Industrial laser beam striking dark steel surface with bright blue-white contact point and amber heat glow, vaporised contaminant wisps rising in dimly lit manufacturing facility.
UK Laser Cleaning Manufacturer
Cleaning Lasers - ELASER and AutoLASE Systems
Cleaning lasers engineered in the UK: the eye-safe ELASER-RHZ with 300 W power and 50 m cable reach, plus AutoLASE with vision-driven automated cleaning paths.

What Is a Cleaning Laser?

A cleaning laser uses focused fibre laser energy to remove surface contaminants — rust, paint, oxides, and coatings — through a process called laser ablation. The beam vaporises the contaminant layer while leaving the base material completely intact.

This works because different materials absorb laser energy at different thresholds. The laser is tuned to the contaminant's threshold, not the substrate's, so the beam stops precisely at the surface beneath. No blast media, no chemicals, no water — the laser is the only cleaning agent required.

Close-up of electric blue laser beam striking rusted metal surface, with rust layer vaporizing on left side and clean bare steel exposed on right, demonstrating laser ablation cleaning principle.

ELASER-RHZ: World-First Eye-Safe Portable Laser Cleaning

The ELASER-RHZ is the world's only portable laser cleaner with Reduced Hazard Zone (RHZ) technology — WSL's patented 1550 nm system that collapses the laser hazard to a small area around the work. Where conventional portable laser cleaning requires full area evacuation, the ELASER-RHZ does not, unlocking cleaning in open workshops, mixed-use facilities, and publicly accessible spaces.

The wheeled system weighs under 50 kg, with a sub-3 kg handheld scanner and up to 50 m cable reach — single-operator, no compressor, no consumables.

Up to 300 W, tunable 0–100%: one machine spans light oxides through thick coatings.

Industrial operator in navy coveralls directs handheld laser scanning head at metal surface, revealing cleaned bare metal through electric blue laser contact point, wheeled ELASER unit visible in background workshop.

AutoLASE: Automated Laser Cleaning for Production Lines

Load the part — AutoLASE does the rest. Its machine-vision software scans the component, builds a 3D map, and generates the cleaning path automatically. No programming, no path-setting, no knowledge of part geometry required. Where conventional automated systems need a technician to configure each run, any operator can load a part and start a cycle.

AutoLASE can also be configured with WSL's eye-safe RHZ technology — the only automated laser cleaning system in the world that operates without an enclosure. The articulated robotic arm reaches complex 3D contours; up to 300 W, 0–100% tunable, air-cooled, no consumables.

Industrial robotic arm with laser cleaning head positioned over metal component on production-line fixture, with annotated labels for machine vision 3D mapping and no programming required.
Applications

Industries and Applications These Systems Serve

From production lines to public monuments, ELASER and AutoLASE cover a wide range of cleaning tasks across industry. Find your context below and see which system fits your operation.

ELASER laser scanner head directing bright electric blue laser into an open injection mould cavity, with grimy release agent buildup on one side contrasting against cleaned bare metal surface glowing at the laser contact point.

Injection Moulding and Tooling

Strip release agents and residue from mould cavities in place — no disassembly, no abrasion.

Technician in navy coveralls applying laser cleaning scanner to automotive car body panel in bright manufacturing facility, with electric blue laser beam actively removing rust and paint residue from metal surface.

Automotive: Bodyshop, Driveline and EV Components

Pre-weld prep, rust removal, EV battery components: ELASER flexes on-line; AutoLASE handles volume batches.

Aerospace turbine blade mounted in robotic arm enclosure with active electric blue laser beam striking surface, showing cleaned polished metal contrasting with degraded coating, precise mechanical detail visible on arm and blade geometry.

Aerospace Components and Surface Preparation

Turbine blades and engine parts cleaned to tight tolerances — AutoLASE holds the same standard every cycle.

Tyre mould segment showing vulcanisation residue on left side and cleaned cavity detail on right, with electric blue laser beam at the dividing line removing buildup from vent geometry.

