This CO₂ laser power guide helps European buyers choose between 45W, 60W, 80W, 90W, 100W, 130W, 150W and specialised 260W configurations. The right wattage is the one that produces your normal materials, at your required finish and weekly volume, on a bed that fits your stock—while leaving a sensible allowance for source replacement, VAT, delivery and local service.
For compact mixed work, 45W–60W glass can be a practical starting range. A 60W–80W glass source gives many European sign, gift and craft businesses more cutting flexibility. Around 90W–100W, the decision increasingly concerns repeat cutting, thicker compatible sheet and larger nests. The 130W–150W range is oriented towards cutting-led production on larger NOVA Elite platforms. A 30W or 60W metal RF source is a different proposition: it is normally selected for fine, rapid engraving and controlled low-power work, not simply as a lower-powered glass tube. Dual-source Super NOVA systems make sense when both cutting and premium engraving are recurring revenue streams.
CO₂ laser wattage is source output—not the performance of the whole production system
Wattage describes the rated optical output of the laser source. It does not, on its own, tell you the finished-job speed, engraving detail, usable bed area, low-power control or consistency across a large sheet.
Useful energy at the material is affected by source condition, optics, alignment, lens, focus, speed, acceleration, air assist, extraction, material construction and the geometry of the file. A higher-wattage machine with contaminated optics or warped stock can perform less reliably than a correctly maintained lower-powered system processing a qualified material.
Optical source wattage is not electrical consumption. A 100W CO₂ source does not mean that the complete laser draws only 100 watts from the mains. Cooling, controls, motion, exhaust and air systems also consume electricity, and the correct supply must be confirmed for the exact machine and installation country.
How much CO₂ laser power do you need? Start with six production inputs
Name the exact stock
Cast acrylic, extruded acrylic, birch plywood, poplar plywood, MDF, leather and textiles behave differently. Supplier and batch can matter as much as the category.
Design for routine work
Choose around the thickness that creates most of the workload—not the thickest sample you might attempt once.
Define a sellable result
A separated part is not automatically acceptable. Edge gloss, charring, kerf, residue, detail and finishing time belong in the decision.
Count accepted parts
Measure complete cycles and accepted output per hour. Straight-line cutting speed alone can exaggerate the commercial gain.
Fit European stock
Compare the working area with sheet sizes you can buy repeatedly, the number of parts per nest and any pass-through requirement.
Price the complete route
Include VAT treatment, delivery, installation, training, extraction, electrical work, source reserve and local after-sales scope.
CO₂ laser power guide by real European workload
The ranges below are decision guidance, not universal thickness promises. The exact material, lens, focus, air assist, extraction, speed, acceptable edge and machine configuration still determine the result.
| Source range | Where it commonly fits | What wattage alone cannot answer |
|---|---|---|
| 30W metal RF | Fine detail, small text, photographs and engraving-led personalisation on compatible materials. | It is not a replacement for 100W–150W glass when cutting throughput is the main constraint. |
| 45W–60W glass | Compact studios, prototypes, personalised products, lighter cutting and mixed engraving/cutting. | Whether the 500 × 300 mm format or batch capacity will suit the growing product range. |
| 60W–80W glass | Balanced production of signs, awards, wood products, acrylic items and repeat small-business orders. | Whether normal thicker stock can meet the required edge quality and cycle time. |
| 60W metal RF | Faster engraving, controlled low-power output and high-detail raster work, with some cutting capability. | Equal rated wattage does not make RF and glass equivalent in process behaviour or ownership cost. |
| 90W–100W glass | Growing mixed production where non-metal cutting, larger nests and thicker-stock tests are routine. | Whether a larger bed creates more value than a small increase in power. |
| 130W–150W glass | Cutting-led workshops, larger sheet work, long contours and higher daily utilisation. | Whether fine engraving or a dual-source workflow is more valuable to the product mix. |
| 260W glass + 60W RF | Specialised high-output acrylic cutting combined with premium engraving in one large platform. | It is not a general first-machine recommendation; the workload must justify the specialised configuration. |
What more power changes: AEON factory acrylic reference data
Our July 2026 factory reference records “best speed” values at 95% power for several source wattages. It is useful for seeing the direction of change, but it does not document the exact acrylic grade, machine, lens, focus position or edge-acceptance method. Treat it as comparative evidence and a test starting point—not a guaranteed setting.
| Acrylic thickness | 60W | 100W | 130W | 150W |
|---|---|---|---|---|
| 3 mm | 15 mm/s | 25 mm/s | 30 mm/s | 35 mm/s |
| 5 mm | 7 mm/s | 10 mm/s | 12 mm/s | 15 mm/s |
| 10 mm | 2 mm/s | 4 mm/s | 5 mm/s | 7 mm/s |
| 20 mm | 0.3 mm/s | 0.7 mm/s | 1 mm/s | 1.5 mm/s |
At the documented 3 mm condition, the 150W reference is more than twice the 60W value; at 10 mm, the difference is larger. The gain is not a universal linear multiplier. Short contours, corners and dense nests may be limited by acceleration, direction changes and heat accumulation rather than maximum straight-line cutting speed.
