Imagine a smart security system for plants that identifies a specific intruder and uses a targeted 'off-switch' to stop it without harming the rest of the garden. Instead of spraying heavy chemicals everywhere, this tech uses genetic instructions and natural boosters to stop the toughest pests. It's like moving from a sledgehammer to a precision scalpel for farming.
Farmers are losing crops to resistant pests while facing strict EU laws that ban the chemical pesticides they rely on. This creates a productivity gap that threatens food security and farm profitability.
A toolkit containing RNA-based pesticides, molecular diagnostics, biological control agents, and plant resistance inducers. These are integrated into predictive models for field use.
If you are a biopesticide manufacturer dealing with the rapid evolution of pest resistance—this project developed RNA-based pesticides and plant resistance inducers that provide a targeted alternative to synthetic chemicals.
If you are a diagnostic provider dealing with slow or inaccurate pest identification—this project developed molecular diagnostics for pest and pathogen incrimination to enable faster, precise treatment.
If you are a producer dealing with regulatory constraints on chemical use—this project developed a toolkit of biological control agents and ecological practices to maintain yields while reducing pesticide reliance.
Based on available project data, specific pricing or cost-per-unit information is not provided; however, the project includes socio-economic assessments to evaluate market potential.
Yes, the project aims to validate these tools in large field studies and demonstrate them across diverse European agro-ecosystems to ensure they work at scale.
The project explicitly mentions that data protection and commercialization strategies will be used to ensure the exploitation of the generated tools.
The project includes regulatory alignment and socio-economic analysis to ensure the tools meet European Green Deal and Farm to Fork Strategy targets.
The project period runs from 2024-03-01 to 2028-02-29, suggesting that full validation and demonstration will occur by early 2028.
The consortium is well-balanced for commercialization, featuring 24 partners with a 29% industry ratio (7 industrial partners, including 3 SMEs). The heavy presence of 10 universities and 5 research centers ensures deep scientific backing, while the inclusion of partners from 10 different countries provides a broad market testing ground across various European climates.
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