Power board for tattoo removal devicesND-YAG / Q-SWITCH POWER

The power board of Q-switched ND-YAG tattoo removal and carbon peeling devices. It builds up the high-voltage energy the lamp needs, manages the trigger timing and safely discharges that energy when the device is switched off.

ND-YAG / Q-SWITCH POWER — Power board for tattoo removal devices
220 V ACInput
100 µF / 1400 VPulse capacitor
Charge · simmer · triggerFunction
Open frame, OEMForm

Product capability

Power electronics engineered for system integration.

Charging, triggering and safe discharge on one board.

ND-YAG and Q-Switch are not separate products; they are two parts of the same device. This board covers both the energy and the lamp-trigger side of a tattoo removal device.

The open-frame board seen from above. Charging stage, trigger circuit and the contactor that manages the energy path share one chassis.

ND-YAG / Q-SWITCH POWER — The open-frame board seen from above. Charging stage, trigger circuit and the contactor that manages the energy path share one chassis.
High-voltage chargingBuilds the lamp-drive energy up in the capacitor, with charging managed by the device controller.
Stable triggeringRuns the lamp trigger sequence with the same timing on every pulse.
Safe dischargeStored energy is removed under control once the device is switched off or taken into service.

Inside the unit

What is inside the enclosure?

Photographs show an actual unit from the production line.

ND-YAG / Q-SWITCH POWER — Charging and trigger stage
Charging and trigger stageThe high-voltage charging circuit and the lamp trigger circuit sit on the same board.
ND-YAG / Q-SWITCH POWER — Contactor and switching
Contactor and switchingThe energy path is managed through a contactor, with the control circuit kept in a separate zone.
ND-YAG / Q-SWITCH POWER — Heatsink block
Heatsink blockPower devices are mounted on a fan-cooled heatsink.

Connections and terminals

How does it connect to the system?

The board ships open-frame; the connection layout is planned together, around the internal design of your device. The numbers mark the connection zones on the board and match the numbers in the connection diagram below.

ND-YAG / Q-SWITCH POWER connection panel and terminals1234
  1. Mains input (line / neutral)220 V AC supply. Line (brown) goes to the L terminal and neutral (blue) to the N terminal; the two must not be swapped. As the board is open-frame, protective earthing runs through the device chassis.
  2. Control interfaceLink to the device controller. Charge command, pulse energy reference, simmer, lamp triggering and Q-switch timing all run over this line; charge and ready states are read back through the same interface.
  3. Capacitor connection (CAP+ / CAP−)The capacitor supplied with the board is charged to high voltage through these terminals. It is a high-voltage component: complete discharge must be verified at device level before service.
  4. Applicator outputThe switched output feeding the handpiece. On each pulse the capacitor discharges into the flash lamp through this terminal and the shared negative terminal.

Connection diagram

How do energy and triggering flow?

Follow, step by step, where ND-YAG / Q-SWITCH POWER sits inside your device. The numbers mark the connection areas on the board.

+Handpieceflash lamp and ND-YAG rod+MainsLine (L) · brownNeutral (N) · blueDevice controllerdevice manufacturer sideCapacitorsupplied with the board · 1 pieceL · lineN · neutral1 · Mains input (line / neutral)12 · Control interface23 · Capacitor connection34 · Handpiece output4Line (L)Neutral (N)Control interfaceCAP+ / CAP−Handpiece outputSTANDBYSystem state

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Functions carried on the control interface

  • Chargehigh-voltage charge command
  • Energy referencepulse energy level
  • Simmerlamp kept conductive
  • Lamp triggerpulse trigger
  • Q-switchpulse timing
  • Feedbackcharge and ready status

The diagram is simplified to explain system integration; it does not show the internal circuitry of the board. Interface signals, cable cross-sections, protective devices and the final operating point are defined per project once the lamp, capacitor and device architecture are verified.

