply of power, maintenance challenge. | Specialized procurement/ waiver/ exemptions. |
Egerton University | Molecular lab, tissue culture, | None | Not-fully equipped | Political issue (non-enabling national procurement law), inadequate funding, unstable supply of power, maintenance challenge. | Specialized procurement/ waiver/ exemptions. |
Pwani University | Molecular lab, tissue culture, glasshouses, Bioinformatics | Noe | Not-fully equipped | Political issue (non-enabling national procurement law), inadequate funding, unstable supply of power, maintenance challenge. | Specialized procurement/ waiver/ exemptions. |
Jomo Kenyatta University of Agriculture and Technology | Molecular lab, tissue culture, glasshouses | None | Not-fully equipped | Political issue (non-enabling national procurement law), inadequate funding, unstable supply of power, maintenance challenge. | Specialized procurement/ waiver/ exemptions. |
University of Embu | Molecular lab, tissue culture, glasshouses | None | Not-fully equipped | Political issue (non-enabling national procurement law), inadequate funding, unstable supply of power, maintenance challenge. | Specialized procurement/ waiver/ exemptions. |
University of Eldoret | Molecular lab, tissue culture, glasshouses | None | Not-fully equipped | Political issue (non-enabling national procurement law), inadequate funding, unstable supply of power, maintenance challenge. | Specialized procurement/ waiver/ exemptions. |
Molecular lab, tissue culture, glasshouse | None | Not-fully equipped | Political issue (non-enabling national procurement law), inadequate funding, unstable supply of power, maintenance challenge. | Specialized procurement/ waiver/ exemptions. | |
Southeastern Kenya University | Molecular lab, tissue culture, glasshouse | None | Not-fully equipped | Political issue (non-enabling national procurement law), inadequate funding, unstable supply of power, maintenance challenge. | Specialized procurement/ waiver/ exemptions. |
3.6.2 Research institutions
Kenya has several national agricultural and forestry research organizations/institutes (NAROs/NARIs) and consultative group in international agriculture research centres (CGIAR), which have state-of-the art molecular laboratories that are well equipped (Table 7). However, the lab facilities at the NAROs/NARIs is not well funded and may 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 |
International Institute of Tropical Agriculture (IITA) | Molecular lab with PCR machines, glasshouses | BSL 2 | Fully equipped | Funding gap due to USAID exit | Specialized procurement/ waiver/ exemptions, |
International Livestock Research Institute (ILRI) | Molecular lab with PCR machines, glasshouses | BSL 2 | Fully equipped | Funding gap due to USAID exit | Specialized procurement/ waiver/ exemptions |
International Centre of Insect Physiology and Ecology (ICIPE) | Molecular lab with PCR machines, glasshouses | BSL 2 | Fully equipped | Funding gap due to USAID exit | Specialized procurement/ waiver/ exemptions |
International Potato Center (CIP) | Molecular lab with PCR machines, glasshouses | BSL 2 | Fully equipped | Funding gap due to USAID exit | Specialized procurement/ waiver/ exemptions |
International Maize and Wheat Improvement Center (CIMMYT) | Molecular lab with PCR machines, glasshouses | BSL 2 | Fully equipped | Funding gap due to USAID exit | Specialized procurement/ waiver/ exemptions |
Kenya Agricultural & Livestock Research Organization (KALRO) | Molecular lab with PCR machines, glasshouses | BSL 1, BSL 2 | Not-fully equipped | Political issue (non-enabling national procurement law), inadequate funding, unstable supply of power, maintenance challenge, | Specialized procurement/ waiver/ exemptions |
Kenya Forestry Research Institute (KEFRI) | Molecular lab with PCR machines, glasshouses | None | Not-fully equipped | Political issue (non-enabling national procurement law), inadequate funding, unstable supply of power, maintenance challenge, | Specialized procurement/ waiver/ exemptions |
3.7 Analysis of Indigenous and Staple Crops, Livestock, Agroforestry, and Fisheries Varieties/ Breeds for Improvement Using GEd
A number of staples, indigenous and commercial crops were identified during this Assignment that are currently under the GEd or could 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). Link with national food security and climate resilience, food sovereignty, reducing the huge import bill goals for Africa.
