China Fiber Laser Cutting Machine Manufacturer
MYT’s fibre laser cutters provide precise and consistent cutting of metals, enabling you to dramatically increase both productivity and quality.
fiber laser cutting machine can cut all kinds of metal materials, such as aluminum, stainless steel, carbon steel, choose different power according to different thickness.
You can cut any shape quickly and burr-free according to the drawing, with the advantages of energysaving, high efficiency and full automation. By using fibr laser machines, you will reduce maintenance nd greatly.
CNC Pipe Laser Cutting Machine
Wisdom full servo multilateral panel bender is divided into two specifications: automatic tool change HMBC and manual tool change EMBC; According to the size of the table, it can be divided into 1400,2200,2500 and other specifications; According to the maximum bending thickness, it can be divided into 1.5mm, 2mm, 3mm and other specifications (MS), which is at the leading level in domestic peers.
Universal grinding wheel deburring and rounding
- Model
VSA300 type VSA860 type VSA1060 type
- Scope of application
Laser (flame) cutting, stamping, and tailoring of metal and non-metallic plates, all-round deburring, slag removal, and corner rounding without dead ends; metal plate surface grinding, wire drawing, rust removal, and scale processing.
Disc brush metal deburring machine
Model:
VSD300B-W3S type VSD300S-M3S type
Scope of application:
- Widely used in cutting parts, stamping parts, processed parts, polishing, deburring and rounding of metal sheets and profiles;
- This equipment can also be used to polish non-metallic plate work pieces, such as plastic, nylon, wood, stone, etc.
Automatic flipping and double-sided deburring machine
Model:
VSD300II-M4S type VSD300II-W2SR type VSD300II-W4S type
Scope of application:
Metal stamping, machining, grinder processing, powder metallurgy and other work pieces can be used for double-sided polishing, deburring, rounding, rust removal, scale removal, cleaning and drying, rust prevention, etc. Suitable for processing metal products with a length, width or diameter of 40*100mm. The front and back sides of the parts are polished and deburred in one go.
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Fiber Laser Cutting Machine Applications
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Fiber Laser Cutting Machine Buyer Guidance
What is fiber laser cutting machine?
How does a fiber laser cutting machine work?
How much does a laser cutting machine cost?
Hobbyist or entry-level small shop$15k–$50k
Mid-range systems$50k–$150k
Industrial-grade, high-power models$100k to $500k+
What are the advantages of fiber laser cutting machine?
- High Performance and Speed:
- High Precision and High-Precision Processing:
- Low Maintenance and High Reliability:
- Energy Efficiency and Environmental Protection:
- Wide Range of Applicable Materials:
What materials can fiber laser cutting machine process?
- Stainless steel
- Copper
- Alloy steel
- Tool steel
- Tungsten
- Hardened steel
- Carbon steel
- Brass
- Spring steel
- Silicon steel
- Hardened steel
- Aluminum
- Titanium
- Mild steel
- Nickel
Fiber Laser Cutting Machine Vs Other Cutting Machines — Comparison Table
| Attribute | Fiber laser | CO₂ laser | Plasma cutter | Waterjet | Oxy-fuel (flame) | Mechanical (CNC router / shear / punch) |
| Cutting mechanism | High-power fiber optic laser beam (solid-state) | Gas laser (infrared CO₂ tube) | High-temperature plasma arc | High-pressure water + abrasive (abrasive waterjet) or pure waterjet | Chemical combustion (oxygen + fuel) to melt/oxidize metal | Physical cutting by blade, router, shear, or stamping/punch |
| Best materials | Ferrous & non-ferrous metals (steel, stainless, aluminium, copper — though copper needs higher power/technique) | Metals and many organics (wood, acrylic, plastics). Less efficient on highly reflective metals vs fiber | Electrically conductive metals (mild steel, stainless) | Metals, stone, glass, composites, plastics — virtually any material | Carbon (mild) steel and other ferrous materials (not for most non-metals) | Wood, plastics, composites, thin sheet metals (shear/punch for metals) |
| Typical thickness range (practical) | Thin → medium; commonly 0.5–20 mm (depends on power); high-power units extend higher | Thin → medium; often used up to ~12–25 mm for some metals (depends on power) | Thin → very thick for mild steel; effective from ~1 mm to 50+ mm depending on system | Very thin → very thick (0.1 mm to 200+ mm depending on pump & abrasive) | Medium → very thick carbon steel; typically 5–300+ mm | Thin to medium (depends on machine): routers/punches for sheets up to ~6–20 mm; shears for thin plate |
| Cutting speed | Very fast on thin/medium metals (high productivity) | Fast, but often slower than fiber for thin reflective metals | Very fast on thick mild steel (higher feed at thickness) | Slow (material removal via erosion) | Slow to moderate (depends on thickness) | Fast for simple straight cuts (shear); variable for routing |
| Edge quality | Excellent — narrow kerf, smooth, minimal dross; often cut-ready | Good — smooth but slightly wider kerf than fiber; may require finishing on some materials | Rougher edge, dross present — usually needs finishing | Excellent — very smooth, no thermal HAZ; likely cut-ready | Rough with significant HAZ and slag; requires secondary cleaning | Depends — shear/punch leaves burrs; router can produce smooth finish on non-metals |
| Kerf width | Narrow (0.1–0.5 mm) | Slightly wider | Wider (2–6 mm depending on torch & gap) | Narrow (0.5–2 mm) | Wide (several mm) | Varies (blade width, cutter type) |
| Heat affected zone (HAZ) | Small | Moderate | Large | None (cold cutting) | Large (oxidation & heat) | Depends — mechanical: none; thermal processes have HAZ |
| Precision / tolerance | Very high (±0.05–0.2 mm typical) | High (but generally slightly less precise than fiber on reflective metals) | Moderate to low (±0.5 mm or more) | High (±0.1–0.3 mm) | Low precision on fine features | High for CNC routing/punching (depends on tooling) |
| Consumables | Low (assist gas — O₂/N₂ — and optics cleaning) | Moderate (mirrors, lenses, gas) | High (electrodes, nozzles) | High (abrasive — garnet; pump maintenance) | Fuel gases and oxygen; minimal wear parts | Tooling (blades, bits, punches) replacements |
| Maintenance effort | Relatively low (solid-state) | Higher (tube maintenance, optics alignment) | Moderate (torch consumables) | Moderate–high (pump, abrasive handling) | Low–moderate (gas systems, torch maintenance) | Varies — routine tool change & alignment |
| Energy efficiency | High (more electrical efficiency than CO₂) | Lower efficiency (CO₂ tubes use more power) | Moderate | Low (high hydraulic power) | Low–moderate | Varies |
| Initial cost | Medium → high (depending on power & automation) | Medium → high | Low → medium | High (waterjet equipment & pumps) | Low → medium | Low → medium |
| Operating cost (typical) | Low → moderate (low consumables, high uptime) | Moderate → higher | Moderate → high (consumables + gas) | High (abrasive + pump energy + maintenance) | Low (cheap gases) | Low → moderate (tool wear) |
| Safety & environmental | Fumes when cutting coated materials (requires extraction); laser safety required (enclosure & interlocks) | Similar to fiber; CO₂ lasers need proper ventilation and safety | Smoke, UV, hot spatter — ventilation & PPE required | Minimal thermal emissions but high noise & water/abrasive disposal concerns | Significant fumes, slag, flame hazards; ventilation required | Noise, dust, chip management; less thermal hazard for non-thermal methods |
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