Unlocking Outback Genomics
We are mapping the 20-million-year evolutionary survival mechanisms of the Australian Outback
Global industrial agriculture has hit a rigid biological ceiling. As climate volatility inflicts sudden, episodic thermal shocks on food corridors, traditional linear crop breeding simply cannot adapt fast enough to preserve yield stability. While AI-driven genetic engineering represents a potential avenue, computational prediction alone remains an unproven framework for introducing stable, novel stress-tolerant genes into elite crops.
Nature has already field-tested the solution. The Australian Outback has spent 20 million years evolving plant life in one of the most volatile, hyper-arid, and thermally hostile environments on Earth. This landscape represents an unmapped, living genetic archive of extreme climate adaptation.
Banksia Bio bridges evolutionary deep time and deep-tech synthetic biology. We are not engineering a single, isolated crop trait; we are building a proprietary discovery engine that decodes outback extremophiles to extract complex, proven environmental resilience toolkits for global staple crops.
Dr. Andrei Herdean | Co-Founder & Lead Plant Biophysicist
Andrei specializes in crop engineering and the precision biophysical tracking of plant stress. He brings extensive global expertise in advanced plant phenotyping across diverse and hostile agricultural corridors in Europe, Africa, and the Australian Outback. Since 2009, he has led cutting-edge phenomics pipelines in Australia, pioneering the systems that capture survival strategies.
The Team
Dr. Agota Tuzesi | Co-Founder & Lead Molecular Geneticist
Agota is a trained ecologist and molecular geneticist specializing in high-throughput genomics, next-generation sequencing, and complex bioinformatics frameworks. After pioneering large-scale human genetic research architectures, at Banksia Bio she directs the molecular and computational pipeline required to deconstruct outback plant genomes and precisely isolate the novel genetic switches that govern adaptation.