Nd:YVO4 crystal is an excellent laser for making the diode-pumped solid lasers. The primary and most significant advantages of Nd:YVO4 are high absorption coefficient, significantly stimulated emission cross-section and wide absorption band. The absorption peak is about 808 nm. Because of these advantages, tiny crystals can be used to make smaller laser devices. Another feature of Nd:YVO4 crystal is this uniaxial, which makes it emit linearly polarized lights. It is combined with frequency doubling crystals to enable an all-solid-state laser with green, blue, and red wavelengths.
Nd:YVO4 crystal case (1) for 1064 nm laser
Size: 3×3×5 mm;
Coating: S1: [email protected]&[email protected] nm;
S2: [email protected]&[email protected] nm
Nd:YVO4 crystal case (2) for 1064 nm laser
Size: 2×2×0.2 mm;
2-side polishing(2mmx2mm);
Coating: S1: [email protected], T=10%@1064nm
S2: [email protected], [email protected]
Nd:YVO4 crystal case (3) for 1064 nm laser
Size: 2×2×4 mm;
Side 1: [email protected] (R<3%) + [email protected] (R>99.85%);
Side 2: [email protected] (R<0.15%) + [email protected] (R>98%)
Nd:YVO4 crystal case (4) for 1064 nm laser
Size: 4×4×10 mm, 4×4×30 mm;
Coating: AR/[email protected] & 888nm & 1064nm (3 wavelength), R<0.2% on 4*4 mm surface
Nd:YVO4 crystal case (5) for 1064 nm laser
Size: 3×3×5 mm;
a-cut;
S1&S2: [email protected] 808 nm @ 1064 nm
Nd:YVO4 crystal case (6) for 1064 nm laser
Size: 2×2×4 mm;
a-cut;
Flat/Flat faces, no intentional tilt of the faces;
Uncoated
Optical Communication
457nm laser
- High absorption coefficient
- Large stimulated emission cross-section
- Wide absorption bang
- High damage threshold
- Uniaxial crystal
- Good physical and optical property
| Nd:YVO4 crystal growth by the floating zone method Optical Materials Volume 61, November 2016, Pages 21-24 |
| Growth of Nd-doped YVO4 single crystals along 〈1 0 0〉tetra by the anisotropic heating floating zone method Journal of Crystal Growth Volume 311, Issue 20, 1 October 2009, Pages 4535-4537 |
| Dual-wavelength CW a-cut Nd:YVO4 laser at 1064.3 and 1066.7nm Optik Volume 127, Issue 20, October 2016, Pages 9073-9075 |
| Continuous-wave dual-wavelength Nd:YVO4 laser at 1066.4 nm and 1083.8 nm Optik Volume 127, Issue 11, June 2016, Pages 4824-4825 |
| Investigation of Nd:YVO4/YVO4 composite crystal and its laser performance pumped by a fiber coupled diode laser Optics Communications Volume 274, Issue 1, 1 June 2007, Pages 176-181 |
If you can’t find the Literature you want, Contact us to get the PDF Get the Literature
| A high polarization microchip green laser with dual Nd:YVO4 crystal Optics & Laser Technology Volume 44, Issue 2, March 2012, Pages 370-373 |
| Laser properties of different Nd-doped concentration Nd:YVO4 laser crystals Optics and Lasers in Engineering Volume 38, Issue 6, December 2002, Pages 527-536 |
| Thermal effect investigation and passively Q-switched laser performance of composite Nd:YVO4 crystals Optics & Laser Technology Volume 68, May 2015, Pages 146-150 |
| Improved direct bonding method of Nd:YVO4 and YVO4 laser crystals Ceramics International Volume 31, Issue 8, 2005, Pages 1085-1090 |
| Growth, morphology and laser performance of Nd:YVO4 crystal Journal of Crystal Growth Volume 200, Issues 1–2, 1 April 1999, Pages 199-203 |
| Growth, spectra and influence of annealing effect on laser properties of Nd:YVO4 crystal Optical Materials Volume 14, Issue 1, March 2000, Pages 25-30 |
