References / Published research

A dynamic field changed cells that a static field did not

Published research
The report measures the shape and timing of a pulse, not just its peak, because how the field changes over time is part of what the device does.
Where it appears in the report: Waveform Shape and Timing, Slew Rate, Peak dB/dt Analysis

The evidence

A 2003 NASA technical paper by Thomas J. Goodwin applied a pulsed square-wave field at about 10 Hz and 10 to 200 milliGauss, weaker than Earth's own field, to cultured human neuronal cells. Those cells changed in proliferation and gene expression compared with unexposed cells. Goodwin attributed the response to the low-amplitude, time-varying nature of the field, not its strength. This is in-vitro work on isolated cells, published as an internal NASA technical paper rather than a peer-reviewed clinical study, and it measures no wellness or health outcome. We cite it only as context for why the dynamics and shape of a pulsed field are worth measuring.
A changing magnetic field induces a circulating electric fieldA schematic of Faradays law: a magnetic field changing through a loop induces a circulating electric field in the tissue. The faster the field changes, the stronger the induced electric field.Induced electric field (E)Changing field(dB/dt)A fasterchange in the fieldinduces a strongerelectric field.© 2026 Gauss Labs
A magnetic field that changes in time induces an electric field in the tissue it passes through. This is Faraday's law, and it is why the speed of the field change (the slew rate) matters more than the field's peak strength: a faster change induces a stronger electric field, which is what stimulates the body.

Primary sources

  • Goodwin TJ. Physiological and Molecular Genetic Effects of Time-Varying Electromagnetic Fields on Human Neuronal Cells. NASA Technical Publication NASA/TP-2003-212054. NASA Johnson Space Center; 2003. view