Patented technology using the patented ward effect which provide multiple measurement resolution to micro or nano scale. This is now adapted supported by new patent now adapted to use controlled cavitation and parasitic oscillation feedback for chemical-free solutions to global challenges. Open source for humanitarian water applications.
Everyone Needs Clean Water
All applications directly related to drinking water access, safety, and critical public health are freely available as open source. No licenses. No fees. No royalties. Ever.
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Non-essential commercial applications operate under standard, non-exclusive licensing. Revenue funds continued R&D for open source water technology.
A paradigm shift in acoustic resonance technology that cultivates parasitic oscillation as a feature, not a bug, to achieve ultra-narrow spectral resolution and controlled cavitation.
Achieves spectral resolution 1000× better than conventional ultrasonic systems through resonance-locked operation. Functions as an "acoustic laser" vs traditional "searchlight" methods.
Operates in infrasound (<20 Hz) and audio (20-100 Hz) ranges for deep penetration through composite materials. Transmits through fiberglass/carbon fiber with <1 dB/m attenuation vs >10 dB/cm at high frequencies.
Precisely modulates bubble formation and collapse for pathogen destruction without chemical additives. Secondary Bjerknes forces attract targets to cavitation sites for maximum efficiency.
Single hardware configuration performs both detection (nano-scale sensitivity to 50 nm biofilms) and active treatment (controlled cavitation) by modulating gain dynamically.
Real-time monitoring of erosive cavitation signatures with automated countermeasures (phase modulation, gain reduction) prevents material damage while maintaining efficacy.
Core intellectual property spanning volume measurement, resonance detection, and active control applications.
Foundation patent establishing parasitic oscillation feedback for non-intrusive volume measurement. The core "Ward Effect" principle where structures control circuit frequency.
Analog circuit enhancements for detecting subtle resonance changes from biofilm formation and algal growth on surfaces.
Additional refinements achieving nano-scale detection sensitivity for early-stage contamination identification.
Digital signal processing integration via ESP32 microcontroller with FFT analysis and acoustic signature libraries across infrasound, audio, and ultrasonic ranges.
Extension into active control applications: chemical-free water sanitization and marine anti-fouling through resonance-locked cavitation modulation with structural damage mitigation.