The Pioneer is a next-generation cold-plasma platform engineered for serious biohackers and research-grade experimentation. Built on a six-band Class E SiC resonant output, it delivers a carrier anywhere from 125 kHz up to 600 kHz — six resonant bands, one energized at a time — maintaining your chosen bulb voltage with always-on closed-loop feedback across the entire range. Voltage, frequency, and burst are each independently adjustable, and three named modes act as curated presets that drop you straight into proven operating points for repeatable sessions and protocol development.
Most devices people rely on today were designed before the transistor; they work, but they work the way they did a hundred years ago—open-loop, uninstrumented, and nearly impossible to repeat from one session to the next.
The Pioneer Series keeps the same core operating principle the community has trusted for a century and rebuilds it as a driven, instrumented machine: a carrier under direct numeric control, a bulb voltage that is measured and held by closed-loop feedback, live readouts, and hardware safety logic behind every interaction.
The practice is more than a hundred years old, and the classic spark-gap machines that built it still work. The Pioneer keeps what the practice depends on — the bulb contact, the floating topology — and puts everything the old machines left to chance under direct, repeatable control.
| Feature | The Pioneer | Classic Spark Gap · 100+ yr technology |
|---|---|---|
| Drive element | Solid-state six-band Class E SiC resonant stage | Mechanical spark gap / interrupter |
| Carrier generation | Firmware-driven, continuously variable | Self-resonant damped-wave ring-down from each spark |
| Frequency | 125–600 kHz across six resonant bands, under direct control | Fixed by tank resonance; uncontrolled, drifts with load and temperature |
| Frequency adjustment | Dedicated control across the range | None — whatever the coil rings at |
| Voltage control | Always-on closed-loop; held across the range | Open-loop; set by mains + coil ratio, varies with load |
| Output / burst | Independently settable rate, duration, and duty | Damped wave trains at the interrupter rate — not independently adjustable |
| Operator interface | Numeric voltage / frequency / burst + three named presets | Single intensity knob (gap spacing), no numeric setpoints |
| Instrumentation | Live telemetry; displays the voltage actually being held | None — no readout, no feedback |
| Upkeep | No tuning; presets recalled in software | Gaps need periodic cleaning, re-gapping, and electrode replacement as they erode |
| Repeatability | Presets map to exact numeric settings, session to session | Drifts with gap condition, mains voltage, and ambient |
| Safety systems | Hardware-latched over-current / over-voltage / watchdog; fully floating output; no continuous-on | Minimal — relies on inherently low average power and operator skill |
| What carries forward | Same floating two-bulb contact the practice already uses | The original screw-in bulb contact and floating topology |
The classic spark-gap approach has lasted a century for good reasons — it's simple, familiar, and does one thing. But that simplicity comes with standing upkeep: the gaps have to be cleaned and re-tuned as the electrodes pit and erode, the working point drifts with mains voltage and ambient conditions, and there's no way to write down a setting and get it back exactly. The Pioneer keeps the same screw-in bulb contact and floating topology the practice already relies on, and replaces the tuning ritual with numeric presets you recall in software, a bulb voltage that holds steady across the range, live readouts, and layered hardware safety — so a repeatable session is a saved setting, not a re-tuned gap.
Each mode is a preset that snaps the voltage and frequency sliders to a known operating point, with a firmware-enforced ceiling. From there you can take the sliders yourself — the closed-loop feedback holds whatever bulb voltage you command.
The Pioneer's output is fully floating — no earth tie. The two bulbs sit anti-phase and the operator is a floating capacitive bridge between them. Both connect through field-replaceable cable assemblies with a standard screw-in contact.
An HV-rated silicone-jacketed lead, an overmolded screw-in socket, and a ring-terminal connection back to the instrument. Built to be used, dropped, coiled, uncoiled, and used again.
Two cable assemblies and two bulbs ship in every case. Bulbs swap in seconds; the screw-in contact pattern is the one the practice already uses.
A 7-inch capacitive touchscreen is the operator's primary surface. Mode selection, live readouts, session start and stop, and fault display — all in one place, in plain language.
The front panel is permanently marked “Pioneer Series” across the top and “Plasma Generator” across the bottom, so you know exactly what you’re reaching for — even when the touch screen is dark.
A simulation of the GUI that runs on the unit's 7-inch touchscreen. Switch modes, move the frequency and voltage sliders, tap to start, and watch the telemetry respond. On the actual unit the screen only ever requests a setting — a separate real-time controller decides whether to act on it, holds the bulb voltage, and enforces every safety limit in hardware, independent of the screen.
Banded resonant carrier · 125 – 600 kHz across six bands. Above 500 kHz is Advanced only.
