LBO
(LiB₃O₅, LBO) Crystal
Save to Favorites
Overview
Specifications
| Parameter | Value |
|---|---|
| Dimensional Tolerance | ± 0.1mm |
| Dimensional Tolerance | ± 0.1mm |
| Clear Aperture | ≥Centre diameter95% |
| Coating | Placing of various types of protective film as requested by the client(P)And amplification (AR) |
| Crystal | Slash crystalline, Space populationPna21, Pointsmm² |
| Lattice | 8.4473Å |
| Lattice | 7.3788Å |
| Lattice | 5.1395Å |
| Lattice | 2 |
| Melting Point | Approximately834℃ |
| Hardness | 6 |
| Density | 2.47g/cm³ |
| Thermal Conductivity | 3.5W/mK |
| Thermal expansion factor for chemical and structural properties | 10.8×10⁻⁵ /K |
| Thermal expansion factor for chemical and structural properties | -8.8×10⁻⁵ /K |
| Thermal expansion factor for chemical and structural properties | 3.4×10⁻⁵ /K |
| Band | 169nm – 2600 nm |
| Optical and non-linear optical properties receiving angles | 52 mrad·cm |
| Optical and non-linear optical performance non-linear coefficients | d₃₂ cosΦ（XYin planeIType） |
| Optical and non-linear optical performance non-linear coefficients | d₃₁ cos2θ+d₃₂ sin2θ（XZin planeIType） |
| Optical and non-linear optical performance non-linear coefficients | d₃₁ cosθ（YZin planeIIType） |
| Optical and non-linear optical performance non-linear coefficients | d₃₁ cos2θ+d₃₂ sin2θ（XZin planeIIType） |
| Optical and non-linear optical performance non-linear magnetic coefficients | 1.05 ± 0.09 pm/V |
| Optical and non-linear optical performance non-linear magnetic coefficients | -0.98 ± 0.09 pm/V |
| Optical and non-linear optical performance non-linear magnetic coefficients | 0.05 ± 0.006 pm/V |
| Sellmeier | 2.454140+0.011249/(λ²-0.011350)-0.014591λ²-6.60×10-5λ⁴（λUnits=μm） |
| Sellmeier | 2.539070+0.012711/(λ²-0.012523)-0.018540λ²+2.0×10-4λ⁴（λUnits=μm） |
| Sellmeier | 2.586179+0.013099/(λ²-0.011893)-0.017968λ²-2.26×10-4λ⁴（λUnits=μm） |
Applications
Key Features
Datasheet
Please provide your email to download the datasheet.
Invalid email format. Please try again.
Supplier Information
Related Products
-
BBO crystal
Crystallography
Rayseroptronics
Crystal@n_o^2: 2.7359+0.01878 / (λ^2-0.01822) -0.01354 λ^2 Crystal@n_e^2: 2.3753+0.01224 / (λ^2-0.01667) -0.01516 λ^2 Active multiplier for class: deff=d31sinθ+(d11cos3φ-d22sin3φ)cosθ; deff=(d11sin3φ+d22cos3φ)cos2θ
BBO crystals are non-linear optical crystals with clear combined advantages and performance;
-
Glass+ErYbglass+Co2+MgAl204
Crystallography
Jiepu
-
Glass+Er:Yb:glass
Crystallography
Jiepu
Yb; glass
-
Eyewasher Keys with Crystals
Crystallography
Jiepu
The eyewasher bond crystals, which are a product of a solid integration of two or more different homogenous substrates through the key-coding technology. Experiments have shown that key-coated crystals can effectively reduce the temperature of laser crystals; and reduce the effects of the thermal lens effect of transformation of the side. Our company has developed a key-coated crystal for the beauty industry, based on the principle of key alignment; based on the original technology. Strengths such as simple assembly; cotton debugging; exemption from maintenance; energy high; pulse broad
-
Stone crystal vibrating six
Crystallography
Gem-oe
Working frequencies 5 MHz and 6 MHz; can be used in combination with various film thickness controllers
Related Articles
Fiber lasers and fiber amplification systems require excitation sources with stable wavelength, narrow spectral linewidth and consistent output power.
BEIJING JIEPU TREND supplies YAG+Er:YAG+YAG bonded composite slab laser crystals for high‑power solid‑state laser systems. The monolithic slab consists of two undoped YAG end‑cap layers and a central Er‑doped YAG gain segment. The overall dimension is 9 mm×9 mm×9 mm.
The MSL‑T series water‑cooled continuous‑wave single‑longitudinal‑mode lasers from Changchun New Industries Optoelectronics (CNI) deliver key research wavelengths including 369 nm, 405 nm and 770 nm.
Ytterbium‑doped fiber serves as the core energy‑conversion component inside a fiber laser. Pump light emitted by laser diodes is coupled into the gain fiber, and energy is transferred to signal laser beams via ytterbium ion energy‑level transition for power amplification. Two dominant pump wavelengths, 915 nm and 976 nm, have been widely adopted over decades. With the rapid progress of pump chip and wavelength‑locking technology, 976 nm edge‑emitting laser (EEL) pumps have gradually surpassed the 915 nm route and become the new industry mainstream. Shenzhen Lemon Photonics Technology Co., Ltd keeps developing high‑performance pump chips for fiber laser manufacturers.
Loading...
Name
Phone
Organization
Use Case
Database Platform