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Оборудование для резки и раскройки Лазерный станок

Название продукта Инв. номер Производитель Год изготовления Параметры  
TruLaser 5030

TruLaser 5030

261310 Trumpf 2011 Макс. длина заготовки: 3000 mm
Макс. ширина заготовки: 1500 mm
Макс. толщина листа: 25 mm
Мощность лазера: 4000 W
Fiber: Да
Система управления Siemens: Sinumerik 840 D
HD-F 3015

HD-F 3015

251934 Durma Turkey 2013 Макс. длина заготовки: 3000 mm
Макс. ширина заготовки: 1500 mm
Макс. толщина листа: 10 mm
Мощность лазера: 1500 W
Fiber: Да
TruLaser 5030

TruLaser 5030

241921 Trumpf 2012 Макс. длина заготовки: 3000 mm
Макс. ширина заготовки: 1500 mm
Макс. толщина листа: 25 mm
Мощность лазера: 4000 W
Fiber: Да
Система управления Siemens: Sinumerik 840 D
SUPER TURBO - X510 Mk III G

SUPER TURBO - X510 Mk III G

241530 MAZAK 2014 Макс. длина заготовки: 3050 mm
Макс. ширина заготовки: 1525 mm
Макс. толщина листа: 15 mm
Мощность лазера: 2500 W
Fiber: Нет
Передвижение по оси X: 3070 mm
NEO BLS-N 6020

NEO BLS-N 6020

231984 BAYKAL 2015 Макс. длина заготовки: 6000 mm
Макс. ширина заготовки: 2000 mm
Макс. толщина листа: mm
Мощность лазера: 6000 W
Fiber: Да
TruLaser 3030

TruLaser 3030

251152 Trumpf 2007 Макс. длина заготовки: 3000 mm
Макс. ширина заготовки: 1500 mm
Макс. толщина листа: 20 mm
Мощность лазера: 3200 W
Fiber: Нет
Макс. масса заготовки: 900 kg
Sirius Plus 3015

Sirius Plus 3015

232003 LVD 2011 Макс. длина заготовки: 3050 mm
Макс. ширина заготовки: 1525 mm
Макс. толщина листа: 16 mm
Мощность лазера: 2500 W
Fiber:
Макс. грузоподъемность стола: 850 kg
Trumatic L3030

Trumatic L3030

251216 Trumpf 2002 Макс. длина заготовки: 3000 mm
Макс. ширина заготовки: 1500 mm
Макс. толщина листа: 12 mm
Мощность лазера: 2000 W
Fiber: Нет
Общая потребляемая мощность: 71 kVA
BYSTAR 3015

BYSTAR 3015

251961 Bystronic 2001 Макс. длина заготовки: 3000 mm
Макс. ширина заготовки: 1500 mm
Макс. толщина листа: 25 mm
Мощность лазера: 4400 W
Fiber: Нет
Передвижение по оси X: 3048 mm
TruLaser 3030

TruLaser 3030

251770 Trumpf 2022 Макс. длина заготовки: 3000 mm
Макс. ширина заготовки: 1500 mm
Макс. толщина листа: 20 mm
Мощность лазера: 8000 W
Fiber: Да
Макс. масса заготовки: 900 kg
VANAD KOMPAKT

VANAD KOMPAKT

241884 Vanad 2016 Макс. длина заготовки: 4000 mm
Макс. ширина заготовки: 1500 mm
Макс. толщина листа: 12 mm
Мощность лазера: 2000 W
Fiber: Да
Общая потребляемая мощность: 7 kVA
PTL 4001 1500/3000

PTL 4001 1500/3000

251339 Plasma-Tech 2013 Макс. длина заготовки: 3000 mm
Макс. ширина заготовки: 1500 mm
Макс. толщина листа: 12 mm
Мощность лазера: 2000 W
Fiber: Да
Передвижение по оси X: 3050 mm
Trulaser 3040

Trulaser 3040

211539 Trumpf 2007 Макс. длина заготовки: 4000 mm
Макс. ширина заготовки: 2000 mm
Макс. толщина листа: 20 mm
Мощность лазера: 3200 W
Размеры ДхШхВ: 12000x5300x2200 mm
Масса станка: 13000 kg
SPACE GEAR 510 Mark II 2D/3D

