Leaders in Solid State Laser Components. Kigre Laser Glass

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Kigre Laser Glass With more than 30 years of development and manufacturing experience Kigre, Inc. has earned its reputation as a recognized specialist in laser glass formulation, fabrication, and precision machining and polishing. In the early 1970s, Kigre acquires the basic patens and let the industry by developing high gain, platinum free phosphate laser glasses with optical and damage resistant properties not thought possible only a few years earlier. To ensure the highest quality Kigre s specialty glass melt facilities are maintained in a sealed dry area capable of humidity levels below 10%. Kigre also utilized proprietary chemical purification techniques to prepare the starting chemicals. Q-246 A Neodymium-doped silicate laser glass known for its high strength and durability. It is the laser glass of choice for a wide range of applications. In addition to it s excellent optical quality and durability Q-246 salient features include: 1. High Gain- Tests have shown Q-246 is unsurpassed in gain relative to other silicate laser glasses. 2. Non-Solarizing- Protection against solerazation and bleaching by a proprietary anti-solarant. 3. Tough- A modulus of rupture of 1.5 x10 4 psi. QE-7 Erbium-doped phosphate laser glass is four times more efficient than Erbium silicate laser materials developed in the 1960s. What s more, its unique eye-safe operating wavelength of 1.535 microns makes it ideal for specialized medical apparatus as well as field-safe range finder applications. QE-7S This sensitized version of QE-7 also is available for a wide range of applications. Q-88 A platinum-free phosphate laser glass renowned for its high gain and exceptional durability in high peak power environments. Used exclusively for a decade in the disk amplifiers of the KMS laser fusion facility, Q-88 performs superbly in range finder applications.

Q-89 A platinum-free athermal phosphate laser glass with improved strength for high power, high repetitive rate laser systems. Q-89 combines the high gain and high damage-threshold properties of the phosphate glasses with the high strength and durability characteristics of the silicate glasses. It is ideal for fusion and other scientific applications because of its high gain, constant beam divergence, and liquid-cooling capability. Q-98 A Neodymium=doped athermal phosphate laser glass of exceptional optical quality offering high gain and athermal behavior. The result- higher repetition rates with minimum beam divergence. Q-98 s high thermal loading and liquid-cooling capabilities make it ideal for fusion and other scientific applications. Q-100 Used in applications where the highest possible gain is desired, the superior performance of the Neodymium=doped athermal phosphate glass results from its uniquely high Neodymium concentration. Designed for military and industrial applications, Q-100 is the YAG alternative and requires comparable precautions to suppress parasitic lasing and other performance degrading phenomena. For example, Q-100 rods generally should not be polished. In air-cooled systems, samarium cavity filters are recommended.

Properties Q-88 Q-98 Q-100 Q-246 QE-7 Laser Wavelength Peak (nm) 1054 1053 1054 1062 1535 Cross Section (x 10-20 cm 2 ) 4.0 4.5 4.4 2.9 0.8 Fluorescence Lifetime (ns) 330 350 190 330 8000 Radiative Lifetime (µs) 326 308 357 370 8800 Fluorescence Linewidth (nm) FWHM 21.9 21.1 21.2 27.7 30 Fluorescence Linewidth (nm) Effective 26.3 25.5 25.1 34.0 Loss @ Lasing Wavelength (%cm-1) 0.0008 0.0008 0.0008 0.002 0.02 Index of Refraction (n D ) 1.550 1.555 1.572 1.572 1.542 Index of Refraction @ Lasing wavelength 1.536 1.546 1.562 1.561 1.532 Nonlinear Index N2(10-13 esu) 1.1 1.2 1.2 1.4 Abbe Number 64.8 63.6 62.1 57.8 dn/dt (20-40 C) (x10-6 /C) -0.5-4.5-4.6 2.9-6.3 Thermal Coefficient of Optical Path (20-40 C) (x10-6 /C) 2.7 ±0.5 0.5 9.0 Transition Temperature 336 416 413 470 424 Deformation Temperature 385 440 432 504 443 Coeff. Of Thermal Expansion (20-40 C) (x10-7 / C) 104 99 96 90 114 Thermal conductivity (W/m K) 0.84 0.82 0.82 1.30 Specific Heat (J/g K) 0.81 0.80 0.80 0.93 DW (H2O 100 C 1HR) Wt % Loss 0.20 0.08 0.08 0.04 Density (g/cc) 2.71 3.099 3.204 2.55 2.94 Durability Knoop Hardness (kgf/mm 2 ) 418 556 558 600 Young s Modulus (x10 3 N/mm 2 ) 7123 7210 7150 8570 Poisson s Ratio 0.24 0.24 0.24 0.24 Damage Threshold (1ns) J/cm 2 >25 >25 >25 >25 >25

