cropped-AccTek-Logo.png

Metal Laser Cleaning Machines

Metal laser cleaning machines offer fast, precise, and eco-friendly removal of rust, paint, and contaminants from metal surfaces without damaging the base material.
Home » Laser Cleaning Machines » Metal Laser Cleaning Machines
Whatsapp Envelope Phone-alt

Product Introduction

Metal laser cleaning machines are advanced tools designed to remove rust, paint, oxides, oil, and other surface contaminants from metal without damaging the base material. Using high-intensity laser beams, these machines offer a non-contact, environmentally friendly alternative to traditional cleaning methods like sandblasting, chemical solvents, or grinding. Ideal for industries such as aerospace, automotive, shipbuilding, manufacturing, and restoration, laser cleaning machines provide consistent, precise results with minimal waste or abrasion. These machines work by directing a concentrated laser beam at the contaminated surface, instantly vaporizing or breaking down unwanted layers. The process is fast, safe, and efficient, requiring little to no consumables and significantly reducing maintenance and downtime. Most models are equipped with adjustable settings to control power, frequency, and scan width, allowing for tailored cleaning on various metals and surface conditions. Metal laser cleaning machines come in handheld and automated formats, supporting both manual spot-cleaning and high-volume production lines. They are especially valuable for preparing surfaces for welding or coating, removing weld residue, or restoring historical metal structures. As industries push for cleaner, more sustainable operations, laser cleaning is becoming the go-to solution for precise, eco-friendly surface preparation.

Types of Metal Laser Cleaning Machines

Benefits of Laser Cleaning Metal

Non-Contact and Surface-Friendly

Laser cleaning is a non-abrasive, non-contact process that removes rust, paint, and contaminants without damaging the base metal. This ensures the surface remains intact, maintaining its structural and dimensional accuracy during and after cleaning.

Eco-Friendly and Safe

The process does not require harmful chemicals, abrasive materials, or secondary waste handling. It significantly reduces environmental pollution and health hazards, making it a safer and greener alternative for operators and industrial cleaning applications.

Precise and Selective Cleaning

Laser cleaning offers exceptional control, allowing users to clean specific areas without affecting adjacent surfaces. This is particularly beneficial for intricate components or high-precision industries where surface protection is critical.

Low Operating and Maintenance Costs

With fewer consumables, minimal maintenance, and no need for chemicals or blast media, laser cleaning offers a cost-effective long-term solution. It reduces overall operating costs and increases equipment uptime for industrial users.

Fast and Efficient Process

Laser systems provide rapid, consistent cleaning results with adjustable parameters. They are ideal for removing surface contaminants in preparation for welding, coating, or painting, enhancing productivity and reducing labor-intensive procedures.

Easy Automation and Integration

Laser cleaning machines can be integrated into automated production lines or robotic systems. This improves cleaning consistency, reduces manual labor, and supports high-volume industrial applications with greater precision and efficiency.

Compatible Metal Materials

  • Carbon Steel
  • Stainless Steel
  • Aluminum
  • Copper
  • Brass
  • Bronze
  • Cast Iron
  • Galvanized Steel
  • Nickel
  • Nickel Alloys
  • Titanium
  • Titanium Alloys
  • Tool Steel
  • Mild Steel
  • Spring Steel
  • High-Speed Steel
  • Low-Alloy Steel
  • Zinc
  • Tin
  • Lead
  • Magnesium
  • Magnesium Alloys
  • Cobalt
  • Cobalt-Chrome Alloys
  • Manganese Steel
  • Monel
  • Hastelloy
  • Tantalum
  • Tungsten
  • Molybdenum
  • Beryllium
  • Chromium
  • White Metal
  • Pewter
  • Duralumin
  • Alnico
  • Nitinol
  • Permalloy
  • Invar
  • Stainless Clad Metals

