Aluminum is where many laser cutter buying mistakes start. A machine that cuts acrylic cleanly may fail badly on raw aluminum sheet. The problem is not only laser power. Aluminum reflects energy, spreads heat fast, and can send energy back toward the cutting head.
That can mean rough edges, damaged optics, unsafe operation, and a machine that never fits the job. This guide explains what laser cutting aluminum really needs, when fiber laser makes sense, why standard CO₂ laser cutters are not recommended for raw aluminum, and how to choose the right laser around your real production material.
Can You Laser Cut Aluminum?
Yes, aluminum can be laser cut, but it usually requires a metal-cutting laser system, correct assist gas, reflective-metal protection, and tested cutting parameters. It is not a standard job for most non-metal CO₂ laser cutters.
Aluminum behaves differently from acrylic, MDF, wood, fabric, leather, and paperboard. It reflects more laser energy and moves heat away from the cut zone very quickly. This makes piercing, edge quality, and repeatability harder to control.
The phrase laser cutting aluminum often causes confusion because buyers may see “laser cutter” and assume all laser machines can cut the same materials. They cannot.
For raw aluminum sheet, buyers usually evaluate fiber laser cutting, waterjet cutting, CNC machining, or outsourced metal fabrication. For non-metal production, a CO₂ laser cutting machine is often the better fit.
Quick Answer: Can This Laser Cut Aluminum?
Most standard CO₂ and diode laser cutters should not be selected for raw aluminum sheet cutting. Fiber laser is the common industrial choice when aluminum cutting is the daily production task.
| Machine Type | Can Cut Raw Aluminum Sheet? | Better Use |
|---|---|---|
| 40W CO₂ laser | No | Paper, light engraving, thin non-metal materials |
| 100W CO₂ laser | No | Acrylic, MDF, wood, fabric, leather, paperboard |
| 150W CO₂ laser | Not recommended | Thicker non-metal cutting and engraving |
| Diode laser | No for sheet cutting | Hobby marking, coated surface marking in limited cases |
| Fiber laser | Yes, with correct setup | Industrial metal cutting |
| Waterjet | Yes | Thick aluminum plate or heat-sensitive parts |
| CNC machining | Yes | Aluminum parts with pockets, threads, and 3D features |
A good laser supplier should narrow your options, not stretch one machine beyond its material range. That is the safest way to protect your budget, operators, and production result.
Why Is Aluminum Hard to Laser Cut?
Aluminum is hard to laser cut because it reflects laser energy, moves heat away from the kerf, and melts in a way that can leave burrs or dross. These traits make aluminum less forgiving than many other production materials.
Aluminum has high reflectivity. A shiny aluminum surface can reflect part of the beam instead of absorbing it at the cutting point. Xometry notes that CO₂ laser cutting aluminum is limited by aluminum’s high reflectivity at the 10.6 µm CO₂ wavelength.
Aluminum also conducts heat quickly. A laser cut depends on focused heat in a narrow area. Aluminum pulls that heat away, so the process needs higher power density and stable focus control.
Molten aluminum can also stick to the bottom edge. This creates dross, burrs, and extra deburring work.
Common aluminum laser cutting problems include:
- Unstable piercing at the start of the cut
- Dross on the lower edge
- Burrs around holes and slots
- Rough edge texture
- Heat marks near tight corners
- Wider kerf than expected
- Reflection risk on shiny sheets
- Extra post-processing after cutting
This is why aluminum should be treated as a metal-cutting application, not a standard CO₂ laser cutting job.
Can a CO₂ Laser Cutter Cut Aluminum?
A standard CO₂ laser cutter is not recommended for cutting raw aluminum sheet. CO₂ laser cutters are widely used for non-metal materials, but raw aluminum reflects CO₂ laser energy strongly and can create poor cutting results or machine risk.
CO₂ lasers usually work at about 10.6 µm. Raw aluminum does not absorb this wavelength well compared with many non-metal materials. That is why a CO₂ laser cutter that performs well on acrylic, MDF, fabric, leather, and labels can still fail on aluminum sheet.
Some high-power industrial CO₂ systems may cut certain aluminum sheets under controlled conditions. But that is not the same as a typical CO₂ laser cutter used for non-metal production. Xometry’s CO₂ laser guide also states that CO₂ lasers are not generally suitable for highly reflective materials such as aluminum or stainless steel.