Technical architecture

ND-YAG / Q-SWITCH POWER technical specifications

Electrical values

Input voltage
220 V AC · line + neutral
Input frequency
50-60 Hz
Pulse capacitor
100 µF ±5% / 1400 V DC · film · 1 piece
Pulse energy
≤98 J at 1400 V (theoretical maximum)
Charge voltage
Below the capacitor rating, set per project
Auxiliary supply
Isolated module · +12 V DC control rail

Pulse and trigger chain

Trigger architecture
Simmer and lamp trigger on one board
Simmer
Lamp held conductive at low current
Energy control
Set by charge voltage; energy scales with its square
Energy path
Contactor · AC-3 12 A / 3 kW · IEC/EN 60947-4-1
Control interface
Charge, energy reference, simmer, trigger, Q-switch
Repetition rate (device)
Typically 1-10 Hz in the application

Safety, cooling and OEM

Controlled discharge
Energy removed at shutdown and for service
Cooling
Fan-cooled heatsink block
Earthing
Through the device chassis, verified at device level
Q-switch driver
Separate unit; timing synchronised from this board
Delivery form
Open-frame board with capacitor
Document scope
CE · EMC · LVD (TS EN 60335-1)

The values in this table come from three sources. First, the ratings of the components actually used in the product: the pulse capacitor, the contactor that switches the energy path and the input class. Second, quantities calculated directly from those ratings, such as the energy a 100 µF capacitor holds at 1400 V. The capacitor is a film type rather than an electrolytic precisely so that it withstands repeated high-current lamp discharges. Third, the rows marked "device", which give the typical operating range of the Q-switched ND-YAG devices this board feeds. A model-specific user manual and test report for ND-YAG / Q-SWITCH POWER have not been published yet; the guaranteed operating point is defined per project once the lamp, capacitor and device architecture are verified.

Integration

Planned around your device architecture.

01

Lamp and energy matching

Lamp type, operating voltage, pulse energy and capacitor are evaluated together.

02

Timing chain

Charge, simmer, lamp trigger and Q-switch timing are aligned with the device controller.

03

Safety

Interlock, controlled discharge, service delay, grounding and high-voltage insulation are verified at device level.

Model family

ND-YAG / Q-SWITCH POWER product family

This product is offered as a single configuration; output values are engineered around your device architecture.

ND-YAG / Q-SWITCH POWER
One power board for Q-switched ND-YAG tattoo removal devices
OEM configuration
Engineered around the lamp, capacitor and device architecture

What ships with it

One capacitor is supplied with the board.

The energy needed for the lamp pulse is collected in this capacitor. The board charges it under control and manages the discharge at the trigger moment.

ND-YAG / Q-SWITCH POWER — pulse capacitor supplied with the unit
Type
Film, pulse discharge type (CBBJ)
Capacitance
100 µF ±5%
Voltage
1400 V DC
Stored energy
98 J at 1400 V
Quantity
1 piece

This component carries high voltage; inside the device it must sit apart from the control section and remain accessible so that it can be discharged safely during service.

Quality and documents

Verified product documentation.

Document scope is checked against the model and configuration. Current copies are shared on request.

ND-YAG / Q-SWITCH POWER CE certificate of conformity
Verified

CE certificate of conformity

CE 2604010 · issued 08.04.2026 · valid to 07.04.2027 · scope: EMT SLIM · SOHO, OMEGA, KARMINAX, KARMINAX-S1, KARMINAX-S2

ND-YAG / Q-SWITCH POWER EMC test report
Verified

EMC test report

AQS-EMU 2604006 · 43 pages · emission and immunity tests passed

ND-YAG / Q-SWITCH POWER LVD test report
Verified

LVD test report

AQS-2604007 · 15 pages · TS EN 60335-1 · TÜRKAK accredited laboratory

ND-YAG / Q-SWITCH POWER RoHS declaration
Verified

RoHS declaration

A1800617 · technical file declaration under 2011/65/EU and 2015/863

Frequently asked

What buyers ask before integration

Is the Q-switch driver on the board?

No. The Q-switch driver is a separate unit; this board synchronises its timing. The board itself carries the high-voltage charging circuit, the simmer circuit and lamp triggering together — so you do not need two separate boards for energy and triggering.

What happens to the capacitor energy when the device is switched off?

The board performs a controlled discharge at shutdown and during service, so the energy is released safely. Interlock, service waiting time, earthing and high-voltage isolation are verified at device level. On a board working at high voltage this is the most critical safety topic.

Does simmer require a separate board?

No. The simmer circuit sits on the same board. Because the lamp is held conductive at low current, triggering at the moment of the pulse is stable and repeatable, which protects both shot-to-shot consistency and lamp life.

What is the pulse energy?

The pulse capacitor is a 100 µF ±5% / 1400 V DC film type; at 1400 V the theoretical upper limit is 98 J. The actual charging voltage stays below the capacitor class and is set per project. Lamp type, operating voltage and target pulse energy are reviewed together.

Let us define the right power architecture for your device.

Share the device type, target values and quantity. Our technical team will respond with the suitable product and integration options.

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