Table 8: Priority Organisms for Genome Editing Application
Organism / Species | Trait improvement of Interest | Socioeconomic Justification | GEd Potential (Low/Medium/High) | Existing R&D | Actual Annual Production (tonnes) | Expected Annual Production (tonnes) |
Maize | Yield/ herbicide resistance | Staple crop; Central to food security and Big 4 agenda | High | CIMMYT–KALRO MLND resistance | 4407766 | 5068931 |
Sorghum | Improved yield and high nutrition | Drought-resilient staple, key in ASAL regions; supports food diversification policy | High | ICRISAT/partners CRISPR on LGS1 (Striga resistance); national breeding programs | 201524 | 241829 |
Millets (Finger & Pearl) | Improved yield and high nutrition | Reduce reliance on maize; policy-supported crops in semi-arid zones | High | ICRISAT CRISPR-enabling work in small millets; trait discovery for stress tolerance | 96090 | 115308 |
Common bean | Pest and Disease resistance | Major source of protein and income | Medium | Alliance (CIAT) CRISPR for BCMV/BCMNV & bruchid; Kenyan breeding programs for resilience | 1000000 | 1150000 |
Pigeon pea | Pest and Disease resistance | Important semi-arid legume and intercrop | Medium | ICRISAT CRISPR platform; trait targets for sterility mosaic & Fusarium—proof-of-concept stage | 92061 | 110473 |
Mung bean | Pest and Disease resistance | Drought-adapted pulse; supports dietary diversification | Medium | Emerging CRISPR targets for bruchid resistance | 168404 | 202085 |
Banana | Disease resistance | Staple in highland and cash crop zones | Medium | IITA & partners CRISPR for BXW/BBTV | 2908221 | 3489865 |
Cassava | Yield | Critical root crop for food security | High | IITA–KALRO genome editing CBSD/CMD resistance | 1202389 | 1502986 |
Sweet potato | Pest and Disease resistance | Nutrient-rich food and cash crop | High | CIP & national partners exploring CRISPR for virus resistance | 669149 | 802979 |
Irish Potato | Pest and Disease resistance | High-value crop and source of income | High | KALRO–CIP biotech late blight-resistant | 2300000 | 2875000 |
Production statistics sources: https://www.statskenya.co.ke/ & https://www.knbs.or.ke/
3.8 Analysis of Intellectual Property Rights and Benefit Sharing
Kenya has national organizations that are responsible for administration and management of intellectual property (IP) rights, like trademarks, patents, industrial designs, plant breeders' rights, and copyright. The IP issues of biotech and GEd products are normally/mainly handled through patenting of traits/processes, trademarks and plant breeders’ rights of new varieties. The national organizations that have experience and deal with IPR-related issues are:
Kenya Intellectual Property Institute (KIPI): KIPI, through the Industrial Property Act Cap 509, 2001 (revised 2002, 2007, 2017, 2018, 2022), the Industrial Property Regulations Guidelines for the Examination of Patents, Utility Models and Industrial Designs and the Industrial Property Rights Guidelines for Commercialization in Kenya, promotes innovation and facilitates the acquisition of technology and providing a legal framework for the protection and regulation of industrial property rights, including patents (e.g. modern biotech/GEd), utility models, and industrial designs.
Kenya Plant Health Inspectorate Service (KEPHIS): KEPHIS, through the Plant Breeders Rights and Regulations 2022, grants right to plant breeders, upholding variety protection, including those developed through modern biotechnology and GEd technologies, grants standards to ensure quality seeds reach farmers, and prevent introduction of pests and diseases.
Kenya Copyright Board (KECOBO): KECOBO is a state corporation and through the Copyright Act 2001 CAP 130 (revised 2009) and Copyright Regulations 2020 is responsible for the administration and enforcement, including registration, infringement, and public awareness, of matters copyright. The Copyright Tribunal hears appeals from KECOBO decisions.
