In 2024, we designed a bioreactor to produce biological consumables for the NASA Artemis Program and deep-space missions. To do this, we needed to understand how electromagnetic fields, microgravity, and quantum-scale forces influence protein folding.
Those insights became the foundation of our proprietary computational framework.
We are using this framework to model biological systems as dynamic, coherent, hydrated, charged, time-evolving fields of energy and matter.
Starting with proteins - the most elegant and complex nanomachines humanity has ever seen.
Our mission is to build the world’s first holographic twin of the human body to make medicine preventative, predictive, and precise.
Our vision is deterministic drug development at scale, eliminating late-stage failures and accelerating breakthrough therapeutics.
We value diversity as a catalyst for original scientific thinking, bold exploration, and rigorous execution.
By understanding fields and geometry, we can anticipate how a protein will fold, signal, and interact.
Cells, proteins, and tissues exist inside continuous electromagnetic, electrostatic, and hydrodynamic fields.
These fields determine everything from how proteins fold to how diseases propagate.
Geometry defines the physical shapes and pathways that life uses. It is causal. It dictates what binds, what activates, what fails, and what becomes disease.
We are using our computational model to develop the world’s first holographic twin of the human body. This will reshape how we understand disease, predict therapeutic outcomes, and design the next generation of medicine.

OmnigeniQ recognises First Nations peoples as the world’s oldest continuous scientists, engineers, and knowledge holders. Their understanding of land, water, biology, and interconnected systems informs modern science and reminds us that discovery begins with careful observation of the natural world.