| Optical properties of planar waveguide in Nd:YVO4 crystal formed by swift Kr8+ ion irradiation Nuclear Instruments and Methods in Physics Research Section B: Beam Interactions with Materials and Atoms Volume 307, 15 July 2013, Pages 459-462 |
| Radiation damage study of MeV ions-implanted Nd:YVO4 crystal Materials Science and Engineering: BVolume 178, Issue 20, 1 December 2013, Pages 1464-1468 |
| The hydrothermal synthesis, solubility and crystal growth of YVO4 and Nd:YVO4 Journal of Crystal GrowthVolume 310, Issue 20, 1 October 2008, Pages 4472-4476 |
| Investigation of LD end-pumped Nd:YVO4 crystals with various doping levels and lengths Optics & Laser TechnologyVolume 33, Issue 1, February 2001, Pages 47-51 |
| Heat treatment and optical absorption studies on Nd:YVO4 crystal Journal of Crystal GrowthVolume 311, Issue 3, 15 January 2009, Pages 912-915 |
| Analysis of ion implanted waveguides formed on Nd:YVO4 crystals Optics CommunicationsVolume 240, Issues 4–6, 15 October 2004, Pages 351-355 |
| Nd:YVO4 single crystal fiber growth by the LHPG method Journal of Crystal GrowthVolume 229, Issues 1–4, July 2001, Pages 184-187 |
| Nd:YVO4 crystal growth by Czochralski technique with a submerged plate Journal of Crystal GrowthVolume 311, Issue 22, 1 November 2009, Pages 4652-4659 |
| Photoluminescence properties of Nd:YVO4 single crystals by multi-die EFG method Optical MaterialsVolume 26, Issue 4, September 2004, Pages 347-350 |
| Possible trends for the growth of low scattering Nd:YVO4 laser crystals; phase relations-growth techniques Journal of Crystal GrowthVolume 172, Issues 3–4, 1 March 1997, Pages 466-472 |
| Defects in large single crystals Nd:YVO4 Journal of Crystal GrowthVolume 226, Issue 4, August 2001, Pages 511-516 |
| LHPG and flux growth of various Nd:YVO4 single crystals: a comparative characterization Materials Research BulletinVolume 33, Issue 10, October 1998, Pages 1457-1465 |
| Optical properties of EFG grown Nd:YVO4 single crystals dependent on Nd concentration Journal of Crystal GrowthVolumes 237–239, Part 1, April 2002, Pages 745-748 |
| Interferometric studies on a diode-pumped Nd:YVO4 laser with frequency-shifted feedback Optics CommunicationsVolume 121, Issues 4–6, 1 December 1995, Pages 137-140 |
| High mobility thin film transistors by Nd:YVO4-laser crystallization Thin Solid FilmsVolume 383, Issues 1–2, 15 February 2001, Pages 143-146 |
| Growth of Nd:YVO4 single-crystal plates by the edge-defined, film-fed growth technique Journal of Crystal GrowthVolume 305, Issue 1, 1 July 2007, Pages 181-184 |
| Numerical study of nonlinear dynamics in a pump-modulation Nd:YVO4 laser with humped modulation profile Optics CommunicationsVolume 285, Issue 6, 15 March 2012, Pages 1366-1370 |
Parameter
| Concentration Tolerance (atm%) | 0.5%, 1.1%, 2.0%, 3.0% |
| Orientation | A-cut or C-cut |
| Parallelism | 20〞 |
| Perpendicularity | 5〞 |
| Surface Quality | 10/5 Scratch/Dig per MIL-O-13830 B |
| Wavefront Distortion | <λ/8 @633nm |
| Surface Flatness | λ/[email protected] 633 nm |
| Clear Aperture | >90% |
| Chamfer | ≤[email protected] |
| Dimension Tolerance | (W±0.1mm)x(H±0.1mm)x(L+0.2/-0.1mm) (L<2.5mm) |
| (W±0.1mm)x(H±0.1mm)x(L+0.5/-0.1mm) (L≥2.5mm) | |
| Angle Tolerance | ≤0.5° |
| Damage Threshold[GW/cm2 ] | >1 for 1064nm, TEM00, 10ns, 10Hz (AR-coated) |