Anti-Counterfeit Authority (ACA): ACA, through the Anti-Counterfeit Act No. 13, 2008, enforces against counterfeiting and IPR issues related to counterfeiting.
Note. Although Kenya is a signatory since 2010 to the Nagoya Protocol on Access and Benefit Sharing and the Kuala Lumpur Protocol on Liability and Redress, it only ratified/acceded to it in 2024 and entered into force in 2025. Therefore, no projects of modern BT and GEd in Kenya, mentioned in Section 3.4, Table 3 have been linked to the Nagoya- Kuala Lumpur Protocol on Access and Benefit Sharing; Liability and Redress and also been able to manage IPR-related issues.
The approaches mentioned above are in line with national, regional, international treaties. The main gaps identified for full implementation are funding/investments, high number of well-trained human personnel and political (unexpected political pronouncements) and legal (court cases) issues.
3.9 Analysis of Private Sector Participation
The private sector companies (Table 9) play crucial roles in biotech and GEd in Kenya, focussing in commercializing these technologies, often through public-private partnerships (PPP) for both crop and livestock improvements. Private sector roles include funding, developing and licensing biotech and GEd products (R&D), offering related testing and analytical services, and efficiencies for technology scale-up in agriculture, environment, and animal health. Private sector companies and entrepreneurs can also promote these technologies by creating and developing niche biotechnologies, facilitating the transfer of existing technologies, and contributing to the infrastructure needed for biotech/GEd R&D. Areas of private sector involvement can be summarized as follows:
Research and Development (R&D): Private sector companies, like Corteva and Bayer have been actively involved in biotech and GEd R&D in Kenya. Often, these companies collaborate with public institutions as will be seen later in this section.
Product Development & Innovation: Private-sector in Kenya as elsewhere are actively involved in Product Development & Innovation of biotech and GEd, particularly in agriculture, at the tail end of R&D.
Product Testing and Analytics: In Kenya, the private sector entities contribute to the biotech and GEd ecosystem by providing specialized services in their advanced laboratories, diagnostic tools, and specialized equipment to the public institutions (partners) for research and commercialization purposes. The growth of private sector investment and expertise is crucial for enhancing Kenya’s capacity to harness biotech and GEd technologies for agricultural benefits.
Commercialization and Scale-up: Private sector companies are crucial in bringing new biotech/GEd products to the market and scaling-up production/adoption of such products. In Kenya such products include seed of improved varieties/hybrids of cultivated crops, or animal vaccines, as examples.
Infrastructure and Service Provision: Some private sector companies, Bayer (when was Monsanto) facilitated the setting up of specialized research infrastructure platforms. e.g. Maize Double-Haploid (DH) facility in Kiboko, and the Maize Lethal Necrosis Disease (MLND) Screening facility in Naivasha and provided specialized technical services to public institutions. The state-of-the-art DH facility at Kiboko is a joint venture between KALRO and CIMMYT. It is a key component to improve research efficiency and capacity building in crop breeding programs in Kenya, especially maize breeding program. The state-of-the-art MLND Screening facility at Naivasha is also a joint venture of KALRO-CIMMYT. It is a quarantine site, established in 2013 to screen maize germplasm for resistance and tolerance to the devastating MLND.
Niche Technologies: In Kenya, private sector entities play an increasing important role in niche biotech and GEd technologies through investment in R&D, development of innovative products, and participation in the PPPs as described in detail above. These private sector entities contribute to the ecosystem by addressing specific agricultural needs like crop improvement for biotic and abiotic stresses and nutritional quality attributes, thereby supporting the growth of the local biotech hubs, and positively influencing the development of a robust and friendlier regulatory regime for the very technologies envisaged.
Collaboration with Public Sector
Public – Private Partnerships (PPPs): PPPs are a common model for collaborations between public and private institutions. The PPPs bridge gaps in funding and technical expertise, allowing public research to be scaled and commercialized by private sector. This enables private sector to leverage public research capabilities and share risks, if any, in developing appropriate technologies for smallholder farmers (SHFs).