KASU positions CO₂ laser systems for non-metal production, not raw aluminum sheet cutting. If your main project is aluminum sheet cutting, evaluate a qualified fiber laser supplier, waterjet provider, CNC shop, or metal fabrication service.
Why Fiber Laser Is Usually Better for Aluminum
Fiber laser is usually better for aluminum because its near-infrared wavelength and high power density are better suited for metal processing than standard CO₂ laser technology. Fiber laser is the common industrial route for aluminum sheet cutting.
A typical CO₂ laser wavelength is about 10.6 µm. A common fiber laser wavelength is around 1.06–1.08 µm. This shorter near-infrared wavelength is widely used for metal processing. IPG Photonics explains that even reflective metals such as aluminum and copper are predominantly processed by near-infrared lasers that overcome reflection with high power density.
Fiber laser systems for aluminum cutting also use machine components designed for metal work. These include protected cutting heads, high-pressure gas systems, focus control, and machine structures built for sheet metal cutting.
A proper aluminum fiber laser setup usually includes:
- Metal-cutting laser source
- Cutting head designed for reflective metals
- Protective optics
- Stable focus control
- High-pressure assist gas
- Strong machine frame
- Fume extraction
- Enclosed or protected cutting area
- Operator training
- Tested cutting parameters for each alloy and thickness
Even with fiber laser technology, buyers should request real sample cutting. A catalog thickness number is not enough.
Ask for proof based on:
- Your aluminum alloy
- Your actual thickness
- Your drawing file
- Your hole and slot design
- Your edge quality requirement
- Your daily output target
Which Aluminum Thicknesses Are Usually Laser Cut?
Thin aluminum sheet is easier to laser cut than thick aluminum plate. As aluminum gets thicker, the process needs more power, more stable gas flow, slower cutting speed, and stronger control over burrs and heat.
Thickness also affects cost. A machine may cut a maximum thickness in a test, but that does not mean it can cut that thickness profitably every day. Buyers should separate “possible” from “stable production.”
| Aluminum Thickness | Cutting Difficulty | Buyer Notes |
|---|---|---|
| Thin sheet under 1 mm | Easier, but may warp or move | Workholding, flatness, and heat control matter |
| 1–3 mm aluminum | Common sheet metal range | Good for panels, covers, signs, and light brackets |
| 3–6 mm aluminum | More process control needed | Check edge quality, dross, gas use, and cutting speed |
| 6–12 mm aluminum | Higher difficulty | Requires higher power, stable gas flow, and real sample testing |
| Over 12 mm aluminum | Special evaluation needed | Waterjet, CNC machining, or outsourcing may be better |
Thickness decisions should include the full production route. A clean cut is only one part of the job. Bending, welding, anodizing, powder coating, assembly, and packaging can all change the best process choice.
Which Aluminum Alloys Are Common in Laser Cutting?
Common aluminum alloys for laser cutting include 5052, 6061, 3003, 5083, and 5754, but each grade behaves differently. Alloy choice affects cut quality, bending, corrosion resistance, strength, and post-processing.
Some buyers only ask whether “aluminum” can be laser cut. That is too broad. A supplier needs the exact grade and thickness before giving useful advice.
| Aluminum Alloy | Common Use | Buyer Note |
|---|---|---|
| 5052 | Sheet metal parts, covers, enclosures, marine-related parts | Good corrosion resistance and formability |
| 6061 | Structural parts, brackets, machined components | Strong, but bending behavior needs checking |
| 3003 | General sheet parts, covers, decorative panels | Good formability for light-duty parts |
| 5083 | Marine, transport, structural sheet applications | Often selected for strength and corrosion resistance |
| 5754 | Automotive and formed sheet parts | Useful where forming and corrosion resistance matter |
| Anodized aluminum | Nameplates, panels, decorative parts | Often marked, not necessarily cut by CO₂ laser |
| Coated aluminum | Signs, panels, tags | Coating behavior must be tested |
If the part needs bending after cutting, test the full route. Cutting may be stable, but bending may crack if the alloy and temper do not match the design.
What About Anodized Aluminum, Coated Aluminum, and Aluminum Foil?
Anodized, coated, and foil aluminum create different laser questions. They should not be grouped together with raw aluminum sheet cutting.
Anodized aluminum may be marked by some laser systems, depending on the surface, power, and required contrast. The laser changes or removes the surface layer. This is marking, not full-thickness cutting.
