China Fiber Laser Cutting Machine Manufacturer
Urządzenia do cięcia laserowego światłowodowego firmy MYT zapewniają precyzyjne i spójne cięcie metali, co pozwala znacząco zwiększyć wydajność i jakość.
MYT Maszyna do cięcia laserem światłowodowym może ciąć wszystkie rodzaje materiałów metalowych, takich jak aluminiumIeee, stal nierdzewna, I stal węglowa, I Wybierz różną moc w zależności od grubości.
Możesz szybko i bez zadziorów wyciąć dowolny kształt zgodnie z rysunkiem, korzystając z zalet energii–oszczędności, wysokiej wydajności i pełnej automatyzacji. Dzięki wykorzystaniu MYT włóknomi maszyny laserowe, zredukujesz Koszty konserwacja Ai działanie bardzo.
Single Table Fiber Laser Cutting Machine For Sale
Model :Seria MYT-A
Moc źródła lasera : 1000W-6000W
Źródło lasera opcjonalne :Raycus/Max/IPG/JPT
Rozmiar stołu roboczego: 1530/1540/2040/1560/2060
Chłodziarka wodna : Hanli
Głowica tnąca laserowo :Raytools /WSX
Exchange-table Fiber Laser Cutting Machine For Sale
Model :Seria MYT-B
Moc źródła lasera : 1000W-6000W
Źródło lasera opcjonalne :Raycus/Max/IPG/JPT
Rozmiar stołu roboczego: 1530/1540/2040/1560/2060
Chłodziarka wodna : Hanli
Głowica tnąca laserowo :Raytools /WSX
Open Type Tube & Sheet Fiber Laser Cutitng Machine For Sale
Model :Seria MYT-C
Moc źródła lasera : 2000W-30000W
Źródło lasera opcjonalne :Raycus/Max/IPG/JPT
Rozmiar stołu roboczego: 1530/1540/2040/1560/2060
Chłodziarka wodna : Hanli
Głowica tnąca laserowo :Raytools /WSX
Closed Type Tube & Sheet Fiber Laser Cutitng Machine For Sale
Model :Seria MYT-D
Moc źródła lasera : 2000W-30000W
Źródło lasera opcjonalne :Raycus/Max/IPG/JPT
Rozmiar stołu roboczego: 1530/1540/2040/1560/2060
Chłodziarka wodna : Hanli
Głowica tnąca laserowo :Raytools /WSX
Maszyna do cięcia laserowego rur CNC
Wielostronna giętarka panelowa Wisdom z pełnym serwomechanizmem dzieli się na dwie specyfikacje: automatyczna wymiana narzędzi HMBC i ręczna wymiana narzędzi EMBC; W zależności od rozmiaru stołu można ją podzielić na 1400, 2200, 2500 i inne specyfikacje; W zależności od maksymalnej grubości gięcia można ją podzielić na 1,5 mm, 2 mm, 3 mm i inne specyfikacje (MS), co plasuje ją na wiodącym poziomie wśród krajowych konkurentów.
Maszyna do spawania laserowego
Model Seria MYT-E
Moc źródła lasera : 1500W/2000W/3000W
Źródło lasera opcjonalne :Raycus/Max/IPG/BWT
Opcjonalna funkcja czyszczenia i cięcia laserowego
Chłodziarka wodna : Hanli
Uniwersalna ściernica do gratowania i zaokrąglania
- Model
Typ VSA300 Typ VSA860 Typ VSA1060
- Zakres stosowania
Cięcie laserowe (płomieniowe), tłoczenie i obróbka blach metalowych i niemetalowych, kompleksowe gratowanie, usuwanie żużlu i zaokrąglanie narożników bez ślepych zaułków; szlifowanie powierzchni blach, ciągnienie drutu, usuwanie rdzy i obróbka zgorzeliny.
Usuwanie żużla, gratowanie i zaokrąglanie przedniej i tylnej strony
- Model
Modele 3VSR66OMS-W2S i VSRB1060MS-3WB oraz VSRS1360MS-BTW5S - Zakres stosowania:
Cięcie płomieniowe (plazmowe) średniogrubych blach stalowych i metalowych w celu usunięcia żużlu, gratowania i uzyskania zaokrąglonych narożników.
Maszyna do gratowania metalu szczotką tarczową
Model:
Typ VSD300B-W3S Typ VSD300S-M3S
Zakres stosowania:
- Szeroko stosowane do cięcia części, tłoczenia części, obróbki części, polerowania, gratowania i zaokrąglania blach i profili metalowych;
- Sprzęt ten można również stosować do polerowania niemetalowych elementów obrabianych, np. z plastiku, nylonu, drewna, kamienia itp.
