Research in agronomy and agriculture produces new, improved technologies with the potential to increase yields, resist pests and diseases, withstand adverse climates, improve nutrition and income, and more. The TAAT e-catalogs are a powerful step on the road towards such impact:

Technology Providers are researchers or representatives of organizations that own technologies that we showcase on the e-catalogs. They own the data we publish on their technologies in the e-catalogs.

Technology Providers work with the TAAT technology Profiling team to create technology profiles that are customized to the needs of the audience of the e-catalogs:
We provide here supporting and guiding material for Technology Providers:
Reduce pesticide and herbicide losses with IITA's herbicide calculator Widespread abuse of pesticides (including herbicides) is common due to poorly calibrated spray tanks. Farmers overdose or underdose when applying pesticides. The IITA Herbicide Calculator helps farmers and spray service providers to correctly estimate the amount of herbicide to add to backpack sprayers, and promotes herbicide efficacy.
Disease-Resistant Cassava Cuttings for Higher Yields Disease resistant cassava varieties plays a critical role in overcoming the challenges faced by cassava farmers in Sub-Saharan Africa. Cassava, a vital food crop in the region, is frequently plagued by devastating viral diseases, such as cassava mosaic disease and cassava brown streak disease, which harm the leaves, reduce photosynthesis, and result in significant yield losses, sometimes leading to complete crop failure. In essence, disease resistant cassava varieties are instrumental in safeguarding cassava production, ensuring food security, and improving the livelihoods of farmers in Sub-Saharan Africa. These varieties represent a sustainable and efficient approach to combat viral infections that threaten cassava crops, making them a vital technology for the region.
Raise tuber yields with raised beds The raised bed technology for sweet potato production involves elevating soil beds above the surface. These beds, constructed by heaping up loosened soil, create optimal conditions for sweet potato growth. They prevent soil compaction and waterlogging, which can hinder crop development and promote soil-borne diseases. By placing sweet potato crops on these raised beds, farmers effectively reduce weed encroachment throughout the growing season. This method proves highly beneficial in various agro-ecosystems, particularly in Sub-Saharan Africa, where it enhances yields and minimizes labour-intensive weed management. Additionally, raised beds promote efficient water drainage, making them adaptable to different rainfall conditions. Overall, this technology provides a fundamental foundation for successful sweet potato cultivation.