Coated aluminum can also confuse buyers. A CO₂ laser may affect paint, coating, or marking spray on the surface. But marking a coating does not mean the machine can cut through the aluminum base.
Aluminum foil looks thin, but thin does not always mean easy. Foil can reflect energy, wrinkle, move during cutting, and create workholding problems. Coatings, adhesives, backing materials, and fumes can also affect safety.
Do not treat a black mark on coated aluminum as proof that the machine can cut aluminum or mark bare aluminum reliably.
| Material Type | What May Be Possible | What Buyers Should Not Assume |
|---|---|---|
| Raw aluminum sheet | Fiber laser, waterjet, CNC, or outsourced fabrication | Standard CO₂ laser cutting |
| Anodized aluminum | Surface marking in some cases | Full sheet cutting |
| Coated aluminum | Coating removal or surface marking | Cutting the metal base |
| Aluminum foil | Special testing may be needed | Easy cutting just because it is thin |
| Aluminum composite panel | Depends on core material and coating | Safe cutting without checking fumes and fire risk |
If the job must cut through aluminum, treat it as metal cutting. If the job only needs surface marking, define the surface material, coating, contrast requirement, and durability target before choosing a machine.
CO₂ vs Fiber vs Waterjet vs CNC for Aluminum
Aluminum cutting is not only a laser question. The best process depends on thickness, tolerance, edge finish, quantity, and post-processing needs.
| Process | Suitable For | Not Suitable For | Typical Buyer | Key Risk |
|---|---|---|---|---|
| CO₂ laser cutter | Acrylic, MDF, wood, fabric, leather, paperboard, labels, packaging | Raw aluminum sheet cutting | Non-metal product factories, signage shops, textile OEMs, packaging suppliers | Poor absorption and reflection risk on raw aluminum |
| Fiber laser cutter | Aluminum sheet, stainless steel, mild steel, brass, copper under proper setup | Some non-metal materials | Sheet metal factories, metal part OEMs, job shops | Burrs, dross, reflection, gas cost, high investment |
| Waterjet cutting | Thick aluminum plate, heat-sensitive parts, clean cold cutting | Very high-speed sheet production | Plate cutting shops, prototype suppliers, thick-part fabricators | Slower speed, abrasive cost, wet process |
| CNC machining | Aluminum parts with pockets, threads, 3D features, tight local tolerance | Large flat sheet nesting with simple profiles | Precision part suppliers, machinery part OEMs | Higher machining time and fixture cost |
| Outsourced fabrication | Small batches, test parts, one-time aluminum jobs | High-volume daily production needing in-house control | Startups, small OEMs, buyers testing demand | Less control over lead time and process details |
TRUMPF notes that burrs in mild steel and aluminum can be reduced by combining high laser power with a nitrogen and oxygen gas mixture, depending on material type, alloy, and quality. This shows why process setup matters as much as the machine label.
If aluminum is your core production material, do not force a non-metal CO₂ laser cutter into the job. If non-metal materials are your core production work, a CO₂ laser system may deliver better value.
What Affects Aluminum Laser Cutting Quality?
Aluminum laser cutting quality depends on alloy, thickness, gas, surface condition, machine setup, and part geometry. A powerful machine can still produce poor parts if these factors are not controlled.
Assist Gas
Assist gas pushes molten metal out of the kerf. Nitrogen is widely used when clean edges and reduced oxidation are required. Atlas Copco explains that nitrogen helps prevent oxygen from reacting with hot metal during laser cutting.
Gas pressure, purity, nozzle condition, and supply stability all affect aluminum cutting. Weak gas flow can leave dross on the lower edge.
Surface Condition
Bright or polished aluminum can be harder to process than matte sheet. Oil, film, scratches, coatings, and poor flatness can also affect cutting consistency.
Part Geometry
Small holes, tight slots, narrow bridges, and sharp internal corners are harder than simple outside profiles. The buyer should test real part drawings, not only simple sample strips.
Machine Stability
Motion accuracy, acceleration, lens condition, focus control, and nozzle alignment affect edge quality. A stable machine produces more predictable parts across the full sheet.
Design Tips for Laser Cut Aluminum Parts
Good aluminum laser cutting starts with realistic part design. A perfect machine cannot fix every drawing problem.
Avoid very small holes when possible. As a rough rule, holes close to or smaller than the sheet thickness are harder to cut cleanly. Ask the supplier to confirm hole limits for your alloy and thickness.