Examples of PPPs models in Kenya are:
Corteva, KALRO, CIMMYT and STAK Partnership: CRISPR/Cas9 genome editing of maize for resistance to maize lethal necrosis disease (MLND) in Kenya
Pivot Bio, Inc., AGTECH, KALRO and Egerton University Partnership: Suicide plasmid genome editing of certain soil bacterial strains that colonize maize root biosphere for nitrogen (N2) uptake from the atmosphere for self-fertilization. This GEd product is also found to work in other cereals like sugar cane, wheat, etc. of the grass (Graminae) family
Technology Transfer & Licensing: To facilitate the development and commercialization of biotech and GEd products, private sector companies in Kenya license (usually non-inclusive) specific technologies and transfer of knowledge to the public research organizations/institutions (e.g. KALRO) and universities (e.g. Kenyatta University).
Regulatory Contexts
Biosafety/and or Regulatory Frameworks: Although Kenya has a relatively flexible and friendly regulatory framework for GEd (published GEd Guidelines), allowing for case-by-case review and enabling such agricultural innovation, the earliest applications on GEd products submitted to the NBA were from private sector companies, thereby testing, validating and improving the framework. Also, these applications turned out to build the capacity of the regulators in reviewing and making informed decisions in the approval process.
Table 9: Overview of Genome Editing Stakeholders and Activities in the Private Sector
Company/Entity | Type (Agri-biotech, Start-up, etc.) | GEd Activities | Partnerships | Challenges Faced | Investment Interest |
Corteva | Multinational Agri‑biotech | CRISPR/Cas9 editing of maize on MLND resistance. | KALRO. CIMMYT, STAK
| Regulatory hurdles; public acceptance on gene edited products | Crops improvement |
Pivot Bio Inc. | Start-up Agri‑biotech | Suicide plasmid editing of bacterial strain for self-fertilizing maize | AGTECH, KALRO, Egerton University
| Regulatory hurdles; public acceptance on gene edited products | Self-fertilizing cereals (e.g. maize) |
|
|
|
|
|
|
Simlaw Seeds | National seed company | Not publicly documented | — | Not known to be engaged in GEd | Advancement in seed systems. |
Royal Seed | National seed company | Not publicly documented | — | No work related to GEd | Advancement in seed systems. |
Kenya Seed | National seed company | Not publicly documented | — | No work related to GEd | Advancement in seed systems. |
Amiran Kenya | Agri input provider/distributor | Not publicly documented | — | No work related to GEd | Seed systems, crops improvement, crop protection |
Kenya Biologics Ltd | Biologics manufacturer | Not publicly documented | — | No work related to GEd | Crop protection |
Real IPM | Biopesticides/agro-bio firm | Not publicly documented | — | No work related to GEd | Crop protection |
Koppert Biological Systems Kenya | Biocontrol/agri‑biotech | Not publicly documented | — | No work related to GEd | Crop protection |
PathCare Kenya | Diagnostics provider | Not publicly documented | — | No work related to GEd | Provision of laboratory services |
Dounebaine Diagnostics limited | Diagnostics/biotech firm | Not publicly documented | — | No work related to GEd | Provision of laboratory services |
Centre for Molecular Biosciences and Genomics | Research-focused center | Research support in molecular breeding | Universities and research institutions | Limited visibility in undertaking research on GEd | Research and Development |
3.10. Analysis of Funding and Investment landscape
Kenya’s genome editing research landscape is externally driven and donor-dependent, with major inputs from the Gates Foundation, USAID and CGIAR/ILRI-linked programs, complemented by industry investments (Corteva, Pivot Bio, Bayer). To ensure sustainability, increased national funding through NRF and government programs will be critical, alongside scaling PPP models that link global technology developers with Kenyan research institutions and key stakeholders. To date, NRF has not allocated dedicated funding to genome editing (GEd) research. This reflects limited national budget prioritization for advanced biotechnologies, with most support directed to broader agricultural research and innovation funds. USAID has funded the Striga Smart Sorghum for Africa project, which