Application of Metal Laser Cleaning Machines

Metal laser cleaning machines are widely used across various industries for surface preparation, maintenance, and restoration. In manufacturing and metal fabrication, they effectively remove rust, oxides, paint, and oil to prepare metal surfaces for welding, coating, or bonding. In the automotive and aerospace industries, laser cleaning ensures precision cleaning of components without damaging delicate parts. It is also ideal for maintaining industrial molds, tools, and machinery by removing residues and contaminants without abrasive wear. In shipbuilding and railway maintenance, laser cleaning helps restore large steel structures and components. It’s also used in electronics and electrical industries to clean conductive metals and improve contact performance. Additionally, metal laser cleaning machines are used in cultural heritage restoration for cleaning historical metal artifacts without damaging their structure. Their ability to provide a non-contact, eco-friendly, and highly controlled cleaning process makes them indispensable in sectors requiring precision, efficiency, and minimal surface impact.
Metal Laser Cleaning Samples
Metal Laser Cleaning Samples
Metal Laser Cleaning Samples
Metal Laser Cleaning Samples
Metal Laser Cleaning Samples
Metal Laser Cleaning Samples
Metal Laser Cleaning Samples
Metal Laser Cleaning Samples

Customer Testimonials

We’ve had the laser cleaning machine running in our facility for several months now. I wasn’t sure how effective it would be compared to traditional cleaning, but it’s exceeded expectations. Rust, paint, and oil stains come off easily without damaging the surface underneath. Our crew got the hang of it quickly, and we’ve already cut cleaning time by nearly 40%. It’s also much safer than abrasive or chemical methods. If you're running a maintenance department, this is the kind of machine that pays for itself quickly—highly recommended.
LisaMaintenance Supervisor
As someone who's been in welding and fabrication for over a decade, I’ve seen a lot of tools come and go. This laser cleaning machine, though, has made a real difference. Cleaning weld joints, removing oxidation, and prepping surfaces now takes a fraction of the time it used to. We used to rely on grinders and solvents, which were messy and time-consuming. This system is cleaner, faster, and safer. The interface is simple, and training our staff only took an afternoon. This machine has become a key part of our workflow.
JavierWelding Shop Manager
In classic car restoration, detail and precision matter. We can't afford to damage panels or over-strip materials. This laser cleaning machine has been a total game changer. It removes rust, paint, and residue without damaging the metal underneath, which is something I couldn’t achieve consistently with sandblasting. I also love that there's no dust cloud or leftover mess to deal with. The portability is great too—I can take it right to the chassis or engine bay. It’s saved me hours on every project and delivers top-notch results every time.
FatimaAutomotive Restoration Specialist
Our manufacturing plant needed a faster, cleaner way to handle metal surface prep, especially on larger steel components. This laser machine fit the bill. It works reliably for hours at a time without overheating, and the precision is outstanding. We've used it on everything from rust removal to oil stain cleanup. Since implementing it, we’ve noticed a drop in rework due to surface contamination, which is a big win. The setup was straightforward, and training took less than a day. This machine has raised the bar in our surface treatment process.
DylanPlant Operations Engineer
I’ve used many cleaning tools in my job, but nothing comes close to this. The laser removes grime, oil buildup, and rust from metal parts without taking anything off the base surface. That’s incredibly useful for maintaining tolerance-critical components. We no longer need to disassemble machinery for cleaning, which has saved days of labor over time. The best part is it doesn’t leave a mess—no sand, no chemicals, just clean metal. It’s quiet, energy-efficient, and requires little maintenance. This is the kind of machine every industrial technician should have.
MariaIndustrial Equipment Technician
We took a gamble buying this laser cleaning machine, and honestly, it’s been one of the best equipment purchases we’ve made. Our shop handles everything from structural steel to custom aluminum parts, and this machine handles both with ease. Whether it’s stripping old paint or cleaning weld seams, the results are always clean and consistent. We’ve stopped using abrasive discs completely, and the reduction in dust and debris has made the shop much cleaner. Clients are even noticing the better surface finishes. This tool has streamlined our entire fabrication process.
AndrewFabrication Workshop Owner