Tyre and Rubber Mould Cleaning

Remove vulcanisation residue from moulds, segments and vents — no abrasives, no mould wear.

Technician in dark coveralls using ELASER-RHZ laser scanner on weathered stone masonry, with electric blue laser beam revealing cleaned pale stone surface contrasting against aged patina and grime in open public setting.

Heritage, Restoration and Graffiti Removal

Gentle on original surfaces; ELASER-RHZ enables cleaning in publicly accessible spaces without evacuating the area.

Industrial operator in dark coveralls and lab coat using ELASER handheld laser scanner on large steel pipework, with extended fiber cable running to wheeled cleaning unit in background facility.

Industrial Maintenance: On-Site Plant and Infrastructure

ELASER's 50 m reach cleans plant in place — nothing to mask, no media to clear.

Automated laser scanner cleaning corroded engine housing, with left side showing rust and oxidation, right side showing clean bare metal, electric blue laser beam at contact point.

Remanufacturing and Refurbishment

AutoLASE strips corrosion and coatings from worn components — batches cleaned consistently, ready for inspection.

See the System Built for Your Application

From automotive prep to mould cleaning and on-site maintenance, the ELASER and ELASER-RHZ are built around the jobs you have just read about. Explore the product that fits your operation.

Dark oxidized metal surface with focused laser beam creating bright electric blue glow at contact point, vaporized contaminant particles suspended in luminous cloud.

Full Technical Specifications

Laser Source

Laser Source and Power

Max power: up to 300 W. Wavelength: 1550 nm — the technical basis for the ELASER-RHZ's reduced hazard zone capability. Pulse energy: up to 15 mJ. Pulse duration: 100 ns. Pulse repetition rate: adjustable up to 200 kHz (CW). Power tunability: 0–100%. Laser class: Class IV or Class I, depending on configuration.

Fibre laser source unit with precision-engineered metal housing and optical coupling ports on dark technical workbench, surrounded by four specification containers displaying power, wavelength, pulse energy, and pulse duration values connected by blue circuit-trace lines.
Scanner & Optics

Scanner and Optics

Scanner: 2-D galvanometer, max scan rate 10 m/s. Scan shapes: fully programmable through GUI. F-Theta lenses: interchangeable, 75–500 mm working distance. Lens-protection windows: included and replaceable.

Close-up of ELASER galvanometer scanner head and F-Theta lens assembly positioned at 45 degrees, showing brushed steel housing, reflective optical components, and precision mechanical detail under studio lighting.
Physical & Delivery

Physical Form and Delivery

Delivery cable: up to 50 m (5 m / 15 m standard). ELASER system weight: under 50 kg, wheeled unit; handheld scanner under 3 kg. AutoLASE configuration: robotic arm. Power supply: 110–250 VAC single-phase. Power consumption: under 2000 W.

ELASER wheeled laser cleaning machine on left with handheld scanner on right, connected by extended fiber-optic delivery cable on light grey technical background.
Interface & Control

Interface and Control

Interface: Ethernet and touchscreen. Scan shapes: fully programmable through GUI. Cooling: air-cooled — no water, chiller or coolant circuit required. Power supply: 110–250 VAC single-phase — no special electrical infrastructure required.

ELASER touchscreen control panel with dark navy interface displaying laser parameters including wavelength, pulse energy, and repetition rate controls mounted in brushed stainless steel bezel.
Certifications

Certifications and Origin

Laser class: Class IV or Class I, depending on configuration. CE: certified. UKCA: certified. Manufacture: Made in Britain.

CE mark, UKCA mark, and Made in Britain identifier arranged horizontally on light technical background with faint grid pattern

Pricing and Total Cost of Ownership

Total Cost of Ownership

TCO Is the Right Measure

Evaluating a cleaning laser on purchase price alone misses the full economic picture. The correct lens is total cost of ownership: what the system costs to run over its working life.

Three TCO drivers work in laser cleaning's favour. Zero consumables — no blast media, chemicals, or water to buy, store, or dispose of. Less downtime — no media management, no post-clean clear-up. Less rework — minimal substrate loss means parts are preserved, cutting costly repair cycles. Together, these structural advantages build a compelling investment case.

