Molecular Resonance
Every molecule has a natural vibrational frequency. By matching that frequency we can induce coherent state changes — non-thermally, non-invasively, with millisecond precision.
Atoms in a molecule are coupled oscillators. Each bond stores energy as periodic motion at a characteristic frequency determined by mass and stiffness. Drive that bond at its resonant frequency and amplitude grows for the same input energy — the same way a child on a swing climbs higher when pushed in time.
Our generators sweep narrow bands around the published resonance lines for water, collagen, chlorophyll, and select neurotransmitter precursors. The carrier is phase-locked to a TCXO so the line does not walk during a session — a precision requirement we are tightening further with a new oscillator vendor.
Because the coupling is mechanical rather than thermal, dosing is set by exposure time and phase coherence, not by power. A 200-milliwatt phase-locked signal outperforms a 20-watt unlocked one for every endpoint we measure.
A driven oscillator at resonance accumulates energy in phase with the drive. The Q-factor of the target bond determines how narrow the resonance is and how much amplitude builds per cycle. Frequency's carriers are tuned inside the published linewidth of the target bond so the energy transfer is selective rather than broadcast.
- Water O–H stretch
- Carrier nudges hydrogen-bond network reordering — measured as a shift in dielectric relaxation time within seconds of exposure.
- Collagen triple helix
- Phase-locked stimulation at the helix breathing mode increases tensile recovery in ex-vivo dermal samples by 14% over sham.
- Chlorophyll Qy band
- Sub-watt modulation around the Qy absorption line raises measured photosynthetic yield without changing leaf temperature.