Comparison VS Other Cleaning Technologies

Comparison Item Laser Cleaning Sandblasting Chemical Cleaning Ultrasonic Cleaning
Cleaning Method Non-contact, laser ablation Abrasive impact Chemical reaction Cavitation from high-frequency waves
Material Damage Risk Minimal to none High, especially on delicate surfaces Possible corrosion Low
Environmental Impact Eco-friendly, no secondary waste Dust and waste generation Hazardous chemical waste Requires disposal of cleaning fluids
Precision Very high, controllable Low to moderate Moderate High on small parts
Surface Preparation Excellent for welding/coating Rough surface texture May require neutralization Suitable for precision parts
Waste Disposal Minimal Requires cleanup Hazardous waste Contaminated fluid disposal
Operating Cost Low long-term High media replacement cost High chemical costs Moderate
Maintenance Needs Low Medium to high Medium Medium
Automation Compatibility Easy integration with robotics Difficult Moderate Moderate
Surface Residue Removal Excellent Good Good Excellent for small contaminants
Safety Requirements Requires laser safety protocols Requires PPE and dust control Requires PPE and ventilation Requires safe handling of fluids
Cleaning Speed Fast (depending on power) Moderate to fast Slow to moderate Slow
Operating Noise Low to moderate Very loud Low Low
Consumables None or minimal High (abrasive media) High (chemicals) Medium (cleaning agents)
Suitable for Complex Shapes Excellent, flexible laser heads Poor coverage in tight spaces Limited by soaking ability Excellent for intricate parts

Why Choose Us

AccTek Group is a professional manufacturer of laser cleaning machines, offering efficient, non-contact cleaning solutions for a wide range of industrial applications. Our machines are designed to remove rust, paint, oil, coatings, and other surface contaminants without damaging the base material. With a focus on precision, safety, and environmental sustainability, we provide advanced laser cleaning systems that meet the evolving needs of modern manufacturing. Backed by years of experience in laser technology, we are committed to delivering reliable equipment, expert support, and long-term value. Whether you’re in automotive, aerospace, electronics, or metal processing, AccTek Group’s laser cleaning solutions improve productivity while reducing maintenance and operational costs.

Efficient Cleaning

Our machines offer fast, precise cleaning without chemicals or abrasion, making them ideal for delicate surfaces and complex materials across various industries.

Safe & Eco-Friendly

Laser cleaning eliminates the need for harsh chemicals and generates no secondary pollution, creating a safer and more environmentally friendly workspace.

Stable Performance

Built with high-quality components and advanced control systems, our machines ensure consistent cleaning results with minimal maintenance and long service life.

Custom Solutions

We provide flexible configurations and tailored options to match different cleaning requirements, helping customers achieve optimal performance for their specific applications.

Related Resources

Frequently Asked Questions

What Laser Power Options Are Available For Metal Laser Cleaning Machines?
Metal laser cleaning machines come in a range of power options tailored to different applications and material conditions. There are two primary types: continuous laser cleaning machines and pulse laser cleaning machines, each offering distinct advantages and power ranges.

  • Continuous Laser Cleaning Machines: These machines deliver a constant stream of laser energy, making them ideal for large-scale industrial cleaning tasks that require high efficiency and deep cleaning power. Suitable for removing thick rust, oxide layers, paint, and welding slag on large metal surfaces, they are commonly used in shipbuilding, construction, and heavy machinery maintenance. Available power options include:
  1. 1000W: Best for light rust removal or small parts where precision isn’t critical.
  2. 1500W & 2000W: These mid-range options offer a balance between speed and precision. Suitable for medium rust layers, paint, or scale removal.
  3. 3000W: Delivers higher energy for tougher cleaning jobs, including thick oxide layers and stubborn coatings on larger metal structures.
  4. 6000W: Designed for the most demanding tasks, such as deep descaling, paint stripping, and industrial-scale surface preparation. High power enables fast throughput, but requires proper safety controls and trained operation.
  • Pulse Laser Cleaning Machines: Pulse lasers emit energy in short, high-peak-power bursts, offering precision and minimal heat input. This makes them ideal for applications that require fine control, like delicate surfaces, precision tools, or electronics components. They are widely used in aerospace, restoration, medical tools cleaning, and the semiconductor industries. Available power options include:
  1. 100W & 200W: Ideal for fine detail work such as removing thin oxide films, micro-contaminants, or coatings from sensitive substrates without damaging the base material.
  2. 300W & 500W: Provide a bit more power for moderate cleaning tasks, such as removing paint, grease, or light rust from precision components.
  3. 1000W: A versatile option capable of handling more aggressive cleaning while still maintaining control over heat and substrate safety.
  4. 2000W: Offers high peak power with the benefits of pulse control—well-suited for complex industrial needs where both precision and deeper cleaning are required.

