For Precision Cleaning of Sensitive Surfaces and Delicate Restorations.
Pulsed Laser Cleaning Machine
Technical Data
| Laser Source | Pulsed Fiber |
| Laser Power | 100 – 500W |
| Cooling Method | Air/ Water Cooling |
| Wavelength | 1064nm |
| Suitable Application | Precision Coating Removal |
Pulsed Fiber Laser Source
The precision tool. Generates concentrated, short-duration pulses that remove contaminants layer-by-layer with minimal heat input, ideal for weld seam cleaning, mold and die restoration, fine art conservation, and cleaning delicate alloys.
Precision Scanning Cleaning Head
Enables detailed work. Uses a scanning galvanometer system for rapid, programmable beam movement over a fixed area, allowing for intricate cleaning patterns and automation.
Industrial Chiller Unit
Required for thermal stability. Manages the heat load from the pulsed laser to maintain pulse consistency and ensure long-term reliability.
Advanced Pulse Control Software
The key to precision. Allows detailed adjustment of pulse energy, frequency, and scanning patterns to dial in the exact cleaning effect for the substrate and contaminant.
If you have specific component preferences, we can discuss configuration options to meet your needs.
Fume Extraction & Filter Unit
A robust, integrated system with multiple filter stages (HEPA, carbon) to capture fumes and particulates at the source. Protects operators and meets OSHA air quality standards.
Backpack Portable System
A lightweight, air-cooled unit with a long-life battery and a flexible handheld laser head, Enables mobile operation for cleaning hard-to-reach areas.
With our fully independent R&D department, if you have any specific application requirements or cleaning results you want to achieve, we can help develop a custom solution for you.
Confused by pulsed vs. continuous wave laser cleaners? Get clear, actionable answers in just two minutes.
Our animated breakdown explains why pulsed lasers are ideal for delicate tasks like stripping paint from wood or cleaning aluminum without damage, while detailing how key settings like pulse width directly impact your finish.
We’ll also clarify the practical difference between single-mode and multi-mode beams for your specific applications.
| Specific Material/Application | Common Contaminant/Coating | Cleanable? |
|---|---|---|
| Steel, Carbon Steel | Rust, Mill Scale, Paint, Oil | Yes |
| Stainless Steel | Oxide, Oil, Paint, Welding Spatter | Yes |
| Aluminum | Oxide, Paint, Anodized Layer | Yes |
| Copper, Brass, Gold | Oxide, Tarnish, Thermal Oxide | Conditional |
| Titanium, Nickel Alloys | Oxide, Heat Tint, Contaminants | Yes |
| Automotive/Aerospace Parts | Paint, Primer, Powder Coating | Yes |
| Ship Hulls, Structural Steel | Thick Paint, Rust | Yes |
| Tire Molds, Plastic Molds | Rubber Residue, Release Agent, Carbon | Yes |
| Composite Molds, Tooling | Epoxy Residue, Release Agent | Yes |
| Historical Monuments, Facades | Biological Growth, Black Crust | Conditional |
| Carbon Fiber | Release Agent, Contaminants | Conditional (Risky) |
| Glass, Ceramics | Surface Mold, Particulates, Thin Coatings | No (General Rule) |