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Crop4Clima

Crop4Clima: Transforming the future of agriculture from the legacy of FutureAgriculture

In 2016, a group of visionary scientists embarked on an innovative journey to revolutionise agriculture, seeking to engineer plants that could not only overcome the inefficiencies of natural photorespiration but also increase photosynthesis rates and crop yields. Today, the Crop4Clima project bears witness to their enduring legacy, translating the innovative technology pioneered in FutureAgriculture into resilient rapeseed crops to meet the growing demand for sustainable, low-impact food chains.

The ambitious vision of these forward-thinking scientists, led by the late Dr Arren Bar-Even, sparked the search for crops capable of producing enough food to feed an ever-expanding world population while adapting to the challenges of climate change.

With a growing population, ensuring food security has never been more challenging. As expanding arable land becomes unsustainable, the focus has instead shifted to improving the efficiency and productivity of existing agricultural practices.

To bridge the current efficiency gap, the FutureAgriculture project initiated a pan-European effort to boost agricultural yields by reengineering natural photosynthesis. Utilizing synthetic biology to enhance photosynthetic efficiency, the project aimed to increase a plant’s ability to capture CO2 effectively, thereby improving biomass formation.

The project’s approach was multifaceted. It began with an in-depth analysis of the limitations of natural photosynthesis, followed by a computationally guided search for innovative biological solutions to enhance CO2 capture during photosynthesis.

Within the laboratory, researchers developed new-to-nature enzymes combined with existing enzymes to create novel metabolic pathways that enhanced carbon conversion. This approach led to the creation of solutions that nature itself had yet to discover.

In just five years, the project made significant strides by demonstrating the functionality of these pathways in living plants, showcasing their potential to improve photosynthetic activity under specific conditions.

One of the project’s breakthroughs was developing and validating the TaCo pathway, which reimagines the role of photorespiration. Crop4Clima has harnessed this groundbreaking pathway, which recaptures CO2 released during photorespiration and reintegrates it into the carbon-fixing biosystem. This innovation has shown remarkable potential in enhancing carbon uptake, improving drought tolerance, and reducing water usage and fertilization in model plants.

Crop4Clima is poised to bring these advancements one step closer to market, ushering in a new era of climate-resilient agriculture. With its roots in the pioneering work of FutureAgriculture, the project inspires hope for a more sustainable and efficient agricultural future, addressing the ever-pressing challenges of feeding a growing global population while mitigating the impacts of climate change.