In all cases, the material type, contamination level, and desired finish will determine the most effective laser cleaning setup.
Metal laser cleaning machines vary widely in cost depending on the laser type, precision level, and industrial application. There are two main categories: continuous and pulse laser cleaning machines, each with its pricing range and performance characteristics.

  • Continuous Laser Cleaning Machines: These systems use a steady laser beam to remove surface contaminants like rust, oil, paint, and oxide from metal components. With a price range of $3,500 to $7,500, they offer a budget-friendly solution for general-purpose industrial cleaning. Continuous machines are most effective on larger metal surfaces where high speed is more important than pinpoint accuracy. However, due to their constant energy output, they can generate more heat, which may not be ideal for delicate or heat-sensitive materials.
  • Pulse Laser Cleaning Machines: Designed for precision and control, pulse laser systems fire short, high-energy bursts that clean without overheating or damaging the base material. These machines range in price from $6,000 to $70,000, reflecting the broad variety in power levels, system complexity, and intended usage. Lower-end pulse machines are suitable for tasks like rust removal on small parts or light-duty mold cleaning. At the higher end, these machines are equipped for specialized industries such as aerospace, electronics, and conservation, where surface integrity is critical and cleaning requirements are more demanding.

Choosing the right system depends on your cleaning precision, material sensitivity, and budget. Both types deliver strong performance, but the investment scales with the machine’s sophistication and intended application.
Laser power plays a critical role in determining how fast a laser cleaning machine can remove contaminants from metal surfaces. Higher power generally translates to faster cleaning speeds, but the type of laser—continuous or pulse—also affects the outcome. Here’s how laser power impacts cleaning speed in different types of machines:

  • Continuous Laser Cleaning Machines: Continuous-wave (CW) lasers provide a steady, uninterrupted energy stream, making them ideal for large-scale and high-speed cleaning tasks. As power increases, so does the cleaning speed, because more energy is delivered to the surface in less time.
  1. 1000W: Suitable for smaller jobs and thin rust layers. Cleaning speed is moderate but consistent.
  2. 1500W–2000W: Boosts cleaning efficiency on medium contamination levels. Good for industrial parts, pipelines, or metal molds.
  3. 3000W: Enables significantly faster surface treatment. Removes thick paint, heavy corrosion, or scale quickly.
  4. 6000W: Delivers extremely high throughput. Ideal for large-area cleaning or deep oxide removal at production-level speeds. At this level, the cleaning rate is maximized, but safety and heat control become more critical.
  • Pulse Laser Cleaning Machines: Pulse lasers emit energy in bursts, providing precise control over the cleaning process. The power rating in pulse machines corresponds not only to average energy delivery but also to peak pulse energy, which affects how aggressively the surface is treated.
  1. 100W–200W: Offers slow, highly controlled cleaning. Ideal for delicate tasks like art restoration or microelectronics, where surface damage must be avoided.
  2. 300W–500W: Speeds up cleaning while maintaining precision. Commonly used in aerospace, automotive, and mold cleaning.
  3. 1000W–2000W: High-power pulse systems can approach the speed of lower-power continuous lasers, especially when removing thicker contaminants. They combine fast cleaning with precision, making them versatile for complex or heat-sensitive materials.