For the complete 25W–200W dataset, cast-versus-extruded discussion and practical troubleshooting, use our European CO₂ laser acrylic settings guide.
Why material changes the correct laser wattage
Acrylic is comparatively useful for a power comparison because it is manufactured sheet. Wood products are less predictable. Plywood adds veneers, glue lines and possible voids; MDF combines fibre and resin; natural timber varies with density, grain and moisture. More watts cannot remove an internal plywood gap, flatten a bowed sheet or identify an unknown coating.
| Work | Where more power may help | Where it may not |
|---|---|---|
| Acrylic cutting | Higher practical speed or a wider test range for thicker sheet. | Excess heat can widen the kerf, soften detail or change the desired edge. |
| Plywood and wood | Shorter cutting time and more scope for thicker compatible stock. | Adhesive, voids, density, moisture, flatness and smoke residue can dominate. |
| Paper, fabric, thin leather | Maximum power is often not the main limitation. | Low-power control, motion and heat management can matter more. |
| Fine engraving | Sufficient energy is still required at production speed. | Pulse behaviour, spot, focus, artwork and acceleration may matter more than rated watts. |
| Coated metal marking | A CO₂ laser may remove or alter a compatible coating under tested conditions. | Increasing conventional CO₂ wattage does not turn the machine into a general bare-sheet-metal cutter. |
Identify unknown plastics, laminates and coatings before laser processing and verify the supplier's technical or safety documentation. Never process PVC or vinyl. More power does not make an unsuitable material safe.
If wood products are important to your workload, our European laser plywood guide explains why flatness, adhesive, core construction and batch consistency belong in the machine test.
Why 60W glass and 60W RF are different buying decisions
Glass and metal RF sources generate CO₂ laser energy through different excitation architectures. Glass sources are commonly selected for accessible cutting power. RF sources are commonly selected for fast modulation, fine engraving, controlled low-power output and longer published source life.
Our current European guidance positions 30W RF for many non-metal materials, including wood, leather and paper, while 60W RF is intended for faster engraving or deeper cutting. Current guidance positions 40W–60W glass for lighter engraving and cutting, approximately 75W–90W for medium-intensity work, and 100W+ glass for deeper or faster processing of thicker compatible materials.
This is why an RF source with a smaller wattage number can still be the better production tool for an engraving-led catalogue. Compare the complete machine—motion, acceleration, cooling, work area, lens, workflow and source cost—not only the wattage label. See our European laser tube selection guide.
Current European AEON power configurations
As checked on 10 September 2026, the European catalogue contains the configurations below. Availability and specifications can change; verify the exact build in the written quotation.
| European family | Working area | Current source choices | Best question to ask |
|---|---|---|---|
| MIRA5 S | 500 × 300 mm | 45W or 60W glass; 30W or 60W RF | Does the compact format fit every normal product and rotary workflow? |
| MIRA7 S | 700 × 450 mm | 60W or 80W glass; 30W or 60W RF | Is the work cutting-led, engraving-led or genuinely balanced? |
| MIRA9 S | 900 × 600 mm | 80W or 100W glass; 30W or 60W RF | Does the larger MIRA nest remove the real bottleneck? |
| NOVA10 Elite | 1000 × 700 mm | 90W or 100W glass | Is the step into a floor-standing production platform justified by stock and batch size? |
| NOVA14 Elite | 1400 × 900 mm | 100W or 130W glass | Will 130W shorten routine cutting enough to release useful capacity? |
| NOVA16 Elite | 1600 × 1000 mm | 130W or 150W glass | Does the larger format improve sheet yield and reduce loading cycles? |
| Super NOVA | 1000 × 700 to 1600 × 1000 mm | Glass + 30W/60W RF; NOVA16 Super also listed in 260W glass + 60W RF | Are both source types likely to earn productive hours every week? |
Do not transfer a configuration from the U.S. range or a legacy AEON generation into a European buying decision. Use the current European machine range and confirm the exact source, included equipment, lead time and support route for your country.
