OMTech Announces 2026 CO2 Laser Cutting Machine Materials and Speed Guide for Small Businesses

ANAHEIM, CA, August 25th, 2026, FinanceWire

OMTech, a laser equipment company specializing in CO2 laser engravers and cutters, fiber laser marking machines, and MOPA fiber laser systems, today announced its 2026 guide to CO2 laser cutting materials, production speeds, and power requirements, giving small businesses and makers practical information for selecting and operating CO2 laser equipment.

As demand for in-house manufacturing, personalization, signage, fabrication, and product development continues to grow, businesses evaluating a CO2 laser cutting machine often focus on advertised maximum speed and laser wattage. OMTech’s new guide emphasizes that real-world cutting performance depends on the material, thickness, optical setup, focus, air assist, and operating settings—not simply the maximum speed listed on a machine specification sheet.

An OMTech spokesperson explained that maximum machine speed is only one factor to consider. Businesses should also evaluate the materials they plan to cut, the thickness of those materials, and their required production volume when selecting the appropriate laser power and machine configuration.

CO2 Lasers and Material Compatibility

CO2 lasers operate at a wavelength of approximately 10,600 nanometers, making them particularly well suited to organic materials and many polymers. OMTech’s CO2 systems can be used for applications involving acrylic, wood, plywood, MDF, leather, fabric, paper, cardboard, rubber, silicone, foam, and other compatible materials.

Clear cast acrylic is among the materials where CO2 laser cutting can deliver distinctive results. When properly configured, a CO2 laser can produce a smooth, polished-looking edge on cast acrylic without requiring additional flame polishing for many applications.

Wood products are another major application. Plywood, MDF, hardwood, balsa, bamboo, and similar materials can be cut for signage, décor, prototypes, furniture components, gifts, and other products.

CO2 lasers can also engrave materials such as glass, slate, and stone, while coated metals and anodized aluminum can be marked by removing or altering the surface coating. Bare metals such as steel, aluminum, brass, copper, and titanium are generally not suitable for cutting with a standard CO2 laser because of their interaction with the laser wavelength.

OMTech also emphasizes material safety. PVC should not be laser cut because it can release hazardous chlorine-containing gases. Polycarbonate and HDPE can also produce poor cutting results and are generally unsuitable for clean CO2 laser cutting.

Real-World Cutting Speed Depends on Material

OMTech’s 2026 guide highlights the difference between maximum machine speed and practical production speed. A machine capable of high travel speeds will not necessarily cut thick plywood or acrylic at the same speed.

For a 60-watt CO2 laser, typical starting points for production planning include approximately 15–20 mm per second for 3 mm cast acrylic and 6–9 mm per second for 6 mm cast acrylic, depending on machine configuration, material quality, focus, air assist, and other settings.

For plywood, approximately 12–18 mm per second for 3 mm Baltic birch plywood and 5–8 mm per second for 6 mm plywood can serve as practical reference ranges. Three-millimeter MDF can generally run at approximately 15–22 mm per second under suitable conditions.

Material composition can significantly affect results. For example, plywood may contain glue lines or variations between sheets that influence cut-through, while hardwoods such as maple and walnut can require slower cutting speeds than plywood of comparable thickness.

Leather, fabric, paper, and cardboard can generally be processed at higher speeds because of their lower material thickness. The appropriate settings, however, should always be established through testing on the specific material and machine.

Choosing Laser Power for Production

According to OMTech’s guide, laser power affects both cutting speed and the maximum material thickness that can be processed effectively.

A 40-watt system can be suitable for thinner plywood and acrylic, while 60-watt systems provide a broader range for small-business production. Moving to 80 watts can provide additional cutting capacity and faster processing, while 100- to 130-watt systems are better suited to higher-volume operations and thicker stock.

For demanding production environments, 150-watt systems can provide additional capacity for thicker acrylic, hardwood, and other compatible materials.

OMTech recommends that buyers consider their actual workload before selecting a power level. A business primarily cutting 3 mm acrylic and thin plywood may not need the same power as a production shop processing thick materials throughout an eight-hour workday.

Focus, Air Assist and Lens Selection Remain Critical

Laser power is only one factor in achieving reliable cuts. Proper focus can have a major impact on beam concentration, cut width, edge quality, and effective cutting performance.

Air assist is another important component of the cutting process. By directing air into the cutting area, air assist helps remove smoke and combustion products from the kerf, supporting cleaner edges and improved cut-through while reducing excessive charring.

Lens selection can also influence performance. A 2-inch lens is commonly used for general CO2 laser cutting because it provides a balance between focal depth and spot size. Longer-focus lenses can provide greater focal depth for thicker materials, although they may sacrifice some precision for fine details.

What Businesses Should Consider Before Buying

OMTech recommends that prospective buyers look beyond advertised speed and wattage when comparing CO2 laser cutting machines.

Important considerations include the actual usable working area, laser tube quality, pass-through capability, controller and software compatibility, cooling requirements, warranty coverage, and availability of replacement parts such as tubes, lenses, and mirrors.

For businesses processing large sheets or longer materials, pass-through capability can expand production possibilities beyond the standard working area. Software and controller compatibility should also be verified before purchase, particularly for businesses planning to use production-oriented design and laser-control software.

Cooling is another consideration for higher-power CO2 systems. Production machines may require a dedicated water chiller to maintain appropriate operating temperatures during extended use.

OMTech Expands Practical Laser Guidance for Business Buyers

Through its 2026 materials and speed guide, OMTech is helping prospective laser users understand the difference between laboratory or maximum specifications and the cutting performance they can realistically expect during production.

The company encourages businesses to test their specific materials and configurations before committing to large production runs. Material density, composition, thickness, optics, focus, air assist, and machine condition can all affect final results.

With CO2 systems spanning approximately 40 watts through 150 watts, OMTech offers equipment aimed at a range of applications, from desktop and small-business work to higher-volume production environments.

About OMTech

OMTech is a laser equipment company based in Anaheim, California, offering CO2 laser engravers and cutters, fiber laser marking machines, and MOPA fiber laser systems for makers, small businesses, fabricators, and production environments. OMTech equipment is designed for applications including signage, acrylic fabrication, personalization, engraving, product development, and manufacturing.

Users can learn more about OMTech and its laser equipment at OMTech.

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