Three cost component icons in a row: a consumables container on the left, a clock symbol in the center, and a component symbol on the right, each labeled below with white text on blue-bordered containers.
Laser vs. Alternatives

Structurally Lower Running Costs

Sandblasting, chemical stripping, and water-jetting all carry ongoing running costs: consumable media, chemical procurement, specialist waste disposal, and the labour overhead of managing and cleaning up after each process. Those costs accumulate with every job.

Laser cleaning runs on energy alone. No consumables to purchase, no disposal costs, reduced labour per cycle. When you account for the full operational picture across months and years of use, the economics of laser cleaning are strongly favourable — and that is the right basis for any capital equipment comparison.

Split-composition contrast: left side shows a compact laser scanner head held over a clean steel surface with electric blue laser glow; right side displays scattered abrasive media, chemical bottles, and waste containers from traditional cleaning methods.
What Affects the Price

What Drives System Cost

Four variables shape the price of a laser cleaning system. Power level is the primary driver — higher wattage capability increases cost. System configuration matters too: a portable ELASER or ELASER-RHZ is configured differently from an AutoLASE automated cell, and each carries its own cost profile.

Delivery cable length affects the specification — standard lengths are 5 m and 15 m, with options up to 50 m. Finally, any bespoke engineering or integration requirements for your specific application will influence the final quotation. Understanding these variables helps frame the conversation before you request a quote.

Laser cleaning system with wheeled ELASER unit on left, extended fiber cable, and handheld scanner head on right. Four labeled callout badges identify power level, configuration type, cable length, and bespoke integration points.
European Cost Leader

Competitive Pricing, No Compromise

WSL is the European cost leader in industrial laser cleaning — the most competitively priced systems among comparable machines in the market. That position is achieved through in-house manufacturing efficiencies, not by cutting quality or capability.

Pricing is by quotation, tailored to your specific application, configuration, and requirements. Share the details of your cleaning task and we will provide an accurate assessment. No pressure, no vague estimates — just a clear, application-specific figure.

ELASER wheeled laser cleaning machine on left with handheld scanner head on right, connected by fiber cable, positioned in clean studio environment with light grey background.

Manufacturer vs Reseller: Why the Difference Matters

Much of the laser cleaning market is supplied by resellers and importers rebadging third-party machines. For buyers, that means support routed through an intermediary with no in-house engineering — slower spares, no ability to fix problems at source, and no genuine capacity to improve the product over time.

WSL is the only UK-based laser cleaning manufacturer. Founded in 2012, with 200+ years of combined engineering experience, WSL designs, builds, services and improves every machine in-house — including patented world-first technology. CE and UKCA certified. When something needs resolving, the engineers who built it are the engineers who fix it.

Technician in navy coveralls assembling laser cleaning system at bright industrial workbench with overhead LED lighting; three credential badges positioned at image edges: Founded 2012, 200+ Years Engineering Experience, Made in Britain.

How WSL Compares

Eye-Safe Cleaning

No Area Evacuation Required

Every other cleaning laser on the market operates as a Class 4 system, requiring controlled hazard zones, area evacuation, and restricted access before work can begin. The ELASER-RHZ is the only laser cleaner in the world that changes this. WSL's patented Reduced Hazard Zone (RHZ) technology collapses the hazard to a small area around the work itself, enabling cleaning in open workshops, mixed-use facilities, and public-facing environments — with no shutdown, no barriers, and no cleared area required. No competitor offers this.

Laser cleaning operator in dark coveralls holding ELASER scanner head directed at metal component, with fiber cable extended across workshop floor to machine in background left. Other workers visible in background continuing normal tasks at workstations. No barriers or evacuation zones present.
Ease of Use

Load the Part, It Runs

Competing automated laser cleaning cells — from Laserax, 4JET, LASCAM, and others — all require a technician to program cleaning paths before the system can process a part. That means specialist knowledge, setup time, and a barrier every time a new component is introduced.