European CO₂ laser price examples by wattage and platform
The following online starting prices were displayed on 10 September 2026. They are indicative, exclude VAT, shipping and local service costs, and are not final quotations. Final pricing, invoicing, delivery and after-sales service are handled through the authorised distributor or representative serving the buyer's region.
| Current European example | Source | Displayed starting price | What the comparison shows |
|---|---|---|---|
| MIRA5 S 45W | 45W glass | €5,450 | Compact glass-source entry point. |
| MIRA5 S 60W | 60W glass | €5,640 | Only €190 above the displayed 45W price at this dated snapshot; verify the live quote. |
| MIRA5 S RF30W | 30W metal RF | €8,800 | The premium buys a different engraving/source proposition, not merely fewer watts. |
| MIRA7 S 80W | 80W glass | €5,967 | A promotional displayed price can disrupt a simple “more watts cost more” comparison. |
| MIRA9 S 100W | 100W glass | €8,900 | Power and a 900 × 600 mm work area change together. |
| NOVA10 Elite 90W | 90W glass | €10,500 | The production-platform change can matter more than 10W. |
| NOVA10 Elite 100W | 100W glass | €10,950 | A €450 dated difference within the same platform invites a measured cycle-time test. |
| NOVA14 Elite 130W | 130W glass | €12,100 | Large bed plus cutting power for batch-oriented work. |
| NOVA16 Elite 150W | 150W glass | €12,800 | The 1600 × 1000 mm format should be valued through nesting and sheet yield. |
| NOVA16 Super 150W + RF60W | 150W glass + 60W RF | €19,000 | Two specialised CO₂ sources require two recurring workloads. |
| NOVA16 Super 260W + RF60W | 260W glass + 60W RF | €27,500 | A specialised throughput decision, not a default upgrade path. |
These examples reveal why wattage should never be priced in isolation. Within the same platform, the displayed difference between two glass-source powers may be modest. Across platforms, a higher price may also buy a larger work area, different motion, cooling and production architecture. Promotional prices can even reverse the expected order temporarily.
Use additional contribution—not revenue—in the calculation. Measure the same material and production file, count accepted parts, and include loading and finishing. If the stronger configuration saves time but the workshop has no additional orders, labour benefit or quality gain, the extra capability may not produce a return.
Source life and replacement cost belong in the wattage decision
Our current European FAQ lists an approximate life of 5,000–8,000 hours for glass CO₂ tubes and approximately 20,000 hours for metal RF sources under normal conditions. Actual life varies with usage, duty cycle and maintenance. These figures are planning references, not expiry dates or guarantees.
Unlike the current U.S. parts store, the European site does not publish a complete source-only replacement-price table for this comparison. Importing dollar prices would give European buyers a false sense of precision. Ask the authorised local distributor for a written, model- and serial-specific source quotation.
- Exact source make, model and rated power
- Compatibility with the machine and generation
- Source-only price and applicable VAT
- Shipping, exchange or return conditions
- Removal, installation and alignment scope
- Expected lead time and downtime route
- Warranty applying to the replacement
- Whether local service is included or separate
A glass source may have a lower acquisition and replacement threshold, while RF can offer a longer published service-life reference and more productive engraving behaviour. Ownership value depends on the jobs each source enables, not only on replacement price.
When working area matters more than another 10 or 20 watts
A stronger source cannot fit a larger sign or improve sheet yield when the bed is already the limiting factor. It cannot remove the labour of splitting files, repositioning oversize work or running several small nests when a larger format could complete the batch in fewer cycles.
Compare supplier sheet dimensions, the normal part envelope, pieces per nest, pass-through use, loading time, floor space and access into the building. The difference between a MIRA9 S and NOVA10 Elite is not simply 100W versus 90W or 100W; it is a shift from a 900 × 600 mm integrated format to a 1000 × 700 mm floor-standing production platform.
European buying context: compare the complete installed proposition
The online machine price is only one part of a European purchase. VAT treatment depends on the buyer and jurisdiction. Delivery conditions, access, installation, operator training, extraction, electrical preparation and after-sales arrangements can vary by country and distributor.
Ask for the exact scope in writing. A quotation should identify the machine, source, accessories, software, delivery method, installation or training where applicable, warranty route, service contact and exclusions. Our European enquiry platform routes buyers to the authorised distributor or representative serving their region so that the final proposal reflects local conditions.
Do not compare one supplier's bare machine price with another supplier's installed and supported package. Compare the same scope, the same tax basis and the same production test.
How to compare CO₂ laser wattage before buying
A meaningful demonstration uses your material and a representative production file. A small square cut from ideal stock does not reveal the economics of a full nest, detailed corners, raster fills or repeat batches.
- Bring the real stock. Record supplier, product, composition, measured thickness, finish and batch.
- Use a real production file. Include long contours, small holes, corners, raster areas and narrow details.
- Define acceptance before the test. Decide what edge, detail, kerf, colour, residue and cleanup result passes.
