Plastomics utilizes chloroplast engineering to deliver beneficial traits directly into the chloroplasts of plant cells, enhancing crop resilience and yield potential. This technology simplifies product development and reduces regulatory concerns associated with trait outcrossing, enabling faster market entry for higher-yielding biotech crops.
Funding
$8.8M raised to dateRaised to date based on public sources. This may differ from the amount the company actually raised and is based only on what is publicly available on the internet.
LCFounders
Product
Problem
Traditional methods of genetically modifying crops involve inserting traits into the plant's nucleus, which can lead to inefficiencies, trait instability, and environmental concerns related to gene flow. This can result in longer product development cycles, reduced trait effectiveness, and limitations in the types of crops that can be improved through biotechnology.
Solution
Plastomics is developing a novel trait delivery technology that places beneficial traits directly into the chloroplasts of plant cells, rather than the nucleus. By leveraging the natural efficiency of the chloroplast, which derives energy from the sun during photosynthesis, Plastomics achieves higher trait expression and enhances crop resilience against insects, diseases, and weeds, ultimately leading to higher yields. This approach simplifies product development through precise trait insertion and easy trait stacking, while also mitigating regulatory concerns associated with trait outcrossing, as chloroplast traits are maternally inherited through the seed, not the pollen. The technology also eliminates yield drag during trait integration, resulting in varieties with higher yield potential.
Target Audience
Plastomics' primary customers are seed companies seeking to develop higher-yielding and more resilient crops with simplified product development and reduced regulatory hurdles.
Features
- Precise trait insertion into a predefined location within the chloroplast genome
- Efficient DNA uptake via a naturally occurring process
- Simplified trait stacking, enabling the combination of multiple beneficial traits
- Maternal inheritance of chloroplast traits, preventing gene flow through pollen
- Higher trait expression levels due to the abundance of chloroplasts within plant cells
- Elimination of gene silencing, ensuring stable trait expression throughout the plant's life cycle
- Reduced breeding cycle time compared to traditional nuclear transformation methods
- Potential for modifying photosynthetic pathways and metabolic engineering for enhanced nutrition