Synthetic quartz glass
High-purity SiCl4 is fused in an oxyhydrogen flame to produce bubble-free material with good optical properties.
Specification Snapshot
Dimensions [Model=F-HUV1; Figure 1]
~Φ350
Operating Wavelength [Model=F-HUV1; Footnote *5]
180–2100 nm
Dimensions [Model=F-HUV2; Figure 1]
~Φ400
Operating Wavelength [Model=F-HUV2; Footnote *5]
180–2100 nm
Dimensions [Model=F-HUV3; Figure 1]
~Φ400
Operating Wavelength [Model=F-HUV3; Footnote *5]
180–2100 nm
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Overview
High-purity SiCl4 is fused in an oxyhydrogen flame to produce bubble-free material with good optical properties.
Specifications
| Parameter | Value |
|---|---|
| Dimensions [Model=F-HUV1; Figure 1] | ~Φ350 |
| Striae [Model=F-HUV1; Figure 2; Footnote *1 has no accompanying definition] | 3D |
| Optical Homogeneity Δn [Model=F-HUV1; A; 200mm; Figure 2 footnote *2] | <2 ×10^-6 |
| Optical Homogeneity Δn [Model=F-HUV1; B; Φ350mm; Figure 2 footnote *2] | 3~5 ×10^-6 |
| Stress (Birefringence) [Model=F-HUV1; Figure 2 row A] | 2 nm/cm |
| Stress (Birefringence) [Model=F-HUV1; Figure 2 row B] | 2~4 nm/cm |
| Fluorescence [Model=F-HUV1; Footnote *3] | None |
| Excimer durability [Model=F-HUV1; Footnote *3; Note*4 has no accompanying definition] | Requirement: Note*4 |
| Operating Wavelength [Model=F-HUV1; Footnote *5] | 180–2100 nm |
| Dimensions [Model=F-HUV2; Figure 1] | ~Φ400 |
| Striae [Model=F-HUV2; Figure 2; Footnote *1 has no accompanying definition] | 3D |
| Optical Homogeneity Δn [Model=F-HUV2; A; 200mm; Figure 2 footnote *2] | <2 ×10^-6 |
| Optical Homogeneity Δn [Model=F-HUV2; B; Φ400mm; Figure 2 footnote *2] | 3~5 ×10^-6 |
| Stress (Birefringence) [Model=F-HUV2; Figure 2 row A] | 2 nm/cm |
| Stress (Birefringence) [Model=F-HUV2; Figure 2 row B] | 2~4 nm/cm |
| Fluorescence [Model=F-HUV2; Footnote *3] | None |
| Excimer durability [Model=F-HUV2; Footnote *3; Note*4 has no accompanying definition] | No requirement |
| Operating Wavelength [Model=F-HUV2; Footnote *5] | 180–2100 nm |
| Dimensions [Model=F-HUV3; Figure 1] | ~Φ400 |
| Striae [Model=F-HUV3; Figure 2; Footnote *1 has no accompanying definition] | 3D |
| Optical Homogeneity Δn [Model=F-HUV3; A; 200mm; Figure 2 footnote *2] | <2 ×10^-6 |
| Optical Homogeneity Δn [Model=F-HUV3; B; Φ400mm; Figure 2 footnote *2] | 3~5 ×10^-6 |
| Stress (Birefringence) [Model=F-HUV3; Figure 2 row A] | 2 nm/cm |
| Stress (Birefringence) [Model=F-HUV3; Figure 2 row B] | 2~4 nm/cm |
| Fluorescence [Model=F-HUV3; Footnote *3] | None |
| Excimer durability [Model=F-HUV3; Footnote *3; Note*4 has no accompanying definition] | No requirement |
| Operating Wavelength [Model=F-HUV3; Footnote *5] | 180–2100 nm |
| Dimensions [Model=F-HUV4; Figure 1] | ~Φ650 |
| Striae [Model=F-HUV4; Figure 2; Footnote *1 has no accompanying definition] | 1D |
| Optical Homogeneity Δn [Model=F-HUV4; A; 200mm; Figure 2 footnote *2] | <2 ×10^-6 |
| Optical Homogeneity Δn [Model=F-HUV4; B; Φ400mm; Figure 2 footnote *2] | 3~5 ×10^-6 |
| Stress (Birefringence) [Model=F-HUV4; Figure 2 row A] | 2~4 nm/cm |
| Stress (Birefringence) [Model=F-HUV4; Figure 2 row B] | 2~4 nm/cm |
| Fluorescence [Model=F-HUV4; Footnote *3] | None |
| Excimer durability [Model=F-HUV4; Footnote *3; Note*4 has no accompanying definition] | Requirement: Note*4 |
