At NetaGenomiX we connect disruptive gene-editing technology with regenerative agriculture, to develop climate-smart, non-GMO, sustainable and nutritious crops that are rewarding to both the farmer and the consumer.
NetaGenomiX aims to develop, grow and supply superior annual and perennial, high-yielding, sustainable crop varieties, better adapted to climate change, with improved nutritional and health properties.
In the realm of gene-editing of crop plants, a critical challenge lies in unveiling the multitude of agricultural traits concealed within gene families. These hidden characteristics hold the key to crop resilience and nutritional values, yet they remain elusive due to complex genetic shielding.
At NetaGenomiX, we are revolutionizing plant genetics and breeding by tapping into the uncharted 80% of the plant genome that is currently inaccessible and is far beyond the reach of both traditional plant breeding and current genome editing methods.
We employ precise, targeted genomic modifications, simultaneously accessing multiple gene families, and uncovering phenotypes hidden by genetic redundancy.
We are significantly more effective than any other current genome editing technology
Precise modifications to the genome
Tackle hundreds of genes simultaneously
Reveals previously hidden phenotypes

Our final products are not transgenic

CRISPR-Cas9 offers precise, site-specific gene editing, but its application in crop improvement has been limited by scalability challenges

A Tel Aviv University team has developed a breakthrough method for editing large gene families in crop plants; first tested on tomatoes, the tech could transform plant breeding and help develop tastier, climate-resilient, non-GMO varieties

Multi-Knock—a multi-targeted genome-scale CRISPR toolbox to overcome functional redundancy in plants

In a groundbreaking achievement, Tel Aviv University researchers have harnessed the power of CRISPR technology to develop an innovative genetic modification method.

A new, large-scale genetic modification method developed in Tel Aviv makes it possible to reveal the role and properties of duplicated genes in plants

Researchers from Tel Aviv University have said that the development is expected to revolutionize the enhancement processes of agricultural crops