- Record the complete setup. Machine, source, lens, focus, speed, power, passes, air, extraction and material identity all matter.
- Time the entire cycle. Include loading, positioning, processing, unloading and required finishing.
- Repeat the preferred result. For larger beds, test more than one position and more than one sheet.
- Compare cost per accepted part. Use the final local quotation and realistic productive hours.
“Please test this exact material and file on the configurations I am comparing. Record the source, lens, focus, power, speed, passes, air, full cycle time and cleanup. Please photograph the face, edge and reverse, and quote the complete delivered and supported configuration for my country.”
Real European workflows are better evidence than a wattage headline
Creator and customer examples can show how a machine fits a real workshop, but they are not universal settings tests. The Swedish Maker offers a European creator perspective on working with a MIRA-format CO₂ laser. Our current European customer feedback also includes Deividas Zubrickas, who reports using two MIRA 7 machines and one MIRA 9.
These examples are useful for workflow and ownership context. They do not replace a controlled test of your material, file, acceptance standard and required weekly volume.
Common CO₂ laser power mistakes
- Buying for the thickest one-off sample instead of normal production.
- Assuming twice the watts means twice the finished-job speed.
- Comparing RF and glass only by their rated wattage.
- Ignoring sheet format, nesting and loading time.
- Using maximum travel speed as promised production speed.
- Treating a copied setting as proof of capability.
- Comparing prices with different VAT and service scope.
- Ignoring source replacement route and downtime.
- Assuming extra power makes an unknown material safe.
- Transferring U.S. or legacy specifications into an EU decision.
Frequently asked questions about CO₂ laser power
What wattage CO₂ laser is best for a small business in Europe?
There is no universal best wattage. Many compact businesses can work productively with 45W–80W glass if the products fit the bed and cutting times are acceptable. A 90W–100W glass configuration becomes more relevant when larger nests, thicker compatible stock or cutting-led batches recur. Engraving-led businesses should also compare 30W–60W RF rather than assuming higher glass wattage is automatically better.
Is an 80W CO₂ laser better than a 60W laser?
Only when the extra cutting capability or speed creates value in the real workload. If both machines complete the normal products within the required cycle time, bed size, source type, support scope or total installed cost may matter more. Test the same file and material and count accepted parts per hour.
Is a 100W CO₂ laser enough for professional use?
Yes, 100W can support serious professional non-metal cutting and mixed production, but professional suitability is not determined by power alone. Work area, motion, optics, air, extraction, cooling, serviceability, support and the required production volume must also fit.
How thick can a 100W CO₂ laser cut?
No responsible universal thickness can be promised from wattage alone. Material composition, actual thickness, lens, focus, optics, air assist, extraction, edge requirement and number of passes all affect the result. Test the exact stock before purchase.
Does higher wattage improve engraving speed?
Not automatically. Raster productivity also depends on modulation, motion, acceleration, artwork, resolution and how much energy the material accepts without losing detail. A lower-rated RF source can be the stronger choice for some engraving-led workflows.
Is 60W RF the same as 60W glass?
No. Equal rated wattage does not make the source architectures equivalent. Glass is commonly chosen for accessible cutting power, while RF is commonly chosen for fast modulation, fine engraving and controlled low-power output. Compare the entire configuration and ownership route.
Are European AEON prices shown with VAT?
No. The displayed European starting prices cited here exclude VAT, shipping and local service costs. They are indicative. Final pricing, invoicing, delivery and after-sales service are provided through the authorised distributor or representative serving the region.
Should I buy the highest wattage I can afford?
Buy the configuration that removes a measured production constraint. If normal jobs already run within the required time, a larger bed, RF engraving source, extraction, inventory, workflow improvement or marketing investment may create more return than unused cutting power.
Can a 150W CO₂ laser cut metal?
Do not treat a conventional 150W CO₂ laser as a general sheet-metal cutting system. It can mark compatible coatings and treated surfaces under tested conditions, but direct bare-metal work requires the correct wavelength and machine architecture. Compare CO₂, fibre and other processes for the exact application.
Choose the workload first. Then choose the power.
Send us the material, thickness, sheet size, file and expected weekly volume. We can route the enquiry to the appropriate European partner and help compare the right source and machine configuration around a production test—not a generic wattage promise.
Explore current EU machines Discuss your European configurationEditorial note: This article was prepared with AI-assisted research and drafting, then reviewed and edited for AEON Laser Europe. The publisher remains responsible for the final content. Factory acrylic data is reproduced from a July 2026 reference sheet whose exact acrylic grade, machine, lens, focus and acceptance method were not documented. European configurations and displayed prices were checked on 10 September 2026 and can change. Always verify the current product page, exact machine/source compatibility, written local quotation, installation requirements and material safety information.