| Operating Wavelength [Model=F-HUV4; Footnote *5] | 180–2100 nm |
| Dimensions [Model=F-HUV5; Figure 1] | ~Φ650 |
| Striae [Model=F-HUV5; Figure 2; Footnote *1 has no accompanying definition] | 1D |
| Optical Homogeneity Δn [Model=F-HUV5; A; 200mm; Figure 2 footnote *2] | <2 ×10^-6 |
| Optical Homogeneity Δn [Model=F-HUV5; B; Φ3500mm; Figure 2 footnote *2] | 3~5 ×10^-6 |
| Stress (Birefringence) [Model=F-HUV5; Figure 2 row A] | 2~4 nm/cm |
| Stress (Birefringence) [Model=F-HUV5; Figure 2 row B] | 2~4 nm/cm |
| Fluorescence [Model=F-HUV5; Footnote *3] | None |
| Excimer durability [Model=F-HUV5; Footnote *3; Note*4 has no accompanying definition] | No requirement |
| Operating Wavelength [Model=F-HUV5; Footnote *5] | 180–2100 nm |
| Dimensions [Model=F-HUV6; Figure 1] | 800x960 / 1220x1500 |
| Striae [Model=F-HUV6; Figure 2; Footnote *1 has no accompanying definition] | 1D |
| Optical Homogeneity Δn [Model=F-HUV6; A; 100x800mm; Figure 2 footnote *2] | 6~10 ×10^-6 |
| Optical Homogeneity Δn [Model=F-HUV6; B; 1400x1200; Figure 2 footnote *2] | 10~20 ×10^-6 |
| Stress (Birefringence) [Model=F-HUV6; Figure 2 row A] | 4~8 nm/cm |
| Stress (Birefringence) [Model=F-HUV6; Figure 2 row B] | 6~10 nm/cm |
| Fluorescence [Model=F-HUV6; Footnote *3] | None |
| Excimer durability [Model=F-HUV6; Footnote *3; Note*4 has no accompanying definition] | No requirement |
| Operating Wavelength [Model=F-HUV6; Footnote *5] | 180–2100 nm |
| Dimensions [Model=F-HUV7; Figure 1] | ~Φ350 |
| Striae [Model=F-HUV7; Figure 2] | No Requirement |
| Optical Homogeneity [Model=F-HUV7; Figure 2] | No Requirement |
| Stress (Birefringence) [Model=F-HUV7; Figure 2] | No Requirement |
| Fluorescence [Model=F-HUV7; Figure 2 footnote *3] | None |
| Excimer durability [Model=F-HUV7; Figure 2] | No requirement |
| Operating Wavelength [Model=F-HUV7; Figure 2 footnote *5] | 180–2100 nm |
| Bubbles [Model=F-HUV7; Figure 2] | No Requirement |
| Refractive Index n_1530 [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3; λ=1.53000μm] | 1.44426 |
| Refractive Index n_1064 [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3; λ=1.06400μm] | 1.44964 |
| Refractive Index n_t [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3; λ=1.01398μm] | 1.45024 |
| Refractive Index n_s [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3; λ=0.8511μm] | 1.45246 |
| Refractive Index n_708 [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3; λ=0.7082μm] | 1.45514 |
| Refractive Index n_691 [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3; λ=0.69075μm] | 1.45554 |
| Refractive Index n_672 [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3; λ=0.67164μm] | 1.45600 |
| Refractive Index n_c [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3; λ=0.65627μm] | 1.45642 |
| Refractive Index n_c' [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3; λ=0.64385μm] | 1.45678 |
| Refractive Index n_He-Ne [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3; λ=0.63299μm] | 1.45701 |
| Refractive Index n_623 [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3; λ=0.62344μm] | 1.45733 |
| Refractive Index n_D [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3; λ=0.58929μm] | 1.45841 |
| Refractive Index n_d [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3; λ=0.58773μm] | 1.45846 |