employs genome editing to enhance sorghum resistance to Striga and herbicides. This project is led by Kenyatta University in collaboration with other partners such as Addis Ababa University. Gates Foundation (BMGF) is a major financier of GEd in Kenya and Africa, with an estimated USD 15M+ invested (2018–2025) in maize genome editing for MLND resistance. Implemented through CIMMYT, KALRO, Corteva, and African universities, this is one of the largest GEd projects in Africa. CGIAR Trust Fund has supported reproductive biotechnologies, including genome editing, to develop transgenic goat models for disease control. ILRI (Nairobi) is a key recipient. Belgium Development Cooperation has funded a project (2017–2022) on plant stress tolerance using genome editing tools in maize and Arabidopsis, in collaboration with the University of Nairobi. AUDA-NEPAD while not a direct financier of R&D, it provides technical support, policy advocacy and regulatory harmonization (2019–present) for genome editing in Africa. Corteva Agriscience is a core private investor in genome editing, working with CIMMYT and KALRO since 2018 on CRISPR/Cas9-edited maize resistant to MLND. Bayer invests in early-stage GEd research for crop protection and seed improvement in Africa, with Kenya as part of its R&D network (Table 10).
Table 10: Overview of National and Other Funding Sources for Genome Editing
Funder/Donor | Organization Type | GEd Project | Amount (USD) | Duration | Recipient Institution(s) | Area of Focus |
National Research Fund (NRF) Kenya | Government | None | None | None | None | None |
United States Agency for International Development (USAID) | Development partner | Striga Smart Sorghum for Africa Project | Not disclosed | 2020–present | Kenyatta University, African research partners | Crop genome editing – sorghum |
Gates Foundation (formerly, Bill & Melinda Gates Foundation – BMGF) | Development partner | Gene editing to control maize lethal necrosis disease (MLND) in Africa for improved maize productivity and grain harvests | ~USD 15M+ (regional program) | 2018–2025 | CIMMYT, KALRO, Corteva, African universities | Maize lethal necrosis resistance, food security |
CGIAR Trust Fund | Development partner | Application of reproductive biotechnologies to develop a transgenic goat as a model for genetic control of animal diseases | Not disclosed | Ongoing | ILRI (Nairobi), University collaborators | Livestock GEd (disease resistance, vaccines) |
International Development Research Center (IDRC - Canada) | Development partner | Accelerating African Swine Fever Virus (ASFV) vaccine development via CRISPR-Cas9 and synthetic biology technologies | Not disclosed | 2021–2024 | ILRI, Canadian labs, African partners | Livestock vaccine R&D |
Belgium Development Corporation | Development partner | Modulation of energy homeostasis in maize and Arabidopsis to develop lines tolerant to drought, genotoxic and oxidative stresses. | Not disclosed | Past project cycle (2017–2022) | University of Nairobi, Belgian Universities | Plant stress tolerance via GEd |
AUDA-NEPAD | Development partner | Communications and advocacy and regulatory support | Not financial R&D grants; technical/regulatory support | 2019–present | African countries including Kenya, ISAAA AfriCenter | Policy harmonization, capacity building |
Pivot Bio | Private sector/Industry | PROVEN®40 Microbial Field Efficacy Trials in Kenya | Not disclosed (corporate R&D) | 2021–present | Agtech Consulting Ltd, KALRO | Gene-edited microbes for biofertilization |
Corteva | Private sector/Industry | CRISPR/Cas9 genome editing in maize for MLND resistance | Corporate investment (undisclosed) | 2018–present | CIMMYT, KALRO, AfSTA | Maize |
Bayer | Private sector/Industry | Early-stage GEd research in crop protection & seeds (Kenya linkage via African R&D programs, e.g., climate-resilient crops) | Not disclosed | Ongoing | Collaborations with KALRO, African R&D hubs | Crop traits, seed systems, regulatory engagement |
Signatory and Ratification of Multilateral Environment Treaties and Agreements: Kenya 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. By ratifying these treaties and agreements, Kenya commits to the global efforts in areas such as food safety, climate action, conversation of biodiversity, and ozone layer protection.