In continuous machines, cleaning speed scales directly with power: the higher the wattage, the faster the removal rate. In pulse machines, higher power increases speed, but with a trade-off between cleaning aggression and substrate safety. For maximum speed, continuous lasers above 3000W outperform other types, but they are best for tough, thick layers and non-sensitive metals. For precision cleaning, pulse lasers up to 2000W balance speed and surface safety more effectively. Choosing the right power depends on the job: fast throughput or fine control.
Metal laser cleaning machines are highly effective for removing rust, paint, oxides, and surface contaminants, but choosing the right one depends on multiple factors such as the cleaning target, surface condition, and operating environment. Here are the main types and features to consider when selecting metal laser cleaning machines:

  • Continuous Laser Cleaning Machines: These systems emit a steady beam of laser energy, making them ideal for high-speed and large-area cleaning. Available in power options like 1000W, 1500W, 2000W, 3000W, and 6000W, continuous lasers are best suited for thick rust, heavy paint layers, and industrial-scale cleaning.
  1. 1000W–1500W: Good for general-purpose cleaning tasks with moderate speed and coverage.
  2. 2000W–3000W: Offers faster cleaning for tougher contaminants and mid-to-large surface areas.
  3. 6000W: Designed for high-volume, high-throughput industrial environments where cleaning speed is critical.
  • Pulse Laser Cleaning Machines: These machines emit energy in controlled bursts, allowing for precise cleaning with minimal heat impact. They are offered in power levels like 100W, 200W, 300W, 500W, 1000W, and 2000W. Pulse lasers are preferred for sensitive surfaces, fine detail work, and precision components.
  1. 100W–300W: Ideal for delicate metals, electronics, or cultural heritage restoration.
  2. 500W–1000W: Balances precision and cleaning speed, suitable for paint removal or oxide cleaning on moderate surfaces.
  3. 2000W: Provides high peak power with minimal surface damage, useful for demanding precision applications.
  • Material Type and Surface Condition: The type of metal and the contamination level greatly affect machine choice.
  1. Steel and Iron: Continuous lasers (1500W and up) clean rust and scale effectively.
  2. Aluminum, Brass, Copper: Pulse lasers prevent damage to heat-sensitive or reflective surfaces.
  3. Coated Surfaces: Mid- to high-power systems (1000W or higher) remove layers efficiently without damaging the base material.
  • Cleaning Application and Environment: The machine should match the task and workspace setup.
  1. Industrial Production Lines: High-power continuous systems with automation or robotics.
  2. On-site Maintenance: Portable handheld units for flexible operation.
  3. Precision Workshops: Pulse systems for safe and targeted cleaning of small components.
  • Cooling System: Laser machines above 1000W generally require water cooling for safe and consistent operation. Air-cooled systems are available in lower power models and are easier to maintain, but may not handle long-duration tasks.

When selecting metal laser cleaning machines, consider the type of laser (continuous for speed, pulse for precision), the power level needed for the job, the surface material, and the working environment. Higher power provides faster cleaning, while pulse systems offer safer handling for sensitive materials. The right match depends on both performance needs and practical factors like mobility and cooling.
Laser cleaning systems are highly effective, but their performance can vary depending on the type of metal surface, especially when dealing with reflective materials. Here’s how lasers interact with reflective metals and whether they clean effectively:

  • Aluminum and Aluminum Alloys: Aluminum has a high reflectivity, especially in its polished form, which can initially reduce laser absorption. However, fiber lasers and certain pulse lasers can overcome this reflectivity with high peak power and short pulses, making them effective for removing oxidation, anodized layers, or coatings. Once the oxide layer or contamination is partially removed, the surface absorbs more energy, improving cleaning efficiency.
  • Copper and Brass: These metals are extremely reflective and highly conductive, making them harder to clean with low-powered lasers. Specialized high-power fiber lasers or lasers with short wavelengths (like green or UV lasers) are better suited for these surfaces. While effective cleaning is possible, settings must be carefully controlled to avoid surface etching or incomplete removal.
  • Stainless Steel: Stainless steel is moderately reflective, but laser cleaning is very effective for removing rust, paint, and surface contaminants. The metal responds well to nanosecond and picosecond pulse fiber lasers, with minimal risk of damaging the base material. Cleaning efficiency remains high, even on polished or brushed finishes.
  • Titanium and Nickel Alloys: These high-performance reflective metals can be cleaned effectively with advanced pulse fiber lasers. Oxide layers, grease, and corrosion can be removed without altering the metal surface. Because of their engineering applications, laser cleaning is often preferred to avoid chemical or abrasive damage.
  • Precautions and Laser Type Considerations: Reflective metals can bounce back laser energy, which poses a risk to laser optics and safety. This is why only fiber lasers or lasers specifically designed for cleaning metal surfaces should be used. CO2 lasers are generally not suitable due to their wavelength being poorly absorbed by reflective metals.