Automatyczna maszyna do odwracania i dwustronnego gratowania
Model:
Typ VSD300II-M4S Typ VSD300II-W2SR Typ VSD300II-W4S
Zakres stosowania:
Tłoczenie metalu, obróbka skrawaniem, obróbka szlifierska, metalurgia proszków i inne elementy obrabiane mogą być używane do dwustronnego polerowania, gratowania, zaokrąglania, usuwania rdzy, usuwania kamienia, czyszczenia i suszenia, zapobiegania rdzewieniu itp. Nadaje się do obróbki wyrobów metalowych o długości, szerokości lub średnicy 40*100 mm. Przednia i tylna strona części są polerowane i gratowane za jednym razem.
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Click here to find more Fiber Laser Cutting Machine models on sale!
Fiber Laser Cutting Machine Applications
Fiber laser cutting machines have long been a part of our daily lives. Many metal products around you are likely cut using them, including stainless steel kitchen sinks, metal shop signs, balcony security windows and metal furniture, and even gym equipment and elevator decorative panels.
This widespread use stems from its ability to quickly and cleanly cut a variety of metal sheets, perfectly achieving complex designs. It boasts high production efficiency and excellent quality, resulting in smooth edges that eliminate the need for secondary processing.












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Fiber Laser Cutting Machine Buyer Guidance
What is fiber laser cutting machine?
A fiber laser cutting machine is an industrial device that utilizes high-power fiber lasers for cutting, capable of cutting a variety of materials with high precision, speed, and efficiency. It uses a fiber laser to generate a high-energy laser beam, which is focused onto the material surface through an optical system, melting, vaporizing, or ablating the material, achieving precise cutting.
How does a fiber laser cutting machine work?
The operating principle of a fiber laser cutting machine is primarily based on the interaction between laser light and the material. First, a fiber laser converts electrical energy into a high-energy laser beam, which is transmitted via an optical fiber to the cutting head. After being focused by a lens, it forms a high-energy-density laser beam.
When the laser beam strikes the surface of the material, its high energy rapidly heats the material, causing it to melt or vaporize, thereby achieving cutting. During this process, an auxiliary gas (such as oxygen, nitrogen, or an inert gas) is often used to help blow away the molten material, ensuring a clean and precise cut surface. Furthermore, a computer control system can precisely control the movement path of the laser beam to achieve cutting of complex shapes.
How much does a laser cutting machine cost?
Hobbyist or entry-level small shop units typically cost $15k–$50k.
Mid-range systems for growing operations land around $50k–$150k.
Industrial-grade, high-power models go from $100k to $500k+.
What are the advantages of fiber laser cutting machine?
- High Performance and Speed: Fiber lasers boast an electro-optical conversion efficiency exceeding 30%, making them more efficient than traditional CO2 lasers and enabling faster cutting speeds, typically 2-5 times faster. This high efficiency not only reduces production cycle times but also lowers operating costs.
- High Precision and High-Precision Processing: Fiber lasers offer superior beam quality, a smaller focal spot, and higher cutting accuracy, making them suitable for precision machining and cutting complex shapes. Their smooth, burr-free cut surfaces are ideal for industries with demanding quality.
- Low Maintenance and High Reliability: Fiber lasers are compact, require minimal maintenance, have a low failure rate, and have a long service life (up to 100,000 hours). They eliminate the need for frequent optical adjustments, reducing maintenance costs and downtime.
- Energy Efficiency and Environmental Protection: Fiber lasers consume little energy and require no gas cooling, resulting in lower operating costs and environmental compliance. Their high electro-optical conversion efficiency reduces energy consumption.
- Wide Range of Applicable Materials: Fiber lasers can cut a wide range of materials, including metals, plastics, copper, aluminum, and stainless steel, and are particularly well-suited for cutting highly reflective materials such as copper and brass. Economical: Fiber lasers have low initial investment and long-term operating costs, making them suitable for a variety of industrial applications.
What materials can fiber laser cutting machine process?
Fiber laser cutting machines can cut a variety of metal materials, including but not limited to:
- Stainless steel
- Miedź
- Alloy steel
- Tool steel
- Tungsten
- Hardened steel
- Carbon steel
- Brass
- Spring steel
- Silicon steel
- Hardened steel
- Aluminium
- Tytan
- Mild steel
- Nickel
Fiber Laser Cutting Machine Vs Other Cutting Machines — Comparison Table
| Attribute | Fiber laser | CO₂ laser | Przecinarka plazmowa | 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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