Policy Implications/Options: Kenya integrates its commitments to international treaties and agreements into its food and environmental management frameworks and has so far developed its relevant policies/regulations in line/compliance with these international standards.
Regulatory and Policy Frameworks: Kenya has a relatively flexible and friendly regulatory framework for GEd (published GEd Guidelines), allowing for a case-by-case review and enabling testing, adoption and upscaling of such agricultural innovations. Therefore, Kenya is ready with a conducive regulatory framework to fully embrace GEd technology in agricultural R&D towards product development, deployment and commercialization. However, challenges still exist and the approved GEd products for commercialization are not yet with the farmers targeted.
Recommendation and Policy Options: Kenya should adopt regulatory reforms in rapid decision-making, especially in early consultations phase of the GEd applications to distinguish between regulated and unregulated GEd products based on the presence of foreign DNA (or SDN-1, SDN-2, etc.), and clear review steps, providing clarity on which products are subject to the Biosafety Act and which may be exempted. It was observed at the NBA during the primary data exercise that many GEd projects listed in Kenya are still classified as GMOs as NBA is concerned and therefore their researchers have not applied to move them to field-testing and product development, deployment and commercialization. Other regulatory reforms should include simplified import regulations for laboratory supplies and consumables.
Other policy reforms should include attracting private sector to establish of more PPPs with public institutions for the R&D, and rapid deployment, commercialization and upscaling of GEd products.
Capacity Building in GEd Technologies: It was observed during the GEd Landscape Analysis Assignment that there are capacity building gaps in GEd in Kenya, even though IITA, IGI, etc., are already doing something in this area. Therefore, there is need for more hands-on training.
Recommendation: In Kenya, capacity building in GEd technology should focus on strengthening regulatory frameworks, providing/conducting a comprehensive theoretical and hands-on training of scientists and regulators. These new capacity building efforts should complement and upscale existing ones like the IITA/IGI training platform. Trained scientists (PhDs, MScs, BScs, etc) should be encouraged and facilitated to disseminate their knowledge within their institutions, creating a compounding effect for wider adoption, diffusion and upscaling of GEd technologies.
Communication and Public Engagement: It was observed during the GEd Landscape Analysis Assignment that communication and advocacy are crucial in Kenya’s GEd landscape for building public understanding, ensuring responsible technology adoption and diffusion, fostering inclusive policy development, and accelerating the use of GEd technology to enhance agricultural productivity and address the food security and nutritional challenges.
Recommendation: There is need in Kenya to implement a robust innovative public education and campaigns to raise awareness about potential benefits and risks (if any) of GEd technologies. Target stakeholders in this approach should be the public (media, policy-makers, scientists, politicians, policy/political influencers, etc.), indigenous people, and local communities.
Fostering International and Regional Collaborations: It was observed during the GEd Landscape Analysis Assignment that there international and regional collaborations or partnerships are crucial for Kenya to build its GEd capacity, leading to food security, improved public health and economic growth by sharing knowledge, harmonizing regulations, attracting and securing funds, and ensuring equitable access to GEd technology. Such partnerships will foster regional leadership in the technology, create a unified voice on policy, promote responsible innovation, and prevent exploitation. This would accelerate the responsible adoption, diffusion and benefits of GEd technology in addressing local and continental challenges. Collaborating with regional bodies like AUDA-NEPAD has helped Kenya refine its biosafety regulations, creating a predictable and harmonized GEd products, which could potentially reduce trade barriers and promote agricultural innovations.
Recommendation: To fully embrace GEd technology in Kenya and reap the benefits thereof while minimizing any potential risks associated with it, there is need in Kenya to promote strong partnerships with international centers of research and training excellence, academic institutions, expert organizations, and private sector (PPPs) for knowledge transfer and technical assistance.