Fluorescence lifetime vs. Nd2O3 Concentration ND: Silicate & Nd: Phosphate

QE-7S Erbium-Doped Phosphate Laser Glass Technical specification: Properties Laser Wavelength Peak QE-7S 1535 nm Cross Section 0.8x 10-20 cm 2 Fluorescence Lifetime 8 ms Radiative Lifetime 8 ms Linewidth 30 nm FWHM Loss at lasing wavelength 0.02%/cm Index of Refraction (nd) 1.542 Index of Refraction at 1.54µm 1.531 dn/dt (20-40 C) -63x10-7 / C Transformation point 462 C Thermal expansion 114 x10-7 / C Thermal conductivity 0.82 W/m K Specific heat 0.80 J/g K Thermal-optic coefficient (W) -3x10-7 / C Density 2.94 g/cc Knoop s hardness 556 Young s modulus 7210 kg/mm 2 Poisson s ratio 0.24 Damage threshold >25 J/cm 2

QX Laser Glasses Properties QX/Nd QX/Er QX/Yb Laser Wavelength Peak (nm) 1054 1535 1032 Emission Cross Section (x 10-20cm 2 ) 3.8 0.8 0.4 Absorption Cross Section (x 10-20cm 2 ) 0.7 1.7@977nm 1.4 Fluorescence Lifetime (ns) 353 7900 2000 Fluorescence Linewidth (nm) FWHM 27.6 55.0 56.5 Index of Refraction (nd) 1.538 1.532 1.535 (nf) 1.543 (nc) 1.536 (nf)-(nc) (x10-5 ) 815 848 834 Abbe Number 66.0 63.7 61.1 Index of Refraction (laser line) 1.53 1.521 1.52 dn/dt (20-40 C) (x10-7 /C) -4-21 -21 Thermo-stress Birefr. Coeff. Q=[E/2(1-µ)](C1-C2)(x10-7 / C) 9.0 9.1 9.1 Thermo-optical Coeff. W=[dn/dT + (n-1)](x10-7/c) @ 70 C 59 41 41 Thermo-optical Coeff. W=[dn/dT + (n-1)](x10-7/c) @ 30 C 51 33 33 Transformation Temperature ( C) 506 470 450 Deformation Temperature ( C) 535 502 485 Coeff. Of Thermal Expansion (20-40 C) (x10-7/ C) 72 76 83 Coeff. Of Thermal Expansion (20-100 C) (x10-7/ C) 84 88 95 Coeff. Of Thermal Expansion (20-300 C) (x10-7/ C) 99 1.22 Nonlinear Index n2 (x10-13 esu) 1.17 1.22 2.81 Density (g/cc) 2.66 2.93 0.85 Thermal conductivity (W/mK) 0.85 0.85 67 Young s Modulus (x10+3 N/mm 2 ) 71 67 0.24 Poisson s Ratio 0.24 0.24 2.3 Stress Optical Coeff. B=[C1-C2] (x10-6 mm 2 /N) 2.1 2.3 5.1 Stress Thermal Optical Coeff. P=dn/dT-[E/2(1-µ)](C1+3C2) -3.6 5.1 5.2 Durability Knoop Hardness (kgf/mm 2 ) 503 435 435

Properties QX/Nd QX/Er QX/Yb Thermal Loading Limit, TLL (W/inch) (unstrengthened) > 300 > 150 > 300 Lamp Pumped (strengthened) 5x80 mm rod > 900 > 450 >900 Lamp Pumped (strengthened) 10x150 mm rod > 500 > 250 > 500 Conditions in both ion-exchanged strengthened and un-strengthened configurations. Note: TLL= Rupture strength. Unstrengthened QX glasses exhibit a Rupture Strength of ~10,000 psi. Strengthened QX glasses exhibit a Rupture Strength of ~40,000 psi. The TLL is strongly dependent upon rod barrel surface conditions. ET% to ions/cc: WT%(g)/100g x 2.9g/cc x 2 Er3+/382.52g/mole x 6.02 x 1023 ions/mole = ions/cc Er3+ These phosphate glass laser materials exhibit a chemical durability that is comparable to silicate glasses. EX glasses are designed to withstand high thermal loading and shock.

QX/Yb Tunable 1025-1060 nm output 975nm pump QX/Nd Lamp pump 10mm x 6 rod, 60%R OC, 2ms PW, 5.4% Slope Efficiency QX/Er 1.54 microns DC LMA Fiber Laser