Seven publications across Nature Scientific Reports and Universe establish the theoretical and observational case for Magnetized Quark Nuggets as a dark matter candidate — and the foundation for our fusion design.
Each paper below represents a step in the chain from hypothesis to observable prediction. Together they establish MQN formation, magnetic properties, expected signatures, and detection strategies.
The hypothesis is validated by detection campaigns, MQNs are collected, and they prove to be the engineerable material our models predict — unlocking new regimes of plasma confinement and propulsion physics.
More sensitive experiments rule out MQNs as dark matter at the predicted flux levels. This is a valid and valuable scientific outcome — we design our detection campaigns specifically to be capable of this result.
Twenty-three years of work by the virtual team, documented in the peer-reviewed publications above, supports outcome A so far. The next phase is detection campaigns designed to push toward a definitive answer.
Much like GPS guides one along a pathway to a destination, these six topics guide readers through the MQN concept — from cosmology and particle physics to detection and capture.