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Laser Cutting Service

Quick Response

within 4 Hours

Precision Cutting

±0.02mm

Material Compatibility

30+

Custom Solutions

Prototyping to Batch Production

What is Laser Cutting?

Laser cutting is an advanced, non-contact fabrication technology that uses a highly focused laser beam to precisely cut, pierce, or engrave materials. High-pressure assist gases remove molten or vaporized material, ensuring clean and burr-free edges.

what is laser cutting

Unlike traditional mechanical cutting methods such as shearing or stamping, laser cutting enables highly intricate geometries, micro-holes, and sharp corners with tight tolerances, often down to ±0.02mm.

Its precision and flexibility make it ideal for a wide range of metals including stainless steel, aluminum, brass, and titanium, as well as select non-metal materials. By minimizing heat-affected zones and material distortion, laser cutting maintains structural integrity, reduces post-processing, accelerates production cycles, and lowers overall manufacturing costs.

At Beska, we turn complex designs into precise, high-quality parts using advanced laser cutting technology and expert craftsmanship. From prototypes to large-scale production, we make precision and efficiency our standard.

Types of Laser Cutting

At Beska, we provide a range of laser cutting technologies, each suited to different materials, precision requirements, and production needs. Selecting the right method for your project can improve efficiency, reduce post-processing, and ensure the highest quality results.

Fiber Laser Cutting
COâ‚‚ Laser Cutting
Solid State Laser Cutting
Fiber Laser Cutting

It uses a high-energy fiber laser, ideal for metals such as carbon steel, stainless steel, and aluminum. Fiber lasers combine fast cutting speeds with high energy efficiency and low maintenance, making them well-suited for thin sheets, medium-thick plates, and high-volume production.

COâ‚‚ Laser Cutting

It employs a longer wavelength laser, perfect for non-metal materials such as acrylic, wood, and fabric, as well as certain metals. COâ‚‚ lasers provide smooth edges and consistent quality, making them versatile for mixed-material projects.

Solid-State Laser Cutting

It utilizes crystal-based lasers, such as Nd:YAG, for exceptional precision. This method is ideal for micro parts, medical devices, and electronics where extremely fine details are required. While slower and more costly, solid-state lasers excel in high-precision, high-value applications.

Supported Materials for Laser Cutting

We focus on high-precision metal laser cutting and support a wide range of industrial-grade materials. The table below summarizes the metals we work with, along with thickness capabilities, properties, and typical applications.

Material CategoryCommon GradesThickness RangeTypical ApplicationsNotes
Carbon SteelSPCC, Q235, Q3450.5–30 mmStructural parts, brackets, machine componentsStable cutting performance, excellent edge quality
Stainless Steel304, 316, 4300.5–25 mmEnclosures, panels, food/medical equipmentClean edges with nitrogen cutting
Aluminum Alloy5052, 6061, 60630.5–20 mmLightweight parts, electronic housings, automotive componentsSensitive to heat → optimized parameters minimize distortion
Brass & CopperH59, C11000.5–12 mmElectrical components, decorative partsRequires high-power laser and stable gas flow
Titanium & AlloysTA1, TA2, TC40.5–10 mmAerospace, medical componentsHigh strength-to-weight, clean processing with inert gas
Galvanized SteelGI, GL0.5–20 mmCabinets, ducting, industrial panelsControlled heat input to avoid zinc vapor issues
Other MetalsManganese steel, alloy steelBased on gradeHigh-strength machinery partsCase-by-case review recommended

If cost is a concern and your part doesn’t require a polished edge, mild steel with nitrogen cutting is usually the most economical option while still providing stable accuracy.

Advantages of Laser Cutting

Laser cutting offers several practical advantages that help improve precision, efficiency, and overall manufacturing quality.

  • High precision and smooth edges: Laser cutting consistently achieves around ±0.02 mm tolerance, producing straight, clean, and burr-free edges that reduce the need for secondary finishing.
  • Fast production and shorter lead time: The cutting speed is typically three to five times faster than traditional methods, allowing projects to move from drawing to finished parts without the delay of mold preparation.
  • Flexible and highly customizable: The digital cutting path makes it easy to produce simple, complex, or highly detailed shapes, supporting both prototype orders and large-volume production with the same level of accuracy.
  • Better material utilization: The narrow kerf width allows parts to be nested more tightly, improving material usage by 10% to 20% and reducing overall waste.

These advantages make laser cutting an efficient choice for teams that need precise parts, predictable quality, and a scalable process from prototype to full production.

Industries We Support with Laser Cutting

Laser cutting plays a key role in industries that require clean edges, tight tolerances, and reliable repeatability across different production volumes.

Industries We Support with Laser Cutting
  • Automotive: Laser cutting helps create precision brackets, battery components, and lightweight structural parts that must maintain consistent tolerances.
  • Industrial Machinery: It is widely used for frames, mounting plates, and protective covers where both durability and dimensional accuracy matter.
  • Appliances: The process produces clean, uniform enclosures, ventilation panels, and stainless steel housings that support both performance and appearance.
  • Electronics: Laser cutting enables the fabrication of compact casings, shielding plates, and functional brackets that require stable, repeatable accuracy.

These applications highlight how laser cutting supports industries that need dependable accuracy without slowing down production.

FAQ

Our laser cutting machines handle up to 30 mm for carbon steel, 25 mm for stainless steel, and 20 mm for aluminum, with slight variations based on material grade.

Our standard cutting accuracy is ±0.05 mm positioning and ±0.03 mm repeatability, with a kerf width between 0.1 mm and 0.3 mm.

We offer bending, welding, tapping, chamfering, deburring, surface finishing, and full assembly support based on your project needs.

Yes, we support both one-off prototypes and high-volume production, using the same equipment to maintain consistent accuracy across all quantities.

Most prototype orders are completed within 5-7 days, while production batches depend on complexity, material availability, and finishing requirements.

Most laser-cut metals, including carbon steel, stainless steel, and aluminum, can be welded with good results, as the heat-affected zone is narrow and controllable.

Thin materials may show minor heat distortion, but we control speed and power settings to minimize deformation during cutting.

Yes, we offer engraving for part numbers, logos, and functional markings, depending on material type and thickness.

Dive Deeper Into Our Resources

Looking for more diverse service options? Browse through our handpicked selections:

Still haven’t found what you’re looking for? Don’t hesitate to contact us. We’re available around the clock to assist you.

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