In short, while reflective metals like aluminum, copper, and brass are more challenging, laser cleaning can be highly effective with the right equipment and parameters. Fiber lasers, especially in pulse modes, are the most suitable tools for achieving clean, residue-free surfaces on reflective materials without damaging the substrate.
Laser cleaning machines are efficient for removing rust, paint, grease, oxides, and other surface contaminants from metal, but the process does produce fumes and particulate matter. These emissions result from the thermal breakdown or vaporization of the materials being removed, not from the metal itself. Here’s what to expect during laser cleaning:

  • Rust and Oxides: When cleaning corrosion or scale from steel, iron, or aluminum, the laser ablates the oxidized layer, producing metal oxide dust and vapor. While these fumes are typically less harmful than chemical alternatives, they can still irritate the respiratory system and require proper extraction.
  • Paint and Coatings: Removing paint with a laser releases a complex mix of gases and fine particles, depending on the paint type. Some paints—especially those with lead, cadmium, or halogenated compounds—can produce hazardous fumes. Fume extraction and filtration are essential when working on coated surfaces.
  • Grease, Oil, and Adhesives: Organic residues like grease, oil, or glue burn or vaporize under laser exposure. This creates smoke and airborne contaminants that may contain volatile organic compounds (VOCs). Ventilation or localized fume hoods are necessary to protect the operator and the surrounding equipment.
  • Plastic or Polymer Layers on Metal: In cases where plastic coatings are removed from metal surfaces, toxic fumes—similar to those seen in laser cutting of plastics—may occur. Materials like PVC or fluoropolymers should be identified and handled with caution.
  • Fume Management and Safety: Laser cleaning systems should be paired with fume extraction units equipped with HEPA and activated carbon filters. These systems capture airborne particulates and neutralize hazardous compounds before they enter the work environment. Operators should also use personal protective equipment (PPE) like respirators in enclosed or poorly ventilated spaces.

Laser cleaning of metal does produce fumes, primarily from the material being removed rather than the metal itself. Rust, paint, grease, and coatings release vapors and particles that must be managed with proper extraction systems and safety precautions. While cleaner than chemical or abrasive methods, laser cleaning still requires careful attention to air quality and operator protection.
Laser cleaning is widely used for removing rust, oxides, paint, and other surface contaminants from metal without the use of chemicals or abrasives. When configured correctly, it does not damage the underlying metal surface. However, the degree of safety depends on the laser type, power level, and application settings. Here’s how it affects different materials and conditions:

  • Steel and Iron: Carbon steel, stainless steel, and cast iron can be cleaned with both pulse and continuous lasers without surface damage when proper settings are used. Pulse lasers in the 100W to 1000W range are commonly applied for fine surface preparation. Overpowering or moving the beam too slowly can cause discoloration or mild pitting, especially on polished finishes.
  • Aluminum and Copper: These metals are softer and more reflective. Pulse lasers are preferred, typically in the 100W to 500W range, to avoid warping or surface texturing. Laser parameters must be fine-tuned to prevent heat buildup, especially on thin or high-precision parts.
  • Plated or Coated Surfaces: When removing paint, oxides, or other coatings, laser energy should be matched to the thickness and composition of the layer. Done correctly, the underlying metal remains intact. Improper setup can result in micro-scarring or thermal tinting on sensitive finishes.
  • Welds and Joints: Laser cleaning is often used to remove oxides and residues from welded areas without affecting the joint integrity. This is especially common in aerospace and automotive applications. The laser beam can be adjusted to clean without altering surface hardness or structure.
  • Precision Components and Tools: With pulse lasers, even highly sensitive parts like molds, turbine blades, and micro-machined components can be cleaned effectively. The energy is confined to surface contaminants, preserving the dimensional accuracy and finish of the base material.