Use lead-ins and lead-outs when appearance matters. This helps move the piercing mark away from the visible edge.
Plan for kerf and tolerance. Laser cutting removes material along the cut path, so the final part size depends on kerf compensation and machine accuracy.
Avoid very narrow tabs on thin aluminum. They can warp, vibrate, or overheat during cutting.
Design with post-processing in mind. If the part needs bending, welding, brushing, anodizing, or powder coating, confirm the full process before mass production.
A good aluminum cutting file should include:
- DXF, DWG, or STEP drawing
- Material grade
- Material thickness
- Quantity
- Tolerance requirement
- Surface finish requirement
- Bend lines if needed
- Edge quality requirement
- Notes for visible surfaces
- Assembly or downstream process notes
Key Risks When Using the Wrong Laser for Aluminum
Using the wrong laser cutter for aluminum creates more than poor edges. It can create machine, safety, and cost problems.
| Risk | What Happens | Why It Matters |
|---|---|---|
| Back reflection | Laser energy reflects back toward the cutting head | May damage optics or reduce process stability |
| Poor absorption | The material does not absorb enough laser energy | Cutting becomes weak, slow, or incomplete |
| Unstable piercing | The laser struggles to start the cut cleanly | Holes and lead-in points become rough |
| Dross and burrs | Molten aluminum sticks to the lower edge | Adds deburring cost and slows production |
| Heat distortion | Thin parts warp or move during cutting | Reduces dimensional consistency |
| Smoke and fumes | Coated or treated materials release fumes | Requires extraction and material safety review |
| Fire risk | Backing, coatings, or dust may ignite | Requires safe setup and trained operation |
| Wrong investment | Buyer purchases a machine outside its material range | Budget is locked into the wrong process |
Industrial laser systems also require safety control. OSHA states that training is required for Class IIIB and Class IV laser installations. This is another reason buyers should not use a machine outside its intended material range.
Buyer Scenarios: Which Direction Makes Sense?
The right machine depends on the real production mix, not one isolated material. These common scenarios show how buyers should think.
Scenario 1: Signage Distributor Cutting Acrylic and Occasional Aluminum Signs
A signage distributor may cut acrylic letters every day and only need aluminum signs sometimes. In this case, a CO₂ laser cutter may be right for acrylic, but not for raw aluminum sheet.
Better direction:
- Use CO₂ laser for acrylic signs and display parts
- Buy pre-cut aluminum blanks or outsource aluminum cutting
- Do not buy a CO₂ laser cutter because of aluminum
- Confirm whether aluminum work is cutting, marking, or only mounting
KASU can support acrylic and display-material workflows with an acrylic laser cutter or flatbed CO₂ laser system.
Scenario 2: Packaging Supplier Cutting Paperboard, Labels, PET, and Foil-Laminated Material
A packaging supplier may work with paperboard, labels, PET, coated films, and foil-laminated materials. This is not the same as cutting aluminum sheet.
Better direction:
- CO₂ laser may work well for paperboard, labels, and some films
- Foil-laminated materials need testing for reflection, fumes, and edge quality
- CCD vision may be useful for printed contours
- Conveyor feeding may be useful for roll materials
For this workflow, a label laser cutter, CCD vision laser cutter, or conveyor laser cutter may be more relevant than any aluminum cutting machine.
Scenario 3: Sheet Metal OEM Cutting Aluminum Panels Every Day
A sheet metal OEM that cuts aluminum panels daily should not choose a standard CO₂ laser cutter. This is a metal production job.
Better direction:
- Evaluate fiber laser cutting
- Test the real aluminum alloy and thickness
- Check edge quality, dross, gas cost, and speed
- Compare waterjet or CNC for thick or high-tolerance parts
- Build an acceptance test before machine purchase
KASU is not the right supplier for raw aluminum sheet cutting. A qualified fiber laser or metal fabrication supplier is the correct path.
When a CO₂ Laser Cutter Is the Better Choice
A CO₂ laser cutter is the better choice when your real production materials are non-metal materials such as acrylic, MDF, wood, fabric, leather, paperboard, labels, stickers, packaging materials, and printed sheets.
This is where CO₂ laser technology delivers strong value. It can cut many non-metal materials without physical dies, which helps factories reduce tooling cost and speed up sample changes.