AutoLASE requires none of this. Load the part: machine vision scans it, builds a 3D map, and generates the cleaning path automatically. No programming, no path-setting, no knowledge of part geometry needed. Anyone can run it.

Compact robotic arm with electric blue laser cleaning head positioned over a metal component in a bright industrial cell, demonstrating automated load-and-go laser cleaning operation.
Cable Reach

50 m Reach vs the Market

The ELASER's delivery cable extends up to 50 m, placing the laser unit well away from the work and giving a single operator genuine freedom across large structures or in-place plant. By comparison, 4JET's JETLASER ships with a 15 m fibre cable, and the Netalux Needle's standard cable is 4.5 m (5.7 m extended). For maintenance tasks where the laser unit cannot sit immediately beside the work, reach is a practical constraint — and 50 m removes it.

Industrial operator in navy coveralls holding ELASER laser scanner at end of extended fiber cable, directing electric blue laser at structural steelwork; cable runs 50+ meters across polished facility floor to wheeled unit in background.
In-House Build

Built Here, Supported Here

A significant portion of the laser cleaning market is supplied by integrators and resellers using third-party laser sources — Lasertronics, for example, states on its own site that its systems are paired with German made lasers. That model typically means slower resolution when something needs fixing, with no in-house engineering to address root causes.

WSL designs, builds, and improves every machine in-house at its UK facility, with 200+ years of combined engineering experience behind the team.

Technician in navy coveralls and lab coat assembling a laser cleaning system component at a precision workbench in a bright industrial workshop, with organized tools and engineering equipment visible.
Pricing

European Cost Leader

Among comparable industrial laser cleaning machines from established European manufacturers, WSL is the cost leader. P-Laser's published pricing starts from €60,000 for low-power units and reaches €390,000 at 1,000 W. 4JET's JETLASER starts at €219,000. WSL's competitive position is the product of in-house manufacturing efficiency — not a reduction in capability or build quality.

ELASER laser cleaning machine positioned on clean laboratory floor with extended fiber cable, rendered with photorealistic metal surfaces and precision engineering detail against light technical workspace background.
After-Sales Support

Training, Support, and Customisation

WSL's in-house manufacturing model extends well beyond the sale — into operator training, direct engineering support, and bespoke system development for both ELASER and AutoLASE.

Engineer in dark navy coveralls inspecting ELASER laser scanner component at precision workbench in bright manufacturing workshop, safety glasses on forehead, hands carefully handling detailed mechanical assembly.

Support From the Engineers Who Built It

WSL designs and builds every machine in-house. When you need support, it comes from the engineers with direct knowledge of your system.

Engineer in lab coat seated at desk reviewing CAD technical drawings, with ELASER laser cleaning machine visible in soft focus in the background manufacturing facility.

Bespoke Engineering and Customisation

Both systems can be engineered to your specific requirements. Get in touch to discuss your application and what is possible.

Compact industrial robotic arm with electric blue laser cleaning head mounted at wrist, positioned alongside a collaborative robot on a light grey work surface in a clean technical workspace.

Flexible Robotic Integration

AutoLASE attaches to your existing collaborative or industrial robots, or is supplied as a complete bespoke cell — whichever fits your operation.

Talk to the Engineers Behind the Machines

Tell us about your cleaning application and we will recommend the right system, whether that is ELASER, ELASER-RHZ, or AutoLASE, and provide a tailored quotation. No pressure — just expert guidance from the people who built it.

Laser cleaning head positioned above a dark metal surface with a soft blue arc of light at the contact point and a subtle plume of vaporized contaminant dispersing into the air.

Frequently Asked Questions About Laser Cleaning Machines

Common questions from buyers evaluating cleaning lasers, answered directly.