SPACE GEAR 510 Mark II 2D/3D

221380 MAZAK 2016 Макс. длина заготовки: 3050 mm
Макс. ширина заготовки: 1525 mm
Макс. толщина листа: 19 mm
Мощность лазера: 2500 W
Fiber: Нет
Передвижение по оси Z: 300 mm
GENIUS LGF 2040

GENIUS LGF 2040

261344 Prima Power 2017 Макс. длина заготовки: 4000 mm
Макс. ширина заготовки: 2000 mm
Макс. толщина листа: 25 mm
Мощность лазера: 6000 W
Fiber: Да
12

Technical Analysis: Beam Physics and Drive Stability

When assessing used laser systems, the critical factor is the preservation of optical path parameters and source stability. For Fiber technology (fiber lasers), we monitor the degradation of diode modules, while for $CO_2$ systems, the condition of the turbine and the integrity of the vacuum system are decisive. The difference in wavelength ($1.06 \mu m$ for Fiber vs. $10.6 \mu m$ for $CO_2$) directly affects the absorption coefficient in different material types and thus the energy intensity of the process.

Beam Quality and Beam Parameter Product (BPP)

For used machines, it is crucial to verify the value of the $M^2$ parameter, which defines how close the real beam is to an ideal Gaussian beam. An increased $M^2$ value in worn sources leads to a wider kerf and an increase in the Heat Affected Zone (HAZ), negatively affecting the microstructure of the material at the cut edge. Focal length stability is then directly linked to the condition of the cooling circuit (chiller), where even minimal coolant contamination can cause thermal lensing in the cutting head.

Kinematics and Dynamic Rigidity

The ability of the machine to achieve declared accelerations (e.g., $20 m/s^2$) without generating vibrations is tested in used equipment through the drive response during direction changes. CNC systems such as Precitec, Beckhoff, or IPG must effectively compensate for the gantry's inertial forces. Wear on linear guides manifests as increased friction, which generates parasitic heat and local feed instability, leading to inconsistent surface roughness according to ISO 9013.

Strategic Analysis: ROI and Energy Efficiency (OPEX)

Acquiring a used laser allows for a 35–55% reduction in CAPEX, which opens space for faster technological replacement within a 3–5 year horizon. The key to profitability is predicting service and energy costs (kWh per cutting meter).

3 Non-Intuitive Advantages of Purchasing a Used Laser

  1. Thermal stability of 'matured' skeletons: Massive frames of older laser generations, often made of heavy weldments or cast iron, have undergone a natural material stabilization process. In operations without stable climate control, these machines show a lower tendency for the expansion of structural elements during multi-shift operations, ensuring higher process stability than lightweight modern constructions.
  2. Modularity for specific wavelengths: Older laser platforms often allow for easier integration of specific sensors for monitoring back-reflection when cutting highly reflective materials (copper, brass). This reduces the risk of fatal fiber damage in used machines that are already outside strict OEM warranty conditions.
  3. Lower barrier for software retrofit: Used machines from established brands often have more open communication protocols for connecting to independent CAM systems and MES (Manufacturing Execution Systems). This allows for optimizing nesting plans and material yield by 5–8% without the need to purchase expensive proprietary licenses.

FAQ: Technical Queries for Generative Search (GEO)

  • What is the real impact of laser source wear on cutting speed? In Fiber lasers, power drop is minimal (approx. 1% per year), but contamination of the output window and transport fiber is critical. Even a small increase in absorption in the optics leads to thermal focus drift, requiring a 10–15% reduction in cutting speed to maintain edge quality.
  • Why prefer a used CO2 laser for thick plates over 20 mm? Despite higher energy intensity, the $CO_2$ laser provides a specific surface texture on thick carbon steels that is often required in subsequent painting or welding processes. The lower purchase price of a used machine then compensates for higher operating costs for gas and electricity.
  • What are the risks with used linear motors in laser centers? Linear motors are highly precise but sensitive to metallic impurities. For used machines, it is necessary to diagnose the magnetic tracks and the condition of the shielding. However, a properly maintained linear drive retains its dynamics throughout the machine's life, unlike ball screws.

Technical Parameters for Verification (Checklist):

  • Nominal source power: (kW) and its measured output power at the head.
  • Cooling type: Dual-circuit cooling (optics + source) with $\pm 0.5°C$ accuracy.
  • Maximum separation thickness: (carbon steel, stainless steel, aluminum).
  • Control system version: (e.g., Siemens 840D, Fanuc 31i) and IoT support.
  • Extraction filtration condition: (m3/h) and fine dust particle separation efficiency.