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Ionic Wind Generator + Testing Base Structure

Print Profile(6)

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P1S
H2C
P2S
H2D Pro
A1
X1 Carbon
X1
H2D
X1E
P1P
H2S
X2D
A2L
A1 mini

ALL Parts
ALL Parts
Designer
7.9 h
2 plates

Electrodes: Needles & Ring (Best) + Baseplate/Gantry
Electrodes: Needles & Ring (Best) + Baseplate/Gantry
Designer
3 h
1 plate

All 1. Electrodes
All 1. Electrodes
Designer
4 h
1 plate

All 2. Electrodes
All 2. Electrodes
Designer
2.7 h
1 plate
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Bill of Materials

Bambu Filaments
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Black (10101) / Filament with spool / 1kg
List other parts
  • Stun Gun Module x 1: https://de.aliexpress.com/item/32737738904.html

Description

Ionic Wind Generator

This project demonstrates how to generate ionic wind using only a high voltage of 10–20kV!

To achieve this, I used a stun gun module (≈20kV), which can be sourced cheaply on AliExpress (see parts). I designed 10 different electrode geometries and tested various combinations to determine the most efficient setup. Based on my experiments:

  • The best performance came from using needles as the first electrode and a ring as the second electrode.
  • For maximum airflow, the first electrode (i.e. needles) should be positively charged and the second electrode (i.e. ring) negatively charged.
  • If you invert the polarity, you can enjoy a beautiful blue corona discharge (best viewed in the dark).

 

Electrode Mounting System

I designed a modular baseplate with:

  • A fixed mounting point for electrodes.
  • A rail system for adjusting electrode distance.

Two gantry versions are included:

  1. Toothed gantry → allows distance adjustments in 5mm steps.
  2. Smooth gantry → allows fine adjustments using a ruler.

From my tests, the optimal electrode gap corresponds to the spark length the used voltage can achieve (approx. 1mm per kV). For example, at 20kV, the ideal distance is about 20mm.

Voltage Measurement Setup

I also designed a holder for two nails that can act as spark gap probes to estimate the transformer’s output voltage:

  • Mount the nails on the gantry and baseplate.
  • Connect them to the transformer with crocodile clips.
  • Slowly increase the input voltage until a spark jumps the gap.
  • The arc length corresponds to the output voltage (≈1000V per mm).

Safety Notice ⚠️

This project involves high voltage, which can be extremely dangerous. Sparks can jump further than expected, so always exercise caution. Additionally, running the device can produce ozone, so make sure your workspace is well-ventilated.

To enhance safety, I designed mounting feet for a plexiglass shield, which I strongly recommend printing and using. Any 3D printing filament will work for the parts, and PLA is perfectly sufficient.

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