Nutrition-boosting, income-enhancing maize.
These maize varieties have distinctive orange kernels, a result of high beta-carotene content. They are developed through advanced breeding techniques, combining naturally provitamin A enriched lines from Central and South America with elite land races and hybrid lines with improved agronomic traits.
This technology is TAAT1 validated.
Adults 18 and over: Positive high
It provides improved nutrition, helping to address vitamin A deficiencies
The poor: Positive high
It offers affordable access to essential nutrients, reducing healthcare costs associated with malnutrition.
Under 18: Positive high
It helps combat malnutrition and vitamin A deficiency, which is especially crucial for children's growth, immune system development, and overall health.
Women: Positive high
Women, particularly pregnant and nursing mothers, benefit from better nutrition, reducing risks to maternal and child health.
Climate adaptability: Moderately adaptable
These varieties are bred to be more resilient to various environmental conditions, making them adaptable to climate variability.
Farmer climate change readiness: Significant improvement
These varieties help farmers adapt to climate change by providing a resilient, nutrient-enriched crop.
Soil quality: Does not affect soil health and fertility
The cultivation of these varieties could promote better land use management when coupled with sustainable farming practices.
Water use: Same amount of water used
These varieties are expected to have similar water requirements as conventional maize
Addressing Vitamin A Deficiency:
Combatting Malnutrition and Weak Immunity:
This technology serves as a transformative solution, significantly enhancing gender inclusion. It brings advantages to farmers, demonstrating resilience to climate challenges such as droughts and low rainfall, and showing resistance to pests and diseases. Moreover, it aligns with the Sustainable Development Goals (SDGs) by addressing issues of hunger and promoting the well-being of users, particularly women and children.
To integrate this technology into your project, and create a list of project activities and prerequisites and plan these activities:
- Considering the technology cost of 0.8 to 1.2 USD per kg and a requirement of 25 kg per ha, estimate the quantity of seeds needed for your project.
- As the technology is available from Nigeria and Zimbabwe, include the delivery cost to the project site and account for import clearance and duties if relevant.
A team of trainers could provide training and support during project installation. Include the cost for training and post-training support for using the technology.
Communication support for the technology should be developed (flyers, videos, radio broadcasts, etc.)
For better optimization of the improved maize variety, it is recommended to associate this technology with legumes through intercropping or rotation, and to combine manure application and mulching to enhance nutrient and water availability for the crop.
To implement the technology in your country, you could collaborate with agricultural development institutes and seed multiplication companies.
per kg
Revenue increased
Open source / open access
Country | Testing ongoing | Tested | Adopted |
---|---|---|---|
Cameroon | –No ongoing testing | –Not tested | Adopted |
Democratic Republic of the Congo | –No ongoing testing | –Not tested | Adopted |
Ghana | –No ongoing testing | –Not tested | Adopted |
Kenya | –No ongoing testing | –Not tested | Adopted |
Malawi | –No ongoing testing | –Not tested | Adopted |
Mali | –No ongoing testing | –Not tested | Adopted |
Nigeria | –No ongoing testing | –Not tested | Adopted |
Rwanda | –No ongoing testing | –Not tested | Adopted |
Tanzania | –No ongoing testing | –Not tested | Adopted |
Zambia | –No ongoing testing | –Not tested | Adopted |
Zimbabwe | –No ongoing testing | –Not tested | Adopted |
This technology can be used in the colored agro-ecological zones. Any zones shown in white are not suitable for this technology.
AEZ | Subtropic - warm | Subtropic - cool | Tropic - warm | Tropic - cool |
---|---|---|---|---|
Arid | – | – | – | – |
Semiarid | – | – | ||
Subhumid | – | – | ||
Humid |
Source: HarvestChoice/IFPRI 2009
The United Nations Sustainable Development Goals that are applicable to this technology.
It addresses malnutrition and hidden hunger by increasing provitamin A content in maize
It helps reduce vitamin A deficiency, which can lead to severe health issues such as blindness and immune system problems.
By improving yields under less predictable weather conditions, golden maize supports sustainable farming that reduces vulnerability to climate-related risks.
Variety Selection: Choose the specific Provitamin A Enriched Golden Maize variety best suited for your region. Refer to local agricultural guidelines for recommended planting practices.
Soil and Fertilizer Management: Conduct a soil test to assess nutrient levels and pH balance. Adjust fertilization based on the requirements of the chosen maize variety.
Consider Intercropping or Rotation: In areas with low soil fertility, consider intercropping Provitamin A Enriched Golden Maize with legumes or rotating with other crops. This practice enhances nutrient availability and water retention, benefiting the specific characteristics of this maize variety.
Monitor Growth and Pest Control: Regularly monitor the growth of Provitamin A Enriched Golden Maize, paying close attention to signs of pests or diseases that may affect this specific variety. Apply recommended pest control measures as needed.
Harvesting: Time the harvest for when kernels of the specific Provitamin A Enriched Golden Maize variety are fully mature and dry. This is typically indicated by a change in color and texture.
Storage and Processing: Store harvested maize in dry, well-ventilated conditions to prevent moisture-induced spoilage while ensuring the specific provitamin A content of this maize variety is retained. Use processing methods that minimize oxidation.
Last updated on 11 December 2024