Investment in GEd R&D Strategies in Kenya: It was observed during the GEd Landscape Analysis Assignment that investment in GEd R&D in Kenya focuses on improving weed-resistance, drought-resistance, disease-resistance, and self-fertilizing crops like sorghum, maize, bananas, etc. and development livestock vaccines. These efforts have been backed up with significant capacity-building efforts and developing clearer regulatory pathways that distinguish GEd products from traditional GMOs. Funding, though limited, is being channelled into GEd infrastructure and training in CRISPR/cas9 technology transfer to local institutions and researchers.
Recommendations: To effectively invest in GEd R&D in Kenya, there is need to prioritize building of local capacity through provision of advanced infrastructure and training for scientists and regulators, promoting regional and international collaborations, and fostering public trust through transparent communication. Also crucial is the need to invest in developing flexible and harmonized biosafety regulatory frameworks that encourage innovation, alongside targeted financial incentives for public-private partnerships (PPPs). Another strategy is to invest in young scientists and promote community engagement with indigenous crops, which will ensure sustainable and localized advancements in agriculture and food systems.
Summarized matrix of action plans according to: Issues → gaps → recommended actions → lead institutions.
Regulatory frameworks → regulatory reforms → rapid decision-making, clear review steps → National Biosafety Authority (NBA).
Capacity building in GEd R&D → knowledge gaps → hands-on training to regulators and scientists → Advanced Laboratories like IITA, Private sector, international research and training centres/institutions/universities.
Communication and Public Engagement → information& public trust gaps → public education and campaigns → Local institutions, regional bodies like AUDA-NEPAD, EAC.
Fostering International and Regional Collaborations → international & regional collaboration gaps → incentives for PPPs → national government, private sector, private foundations (Gates Foundation).
Investment in GEd R&D in Kenya → investment and funding gaps → invest in GEd infrastructure, training & establishment of international and regional collaborations → regional bodies (AUDA-NEPAD, EAC), private foundations (Gates Foundation).
Stipulating Policy Action Plans (Short- Medium- and Long-term):
Short-term policy action plans: Regulatory reforms
Medium-term policy action plans: Communication and public engagement.
Long-term policy action plans: Fostering regional and international collaborations, Investment in GEd R&D.
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Annex 1. List of institutions and resource persons involved in the interview
SN | Sector | Ministry/Department/Institution/ |
1 | Regulatory | National Biosafety Authority (NBA) |
4 | Regulatory | Department of Veterinary Services (DVS) |
5 | Regulatory | Kenya Plant Health Inspectorate Services (KEPHIS) |
7 | Regulatory | Pest Control Products Board (PCPB) |
10 | Regulatory | National Environment Management Authority (NEMA) |
11 | Research Institutions | Kenya Agricultural and Livestock Organization (KALRO) |
13 | Research Institutions | International Institute of Tropical Agriculture (IITA) |
16 | Research Institutions | International Maize and Wheat Improvement Center (CIMMYT) |
21 | Research Institutions | International Livestock Research Institute (ILRI) |
22 | Research Institutions | International Crops Research Institute for the Semi-Arid Tropics (ICRISAT) |
24 | Research Institutions | International Livestock Research Institute (ILRI) |
27 | Private sector/Industries & NGOs | |
28 | Private sector/Industries & NGOs | Agri- biotech Applications (ISAAA AfriCenter) |
29 | Other Government Institutions & Agencies | |
30 | Universities | Kenyatta University |
32 | Universities | University of Nairobi |
35 | Universities | Pwani University |
36 | Universities | Jomo Kenyatta University of Agriculture and Technology |
38 | Universities | University of Embu |
39 | Universities | University of Nairobi |
43 | Universities | Pwani University |
47 | Universities | University of Nairobi |
52 | Universities | Muranga University |
53 | Universities | Jaramogi Oginga Odinga University of Science and Technology |
54 | Universities | Masinde Muliro University of Science and Technology |
55 | Universities | Chuka University |
56 | Universities | Moi University |
57 | Universities | Egerton University |
59 | Universities | Maseno University |
60 | Universities | Technical University of Kenya |
62 | Universities | Taita Taveta University |
63 | Universities | Pwani University |
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