| Coatings | [email protected][email protected]/[email protected]+532nm |
| Crystal Structure | Zircon Tetragonal, space group D4h-I4/amd |
| Lattice Constants | a=b=7.12, c=6.29 |
| Density | 4.22g/cm3 |
| Melting Point | 1825 |
| Thermal Conductivity /(W·m-1·K-1@25°C) | 5.2 |
| Thermal Optical Coefficient(dn/dT) | dno/dT=8.5×10-6/K; dne/dT=2.9×10-6/K |
| Thermal Expansion /（10-6·K-1@25°C ） | a = 4.43, c= 11.4 |
| Hardness (Mohs) | 4~5 |
| Laser Wavelength | 1064nm, 1342nm |
| Polarized Laser Emission | π polarization; parallel to optic axis (c-axis) |
| Pump Wavelength | 808nm |
| Intrinsic Loss | 0.02cm-1 @1064nm |
| Diode Pumped Optical to Optical Efficiency | >60% |
| Emission Cross Section | 25×10-19cm2@1064nm |
| Fluorescence Lifetime | 90 μs (about 50 μs for 2 atm% Nd doped) @ 808 nm |
| Gain Bandwidth | 0.96nm @1064nm |
| Refractive Index | 1.9573(no); 2.1652(ne) @1064nm |
| 1.9721(no); 2.1858(ne) @808nm | |
| 2.0210(no); 2.2560(ne) @532nm | |
| Absorption Coefficient | 31.4 cm-1 @ 808 nm |
| Absorption Length | 0.32 mm @ 808 nm |
| Gain Bandwidth | 0.96 nm (257 GHz) @ 1064 nm |
Leonid Kulik says
Dear Sirs, could you provide the laser crystals under our request according to the specification below:
It must be three crystals glued together with a coating: the 1st – quartz crystal (SiO2), the 2nd – Neodymium Doped Yttrium Vanadate crystal (Nd:YVO4), and the 3rd – KTP – Potassium Titanil Phosphate crystal (KTiOPO4) . The length of the 1st (quartz crystal) is 0.6 +/-0.1 mm, the length of the 2nd (Nd:YVO4) crystal is 0.7 +/-0.1 mm, and the length of the 3rd KTP crystal is 1.7 +/- 0.1 mm. The required Nd:Doping Level is 2.0 atm %. The common length of this crystal must be 3+/- 0.1 mm, the diameter should be as small as you can do it, i.e. 1 or 2mm. It will be a sample to understand how it will fit to our purpose. For another quality requirements please see specification below:
Dimensional Tolerance ……………………………………………………… +0.1/-0.1mm
Input diod pump …………………………………………………..808nm
Output wavelength…………………………………………………532nm
Coating Type
Incident Surface ……………………………. HR R>99.8% @1064nm
………………………………………………………HT R99% @532nm
Output Surface ……………………………… HR R>99.8% @1064nm
………………………………………………………HT R<5% @532nm
Please give us the response as soon as possible about the quality of your crystal such like surface quality, flatness and so on, and the time you need for fabrication this crystal and last, but not least – the price for such a sample and further the price for a commercial set depending on the amount of a crystals there.
Takashi Arisawa, says
Nd:YVO4
2pieces
0.5%
S1:AR1064,808nm S2:HR1064,AR808
size:5x5x10mm
We would like to know price and delivery.
Yudin Nikolay Nikolaevich says
Hello, I represent the company “laboratory of optical crystals” LLC. We need optical elements. Interested in the possibility of manufacturing and delivery price.
Plane-parallel plates for the LIO filter made of unalloyed YVO4 (radiation tuning range 3-5 microns).
the diameter of the plates d= 40 mm.
Material-YVO4 plate thickness: 12 mm, 6mm, 3mm, 1, 5 mm, 0.75 mm
The plates must be cut parallel to the optical axis C (to change the birefringence depending on the rotation of the plate relative to the normal to the surface of one of the working sides).
Sincerely, leading optician of LLC “laboratory of optical crystals” Yudin Nikolay Nikolaevich.