Common CO₂ laser cutting applications include:
- Acrylic signs and display parts
- MDF panels and wood components
- Fabric roll cutting
- Printed textile contour cutting
- Label and sticker cutting
- Leather patches and PU accessories
- Paperboard packaging samples
- Felt, foam, rubber, and gasket-style parts
- Advertising and decorative materials
For MDF and wood components, a MDF laser cutter can help buyers handle panels, models, packaging parts, and decorative cutting. For fabric rolls, a fabric laser cutter or conveyor system can support continuous production.
For printed materials, a camera system can follow registration marks or printed contours. A CCD vision system helps factories cut printed sheets and labels without traditional dies.
Which Laser Technology Fits Your Material?
The best machine is the one that fits your daily material list. Do not buy a laser cutter based on one rare material you may cut once.
| Material or Application | Better Technology Direction | Buyer Note |
|---|---|---|
| Raw aluminum sheet | Fiber laser, waterjet, CNC, or outsourced metal fabrication | Standard CO₂ laser cutters are not recommended |
| Stainless steel | Fiber laser | Common sheet metal cutting material |
| Mild steel | Fiber laser | Common for industrial fabrication |
| Acrylic | CO₂ laser cutter | Good edge quality and common signage use |
| MDF and plywood | CO₂ laser cutter | Common for wood products, models, packaging, and panels |
| Fabric rolls | CO₂ conveyor laser cutter | Suitable for continuous textile cutting |
| Printed labels | CCD vision CO₂ laser cutter | Camera recognition helps follow printed contours |
| Leather and PU | CO₂ laser cutter | Common for bags, footwear, patches, and accessories |
| Paperboard packaging | CO₂ laser cutter | Useful for samples and short-run dieless cutting |
| Coated aluminum marking | Depends on coating and marking method | Marking is not the same as cutting |
If your factory needs flat sheet cutting, a flatbed laser cutter may fit acrylic, MDF, paperboard, leather, rubber, and many other non-metal sheet materials. If your application needs better operator protection and fume control, an enclosed laser cutter may be the better structure.
When Laser Cutting Aluminum Is Not the Best Choice
Laser cutting aluminum can work well in the right setting, but it is not always the best process.
Very thick aluminum plate may be better for waterjet cutting or CNC machining. Waterjet cutting avoids a heat-affected zone. CNC machining is better when the part needs pockets, threads, countersinks, or tight 3D features.
Small aluminum batches may be better outsourced. If you only need a few brackets, covers, or panels, a local metal fabrication service may cost less than buying a machine.
Cosmetic aluminum parts may still need secondary finishing. Brushing, deburring, anodizing, powder coating, or edge polishing can add time and cost.
Aluminum laser cutting may not be the best choice when the part needs:
- Very thick aluminum plate
- Deep 3D geometry
- Threads or machined pockets
- High cosmetic edges without finishing
- Very small holes near material thickness limits
- One-time low-volume production
- Tight tolerance on heat-sensitive shapes
The better question is not “Can laser cutting work?” The better question is: Can this process produce stable parts at the right cost?
Practical Buyer Checklist Before Choosing a Laser Cutter
Before choosing any laser cutter, list the materials you cut every week. Your main material decides your machine direction.
Use this checklist before contacting suppliers:
- Main material type
- Secondary material types
- Material thickness range
- Sheet size or roll width
- Daily output target
- Cutting pattern complexity
- Edge quality requirement
- Tolerance requirement
- Manual loading or automatic feeding
- Camera recognition need
- Fume extraction requirement
- Factory space
- Power supply
- Operator skill level
- Spare parts requirement
- Installation and training plan
- Shipping method
- Customs documents
- Lead time expectation
For aluminum cutting, ask a qualified fiber laser or metal fabrication supplier for real sample cutting. Request edge photos, cutting speed, gas type, parameter notes, and measured parts.
For non-metal cutting, send KASU your material, thickness, working size, pattern file, output target, and destination country. KASU can help distributors, OEM manufacturers, and system integrators select suitable CO₂ laser cutting systems for non-metal production.
FAQ
Can you laser cut aluminum?
Yes, aluminum can be laser cut, but it usually needs an industrial metal-cutting laser system, proper assist gas, reflective-metal protection, and tested parameters. A standard CO₂ laser cutter for non-metal materials is not recommended for raw aluminum sheet cutting.
Can a CO₂ laser cut aluminum?