The best laser cleaner is the one that best matches your technical requirements, backed by a manufacturer who designs and builds in-house, offers genuine support, and prices competitively. Four criteria are worth evaluating carefully: technical capability, manufacturer credibility, support infrastructure, and value. On in-house manufacture, WSL is the only UK-based laser cleaning manufacturer — it designs, builds, services and improves every machine itself, rather than rebadging third-party systems. On safety innovation, WSL's ELASER-RHZ carries patented Reduced Hazard Zone (RHZ) technology — a world-first that collapses the laser hazard zone to a small area around the work, enabling cleaning in open workshops and publicly accessible spaces where conventional laser cleaning cannot operate. No other manufacturer offers this. On automation ease, WSL's AutoLASE uses machine-vision software to scan a loaded part, build a 3D map, and generate the cleaning path automatically — no programming, no path-setting, no specialist knowledge required. On pricing, WSL is the European cost leader among comparable industrial systems, achieved through in-house manufacturing efficiencies. Evaluate on those criteria and the answer becomes clear.

Conventional laser cleaning systems operate as Class IV lasers, which under HSE guidance require a designated laser hazard zone, controlled or restricted access to that zone, and trained operators before work can begin. In practice, this means sealing off areas, evacuating nearby workers, and managing access — overhead that has historically made laser cleaning disruptive in busy or shared facilities. WSL's ELASER-RHZ addresses this directly. Its patented Reduced Hazard Zone (RHZ) technology confines the laser hazard to a small area immediately around the work, eliminating the need to seal off or evacuate surrounding areas. This makes cleaning practical in open-plan workshops, mixed-use facilities, and publicly accessible spaces. WSL provides full safety and operation training for all ELASER, ELASER-RHZ, and AutoLASE operators as standard — so whichever system you use, your team is properly prepared.

If you are asking about buying a laser cleaning machine: pricing is by quotation, and WSL is the European cost leader — the most competitively priced industrial laser cleaning machines among comparable systems, achieved through in-house manufacturing efficiencies rather than any compromise on quality. If you are asking about running costs: laser cleaning has zero consumables — no blast media, no chemicals, no water. Combined with less downtime and less rework (because the beam stops at the base material, leaving the substrate intact), the total cost of ownership compares very favourably to traditional cleaning methods. The right measure when evaluating a laser cleaning system is total cost of ownership, not purchase price in isolation. Contact WSL for a tailored quotation based on your specific application and requirements.

Yes — laser cleaning works, and the mechanism is well established. Every material has a different ablation threshold: the energy level at which laser light causes it to vaporise. A correctly configured laser cleaning system is tuned to the threshold of the contaminant, not the substrate beneath it. The beam vaporises the rust, paint, oxide, or coating; the base material, with its higher threshold, is left intact. This is not experimental technology. It is in active use across aerospace (turbine blade prep, component cleaning), automotive (pre-weld surface prep, rust and paint removal), injection moulding (in-place mould cleaning), heritage restoration (stone, metal, masonry), and industrial maintenance. WSL's ELASER and AutoLASE systems are deployed across these sectors, removing contaminants including rust, mill scale, paint, powder coating, oxides, release agents, carbon, and more — from metals, stone, brick, and concrete.

A cleaning laser (or laser cleaning machine) is a machine that uses focused laser energy to remove surface contaminants — rust, paint, oxides, coatings, grease, carbon, and more — from a substrate by laser ablation, without chemicals, abrasives, water, or physical contact with the underlying material. The laser beam vaporises the contaminant layer; the base material is left intact. WSL's ELASER and ELASER-RHZ (portable, handheld systems) and AutoLASE (robotic automated cell) are examples of industrial laser cleaning machines used across manufacturing, aerospace, automotive, heritage restoration, and maintenance applications.

When correctly configured, laser cleaning causes minimal substrate loss. The principle is the ablation threshold: every material has a different energy level at which laser light causes vaporisation. A properly set up laser cleaning system is tuned to the contaminant's threshold — the beam removes the contaminant and stops at the base material, which has a higher threshold and is left intact. This makes laser cleaning considerably gentler on substrates than sandblasting or abrasive methods, which remove material indiscriminately. Both WSL's ELASER/ELASER-RHZ and AutoLASE are designed with minimal substrate loss as a core principle. The result is less rework, better surface preservation, and cleaning that is safe for precision components, heritage materials, and high-value tooling.