CARBIDE 激光器配备自动谐波发生器,可通过软件控制提供基波(1030 nm)、二次谐波(515 nm)、三次谐波(343 nm)、四次谐波(257 nm)或五次谐波(206 nm)输出选择。这些谐波发生器非常适合需要单波长输出的工业应用。这些模块完全集成到系统中,直接安装在激光输出端。
CARBIDE 激光器的 50 W 紫外型扩展了微加工和其他高级应用的能力。尽管性能有所增强,但它仍然保持了标准 CARBIDE 激光器的紧凑尺寸、稳定性和光束质量。
规格参数
型号 | 2H | 2H-3H | 2H-4H | 2H-5H | 30W UV 1) | 50W UV 1) |
---|---|---|---|---|---|---|
输出特性 | ||||||
输出波长 2) (自动选择) | 1030 nm 515 nm | 1030 nm 515 nm 343 nm | 1030 nm 515 nm 257 nm | 1030 nm 515 nm 206 nm | 1030 nm 515 nm 343 nm | 1030 nm 515 nm 343 nm |
泵浦光单脉冲能量 | 20 – 2000 μJ | 50 – 2000 μJ | 20 – 2000 μJ | 100 – 1500 μJ | 80 – 400 µJ | 120 – 400 μJ |
泵浦光脉宽 | < 300 fs | < 300 fs | < 300 fs | < 300 fs | ≈ 500 fs | ≈ 500 fs |
泵浦光脉宽 | < 300 fs | ≈ 500 fs | ||||
转换效率 / 输出功率 | > 50% (2H) | > 50% (2H) > 25% (3H) | > 50% (2H) > 10% (4H) 3) | > 50% (2H) > 5% (5H) 4) | 30 W (3H) | 50 W (3H) |
光束质量, M2, 典型值 (≤ 400 μJ 泵浦光) | < 1.15 (2H) | < 1.15 (2H) < 1.2 (3H) | < 1.15 (2H) n/a (4H) | n/a | < 1.3 (3H) | < 1.3 (3H) |
光束质量, M2, 典型值 (> 400 μJ 泵浦光) | < 1.2 (2H) | < 1.2 (2H) < 1.3 (3H) | < 1.2 (2H) n/a (4H) | n/a | n/a | n/a |
光束质量, M2, 典型值 (> 400 μJ 泵浦光) | < 1.2 (2H) | < 1.2 (2H) < 1.3 (3H) | < 1.2 (2H) n/a (4H) | n/a | ||
外形尺寸 | ||||||
带谐波发生器的 CARBIDE-CB3 (L × W × H) | 782 × 350 × 174 mm | 832 × 350 × 174 mm | 832 × 350 × 174 mm | 832 × 350 × 174 mm | 832 × 350 × 174 mm | 832 × 350 × 174 mm |
带谐波发生器的 CARBIDE-CB3 (L × W × H) | 782 × 350 × 174 mm | 832 × 350 × 174 mm | ||||
带谐波发生器的 CARBIDE-CB5 (L × W × H) | 771 × 324 × 162 mm | 853 × 340 × 162 mm | 853 × 340 × 162 mm | 853 × 340 × 162 mm | n/a | n/a |
带谐波发生器的 CARBIDE-CB5 (L × W × H) | 771 × 324 × 162 mm | 853 × 340 × 162 mm | n/a |
型号 | 2H | 2H-3H | 2H-4H | 2H-5H | 30W UV 1) | 50W UV 1) |
---|
- 详情请参阅 CARBIDE-CB3-UV。
- 取决于泵浦激光器型号。最高可至 5 次谐波,咨询详细参数请联系 sales@lightcon.com。
- 最大输出功率 5 W。
- 最大输出功率 0.2 W。
性能
轮廓图
CARBIDE-CB3 配备自动谐波发生器
相关期刊
Experimental observation of mutual coupling in resonator array on thin-metal-film
S. R. Ayyagari, S. Indrišiūnas, A. Basharin, V. Janonis, D. Pashnev et al.
Journal of Applied Physics • 2025
Laser engineered architectures for magnetic flux manipulation on superconducting Nb thin films
E. Martínez, N. Lejeune, J. Frechilla, L. Porta‑Velilla, E. Fourneau et al.
Applied Surface Science • 2025
LIPSS: A promising strategy for the generation of effective bacteria-repellent surfaces
J. Outón, M. Carbú, M. Domínguez, J. J. Delgado, V. Matres et al.
Surfaces and Interfaces • 2025
High Reflectivity, Ultraflat-Spectrum Chirped Fiber Bragg Grating Written Using Low Energy UV Femtosecond Pulses
S. wang, J. wan, H. lei, L. zhao, H. luo et al.
Elsevier BV • 2024
Surface roughness control in deep engraving of fused silica using femtosecond laser ablation
E. Kažukauskas, S. Butkus, V. Jukna, and D. Paipulas
Surfaces and Interfaces • 2024
Natural hydrogen in low temperature geofluids in a Precambrian granite, South Australia. Implications for hydrogen generation and movement in the upper crust
J. Bourdet, C. D. Piane, C. Wilske, D. Mallants, A. Suckow et al.
Chemical Geology • 2023
UV femtosecond laser cleaning of encrusted historical stained-glasses
E. M. Maingi, M. P. Alonso, G. F. de la Fuente, S. Dubernet, Y. Lefrais et al.
Journal of Cultural Heritage • 2023
Enhanced tribological performance and nanostructuring speed on AlTiN by beamshaping technology
T. Primus, P. Hauschwitz, T. Vitu, R. Bičišťová, P. Zeman et al.
Surface Engineering • 2022
Femtosecond Laser-Based Micromachining of Rotational-Symmetric Sapphire Workpieces
S. Kefer, J. Zettl, C. Esen, and R. Hellmann
Materials • 2022
Use of Green Fs Lasers to Generate a Superhydrophobic Behavior in the Surface of Wind Turbine Blades
J. Rivera‑Sahún, L. Porta‑Velilla, G. F. de la Fuente, and L. A. Angurel
Polymers • 2022
1
2
资料下载
产品数据表
产品目录
飞秒激光器飞秒科研系统
产品目录
概述
规格参数
性能
轮廓图
相关期刊
相关期刊
Overview