A standard CO₂ laser cutter is not a good choice for raw aluminum sheet. Aluminum reflects CO₂ laser energy strongly, which can cause weak cutting, poor edges, and machine risk. Some high-power industrial CO₂ systems may cut certain aluminum sheets, but that is not typical non-metal CO₂ laser cutting.
Can a 100W CO₂ laser cut aluminum?
A 100W CO₂ laser should not be selected for cutting raw aluminum sheet. That power range is commonly used for non-metal materials such as acrylic, wood, MDF, fabric, leather, paperboard, and labels.
Can a 150W CO₂ laser cut aluminum?
A 150W CO₂ laser is still not recommended for raw aluminum sheet cutting. Higher wattage does not solve the main problem: aluminum reflects CO₂ laser energy and needs a metal-cutting process.
What laser is best for cutting aluminum?
Fiber laser is the common industrial choice for aluminum sheet cutting. Buyers should still confirm alloy, thickness, edge quality, gas type, cutting speed, and sample results before choosing a system.
Should I use CO₂ or fiber laser for aluminum?
Use fiber laser for raw aluminum sheet cutting. Use CO₂ laser for non-metal materials such as acrylic, MDF, wood, fabric, leather, labels, and packaging. Do not choose CO₂ laser for raw aluminum sheet cutting.
Can KASU machines cut aluminum?
KASU focuses on CO₂ laser cutting systems for non-metal materials. KASU does not recommend its CO₂ laser cutters for raw aluminum sheet cutting projects.
Can a diode laser cut aluminum?
Most diode laser cutters are not suitable for cutting raw aluminum sheet. Some diode systems may mark coated materials, but marking is different from full-thickness aluminum cutting.
Can you laser cut anodized aluminum?
Anodized aluminum may be laser marked in some cases, depending on the laser and surface. But marking the anodized layer is not the same as cutting through the aluminum sheet.
Can you laser cut aluminum foil?
Aluminum foil needs testing. It is thin, but it can reflect energy, wrinkle, move during cutting, and create workholding or fume issues. Do not assume it is easy just because it is thin.
Does aluminum damage a laser cutter?
Aluminum can create reflection risk if the machine is not designed for reflective metal cutting. The main concern is back reflection toward the cutting head and optics.
What gas is used for laser cutting aluminum?
Nitrogen is commonly used when clean edges and reduced oxidation are required. Gas pressure, purity, nozzle alignment, and supply stability all affect edge quality.
Is laser cutting aluminum expensive?
Laser cutting aluminum can be expensive when the sheet is thick, the edge requirement is strict, gas use is high, or secondary finishing is needed. For small batches, outsourced fabrication may cost less than buying a machine.
What is the best way to cut aluminum sheet?
The best way depends on thickness, quantity, tolerance, and finish. Fiber laser is common for sheet metal production. Waterjet may suit thick or heat-sensitive parts. CNC machining suits pockets, threads, and 3D features.
What materials are better suited for KASU CO₂ laser cutters?
KASU CO₂ laser cutters are better suited for acrylic, MDF, plywood, wood, fabric, leather, PU, labels, stickers, paperboard, packaging materials, and printed roll or sheet materials.
Choose the Laser Around Your Real Material
Laser cutting aluminum is possible, but it belongs mainly in the metal-cutting category. It usually needs fiber laser technology, proper assist gas, reflective-metal protection, and real sample validation. A standard CO₂ laser cutter should not be selected for raw aluminum sheet cutting.
The safest buying rule is simple: choose the laser around your daily production material, not around one rare material. If aluminum sheet is your core product, evaluate fiber laser, waterjet, CNC machining, or outsourced metal fabrication. If your production depends on acrylic, MDF, wood, fabric, leather, labels, packaging, or printed sheets, CO₂ laser cutting may be the better investment.
Not Cutting Aluminum? Build the Right CO₂ Laser Workflow
If you confirm your main material is not raw aluminum, KASU can help you build the right CO₂ laser cutting workflow. The goal is not only choosing laser power. The goal is choosing the right structure, working area, feeding method, camera system, safety design, and production layout.
Send KASU your material list, thickness range, sheet size or roll width, cutting pattern, output target, and destination country. KASU helps distributors, OEM manufacturers, and system integrators select CO₂ laser systems for acrylic, MDF, wood, fabric, leather, labels, packaging, and printed materials.