
A biotechnology company specializing in cell-free RNA production, specifically developing dsRNA products for crop protection (e.g., against Colorado Potato Beetle).
Develops yeast-based RNAi delivery technologies where yeast cells are engineered to produce and protect dsRNA molecules for pest control.

United States · Startup
Develops a bioparticle delivery platform that encapsulates RNAi molecules to protect them from degradation and improve uptake by pests.
The Centre for Microsystems Technology (CMST) at Ghent is a pioneer in flexible electronics and smart contact lens displays.
Developed SmartStax PRO, the first corn product with RNAi-based rootworm control.
Focuses on 'Directed Biotics' technology, using symbiotic bacteria to deliver RNAi to pests and pathogens in aquaculture and agriculture.
A global agrochemical giant heavily investing in biocontrols, including RNA-based solutions for pest management.
Develops peptide and enzyme solutions, including stabilization technologies that can be applied to biologicals like RNAi.
Uses gene editing and advanced breeding tools to improve tropical crops like banana and coffee.
RNA interference (RNAi) pesticides use double-stranded RNA (dsRNA) molecules to silence essential genes in target pests, creating a control method that is highly specific compared with broad-spectrum chemical insecticides. In practice, formulations are designed around short genetic sequences unique to a target species, such as beetles or sap-feeding insects, and delivered through foliar sprays, seed treatments, or protected encapsulation systems that improve stability under UV exposure and field conditions.
The core strategic advantage is selectivity: well-designed RNAi products can reduce off-target impacts on pollinators, beneficial predators, and soil microbiomes while maintaining effective suppression of economically damaging pests. This makes RNAi particularly relevant for integrated pest management programs in high-value crops, where resistance management, residue profiles, and biodiversity protection are increasingly tied to market access and regulatory approvals. RNAi tools are also being combined with digital scouting and precision application platforms so growers can time interventions to pest pressure windows and reduce total input volume.
Commercial and pilot deployments are expanding, but performance still depends on formulation quality, delivery pathway, local climate, and species biology. Key implementation considerations include degradation rates in sunlight, uptake efficiency in different insect orders, cost per hectare versus incumbent chemistries, and stewardship protocols that delay resistance evolution. Regulatory pathways in major agricultural markets generally treat RNAi products as biopesticides or novel crop-protection classes, requiring evidence on environmental fate, non-target safety, and food-chain exposure.
Over the next cycle, RNAi pesticides are likely to become a foundational layer in regenerative and precision agriculture stacks: not a full replacement for all crop-protection tools, but a critical option for targeted control where ecological compatibility, export compliance, and resistance-resilient outcomes are priorities.