Firmware holds this bulb voltage by closed-loop feedback. Off-preset values enter CUSTOM.
Tap-toggle: tap to start a session, tap again to stop. STOP cuts output immediately. 30-minute auto-timeout protects against forgotten sessions.
Open the case and you are ready to operate within minutes. Nothing missing, nothing to source separately.
The unit itself. 7-inch capacitive touchscreen with on-screen STOP, mode buttons, and the "Pioneer Series / Plasma Generator" labeled front panel.
×1Standard 1/4-inch foot pedal. Plugs into the front-panel jack next to the touchscreen. Tap once to start a session, tap again to stop — no need to hold the pedal down.
×1Universal external power supply. Region-correct mains lead. Connects to the unit with a single locking Molex connector.
×1Two bulbs with standard screw-in bases for the floating, anti-phase output. Field-replaceable from common stock.
×2Two field-replaceable cable assemblies — overmolded screw-in socket, HV-rated silicone lead, ring-terminal connection.
×2Printed manual covering setup, safety walk-through, mode-by-mode operation, fault codes, and care instructions.
×1Everything an informed buyer needs to evaluate the unit against what they already own.
| Parameter | Specification | Notes |
|---|---|---|
| Bulb Voltage | 15 kV – 25 kV envelope | Commanded setpoint held by always-on closed-loop feedback; per-mode firmware ceilings |
| Carrier | 125 kHz – 600 kHz banded | Six resonant bands, one energized at a time; carrier DDS-driven, set by firmware every cycle |
| Operating Modes | Gentle / Therapeutic / Advanced | Presets: 15 / 18–22 / 23–25 kV, capped ≤450 / ≤500 / ≤600 kHz (default / enforced max) |
| Burst Modulation | 10 – 500 Hz · 0.05 – 10 ms | Firmware envelope, 0.01 ms resolution, 80% duty cap; continuous-carrier not permitted |
| Output Stage | Six-band Class E SiC | One soft-switched (ZVS) resonant stage per band, each with its own gate driver; one band active at a time |
| Feedback | Closed-loop bulb voltage | Holds the commanded bulb voltage across the whole range, every mode; always on |
| Frequency Synthesis | Direct digital synthesis | Programmed by the real-time controller across the full 125–600 kHz range |
| HV Transformer | Six purpose-built resonant step-ups | One bench-characterized resonant step-up per band, driven below resonance |
| Touchscreen UI | 7″ touchscreen | Fullscreen GUI on a Linux-class compute module |
| Real-Time MCU | Dual-core real-time MCU | Carrier and band control, feedback loop, burst, and all safety; secure signed boot |
| Application Processor | Linux-class compute module | GUI, audio, session logging — zero authority over the high voltage |
| Power Supply | External PSU brick | 100–240 V AC universal mains, 50/60 Hz |
| Session Control | Tap-toggle foot pedal · on-screen STOP | 30-minute firmware auto-timeout backstop |
| Safety | Hardware OCP · OVP · watchdog · fully floating | OCP latches in <1 µs; current-limit and fail-off act independent of firmware; no continuous-on |
| Build | Engineering / definition stage | Architecture committed; first-article bring-up and calibration on the bench |
Pioneer integrates a resonant RF power stage, closed-loop control, and dual-processor embedded software:
Six resonant silicon-carbide Class E stages — one per band, one energized at a time. Each stage runs soft-switched (ZVS) below its band’s resonance: the tank circulates the load current and the transistor switches at zero volts.
Direct digital synthesis generates the carrier anywhere in 125–600 kHz; firmware selects the matching band and drives that stage. The operating point is always known and commanded — never left to drift.
The instrument measures the actual bulb voltage and holds the value you set across every mode and every frequency — you see delivered voltage, not just a setpoint.
Six purpose-built resonant step-up transformers, one per band, each characterized on the bench before commit. Each band runs on its own tuned point instead of forcing one transformer to cover the whole range.
A dedicated real-time controller owns the carrier, feedback loop, burst, and all safety, with secure signed boot. A separate Linux-class application processor runs the GUI, audio, and logging — and has no authority over the high voltage.
Over-current latches in under a microsecond; over-voltage and watchdog latch in hardware too. Current-limit and fail-off act independent of firmware, and the output is fully floating with no earth tie — the machine is physically incapable of continuous-on.
A high-voltage cold-plasma research and educational instrument for biohackers, researchers, and protocol developers.
Not a medical device; no health-outcome claims.
The Pioneer is in engineering / definition stage and built to order. Submit your details and we will respond with availability and the next build window as first units come off the bench.
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