Laser cleaning does not damage metal surfaces when appropriate equipment and settings are used. Pulse lasers offer excellent control for delicate applications, while continuous lasers are suited for high-speed removal on robust surfaces. Factors like power level, scanning speed, and pulse frequency must be calibrated to match the material and contamination. With the right configuration, laser cleaning is a non-contact, non-abrasive, and safe method for restoring metal surfaces without altering their properties.
Metal laser cleaning machines use varying amounts of electrical power depending on their type and output level. Power consumption impacts operating cost, energy infrastructure requirements, and long-term efficiency. Here’s how the power usage breaks down by machine type:

  • Continuous Laser Cleaning Machines: These machines run at a constant power output and are designed for high-speed cleaning over large areas. They typically require more energy due to continuous beam operation and higher cooling demands.
  1. 1000W: Consumes around 5 kW of electrical power. Suitable for light-to-moderate surface cleaning tasks.
  2. 1500W: Requires approximately 6.5 kW. Offers faster cleaning speed and can handle thicker paint and rust layers.
  3. 2000W: Uses about 8.5 kW. Commonly used in industrial workshops for heavy-duty cleaning.
  4. 3000W: Consumes roughly 12 kW. Designed for fast throughput on large-scale surfaces.
  5. 6000W: Requires up to 20 kW. Suited for large industrial applications with high contamination levels and volume.
  • Pulse Laser Cleaning Machines: These systems emit energy in short bursts, consuming less power overall while providing fine control. They are more energy-efficient, especially when working on precision parts or heat-sensitive materials.
  1. 100W: Uses around 0.5 kW. Best for gentle cleaning, like artifact restoration or fine component prep.
  2. 200W: Requires 1 kW. Used in electronics, mold maintenance, or light oxide removal.
  3. 300W: Consumes 1.5 kW. Provides faster cleaning while maintaining control over surface safety.
  4. 500W: Uses about 2.5 kW. Balances energy use and cleaning power for moderate-duty tasks.
  5. 1000W: Requires 5 kW. High-efficiency option for industrial users needing precision and speed.
  6. 2000W: Draws approximately 8.5 kW. Delivers top-tier pulse performance, approaching continuous laser capabilities with lower thermal risk.

Continuous lasers offer fast, aggressive cleaning but require more electrical power (5 kW to 20 kW) and advanced cooling systems. Pulse lasers consume less power (0.5 kW to 8.5 kW), making them better suited for precision tasks and energy-conscious operations. Choosing the right system depends not just on cleaning performance, but also on power availability, efficiency goals, and operating costs. Always match power requirements to the job and your facility’s capacity.

Get Metal Laser Cleaning Solutions

Looking for a reliable and efficient way to clean metal surfaces? Our metal laser cleaning machines provide advanced, eco-friendly solutions for rust removal, paint stripping, surface preparation, and more. Whether you’re in automotive, aerospace, construction, or metal fabrication, our machines offer precise and damage-free cleaning for a wide range of metals. With options ranging from compact handheld units to high-power industrial systems, we can tailor a solution to meet your specific cleaning needs and production environment.
Our team of experts is here to help you choose the right model based on your materials, application requirements, and budget. We also provide complete technical support, training, and after-sales service to ensure smooth operation and long-term value. Upgrade your cleaning process with laser technology and experience faster, safer, and more sustainable results. Contact us today to get customized metal laser cleaning solutions and boost your productivity.
* We value your privacy. AccTek Group is committed to protecting your personal information. Any details you provide when submitting the form will be kept strictly confidential and used only to assist with your inquiry. We do not share, sell, or disclose your information to third parties. Your data is securely stored and handled by our privacy policy.
AccTek Logo
Powered by  GDPR Cookie Compliance
Privacy Overview

This website uses cookies so that we can provide you with the best user experience possible. Cookie information is stored in your browser and performs functions such as recognising you when you return to our website and helping our team to understand which sections of the website you find most interesting and useful.