Ion-Flux is a high-voltage, low-current platform for experimental exploration of electric fields, ionized environments, and discharge modes. Ion-Flux does not require visible plasma for operation, and visible plasma is an experimental mode rather than a required indicator of plasma-effect generation.
Visible emission depends on gas mix, geometry, and coupling. It is a secondary effect of ion recombination and is not a direct measure of ion density or field strength.
Controlled exploration of ionized environments, electric fields, and discharge modes around materials and biological-adjacent systems. Focused on measurable inputs—no predefined outcomes.
Investigate surface interaction, reactive species formation, and contamination reduction on tools, fixtures, and materials under controlled discharge conditions.
Material surface activation, coating prep, contamination removal, and process development for electronics, composites, and precision fabrication.
Explore ion-field and discharge interactions for air treatment experiments, VOC decomposition research, and ionized-flow studies.
Surface energy modification, adhesion studies, plasma-assisted deposition research, and characterization of field/material coupling.
Protocol development, repeatability studies, diagnostics integration, and exploration of ion/discharge parameter space.
Open experimentation with logged parameters and repeatable sessions. Explore coupling, drive envelopes, geometry effects, and discharge modes—without relying on glow as validation.
Ion-Flux v12.2 is a modular ion-field and discharge platform with precision control, real-time telemetry, and layered safety monitoring.
| Component | Specification | Capability |
|---|---|---|
| Output Voltage | 0-35 kV | Variable, software-controlled |
| Frequency Range | 100-300 kHz | PWM modulation with precision control |
| Output Current | 0-10 mA | Real-time monitoring and limits |
| Isolation | 600V galvanic isolation | TI ISO7421D dual-channel isolator |
| Temperature Monitoring | -10°C to +85°C | Dual sensor with thermal de-rating |
| Touchscreen UI | 5" DSI 1920x1200 | PyQt5 backend with real-time telemetry |
| Safety Rating | Multi-layer interlocks | Emergency shutdown, arc detection, watchdog |
Our system integrates cutting-edge hardware and software components:
Ion-Flux supports programmable drive modulation (frequency, duty cycle, burst patterns, and envelopes) to explore how excitation parameters influence coupling, current-based ion/discharge proxies, onset behavior, and stability. Modulation presets may reference frequency values commonly discussed in experimental and bio-hacking communities; these values define envelopes applied to the high-frequency ion field and do not imply biological outcomes. Visible plasma is an experimental mode and not a required indicator of plasma-effect generation.
Ion Mode: ion-field activity without sustained visible discharge
Field Mode: geometry/gradient-dominant field shaping
Discharge Mode: recombination onset and localized emission
Plasma Mode (Experimental): sustained visible plasma state
Mode indicators are derived from measured electrical state (drive, current, stability, faults), not glow.
Real-time monitoring of output current, drive parameters, coupling state (OPEN/COUPLED), arc events, and thermal headroom. Session logging enables repeatable protocols and side-by-side comparisons across geometry and environment.
Define envelopes and sequences: ramps, holds, bursts, and duty sweeps. Use APIs (REST/MQTT/WebSocket) for automation, data capture, and integration with external instrumentation.
Select low-frequency envelope rates applied to the high-frequency ion field (carrier)—for example 7.83 Hz, 10 Hz, 40 Hz, 432 Hz, or 528 Hz—or define a custom pattern.
Preset names reference community-discussed values as envelopes only and do not imply medical or therapeutic outcomes. Log coupling/current/stability for repeatable comparisons.
This is a representative touchscreen layout showing how envelope presets are presented as modulation on a high-frequency carrier. Note the always-visible Coupling indicator: no glow does not mean no activity.
OUTPUT STATE shows OPEN, the electrode is effectively isolated (no load/coupling).
Attach a CFL accessory for visual discharge, or use a grounded plate/fixture for repeatable coupling.
Explore parameter space responsibly: coupling, stability, geometry effects, and discharge thresholds. Share logs, replicate sessions, and compare results across setups.
Want the deeper engineering view? See the Frequency & Modulation Explainer.
CSV session logs of drive, current, coupling, faults, and temperature for repeatable experimentation.
Compare OPEN/COUPLED behavior across distances, fixtures, and grounded references.
Explore electrode profiles and field gradients using consistent telemetry and repeatable presets.
Characterize onset of discharge and stability limits under thermal and arc monitoring.
Automate runs via APIs, sync to external sensors, and build repeatable experiment pipelines.
Share presets, logs, and setup notes—focus on measurable state rather than appearance.
Voltage, frequency, and PWM duty cycle software control with microsecond-level accuracy
Continuous monitoring with live sensor feedback, data logging, and comprehensive diagnostics
Multi-layer interlocks, thermal de-rating, emergency shutdown, and 200ms watchdog timeout
Four-board architecture with standardized connectors for custom configurations and integration
5" touchscreen with PyQt5 UI, real-time visualization, and comprehensive status monitoring
REST, MQTT, and WebSocket interfaces for remote monitoring and industrial system integration
Ion-Flux is a modular ion-field and discharge platform built by engineers focused on measurable control, repeatability, and safe exploration of high ion & energy field modes. Visible plasma is an experimental mode and not a required indicator of plasma-effect generation.
Ion-Flux is designed to support experimentation across multiple domains:
For developers and researchers with approved access: technical specifications, firmware packages, API documentation, and integration guides are available through the secure developer portal.
High Voltage • Experimental Use Only • Not a Medical Device
Fast answers to the most common questions—especially when running without a CFL accessory.
ENV-528Hz to make the distinction explicit.
OUTPUT STATE and COUPLING.
If you see COUPLED with measurable current, the system is active even if nothing glows.
OPEN (no coupling detected) or COUPLED (measurable coupling), with a level (LOW/MED/HIGH) based on current.
This is why Ion-Flux works consistently with or without a CFL accessory.
drive, current, coupling, and temperature so sessions can be compared objectively.
Join our community of researchers, engineers, and bio-hackers exploring measurable ion-field and discharge behavior. Access full technical documentation, source code, and integration guides with approved account status.