| Refractive Index n_577 [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3; λ=0.57696μm] | 1.45886 |
| Refractive Index n_e [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3; λ=0.54623μm] | 1.46007 |
| Refractive Index n_492 [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3; λ=0.49161μm] | 1.46282 |
| Refractive Index n_F [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3; λ=0.48613μm] | 1.46312 |
| Refractive Index n_F' [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3; λ=0.47999μm] | 1.46353 |
| Refractive Index n_g [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3; λ=0.43596μm] | 1.46669 |
| Refractive Index n_h [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3; λ=0.40477μm] | 1.46962 |
| Refractive Index n_i [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3; λ=0.36512μm] | 1.47455 |
| Refractive Index n_334 [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3; λ=0.33415μm] | 1.47979 |
| Refractive Index n_313 [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3; λ=0.31266μm] | 1.48450 |
| Refractive Index n_289 [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3; λ=0.28936μm] | 1.49105 |
| Refractive Index n_270 [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3; λ=0.26988μm] | 1.49812 |
| Refractive Index n_254 [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3; λ=0.25373μm] | 1.50554 |
| Refractive Index n_248 [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3; λ=0.24800μm] | 1.50846 |
| Refractive Index n_229 [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3; λ=0.22887μm] | 1.52121 |
| Refractive Index n_215 [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3; λ=0.21451μm] | 1.53378 |
| Refractive Index n_194 [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3; λ=0.19423μm] | 1.55896 |
| Refractive Index n_185 [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3; λ=0.18495μm] | 1.57511 |
| Refractive index error range [General optical parameters of synthetic quartz; Calculated from relevant measurements in dry nitrogen at 25℃ and 1013hPa; Figure 3] | ±2.0×10^-5 |
| Refractive Index n_d [General optical properties of synthetic quartz; Separate table at the upper right of Figure 3] | 1.45849 |
| Refractive Index n_e [General optical properties of synthetic quartz; Separate table at the upper right of Figure 3] | 1.46011 |
| Abbe Number ν_d [General optical properties of synthetic quartz; Separate table at the upper right of Figure 3] | 67.72 |
| Abbe Number ν_e [General optical properties of synthetic quartz; Separate table at the upper right of Figure 3] | 67.58 |
| Dispersion n_d−n_c [General optical properties of synthetic quartz; Separate table at the upper right of Figure 3] | 0.00677 |
| Dispersion n_f'−n_c' [General optical properties of synthetic quartz; Separate table at the upper right of Figure 3] | 0.00681 |
| Trace Element Impurity Content Al [Optical grade; Figure 3] | typical:≤0.05 PPM |
| Trace Element Impurity Content Al [Industrial grade; Figure 3] | typical:≤0.08 PPM |
| Trace Element Impurity Content [Optical grade; Figure 3] | typical:≤0.02 PPM |
| Trace Element Impurity Content [Industrial grade; Figure 3] | typical:≤0.03 PPM |
| Trace Element Impurity Content Ca [Optical grade; Figure 3] | typical:≤0.02 PPM |
| Trace Element Impurity Content Ca [Industrial grade; Figure 3] | typical:≤0.03 PPM |
| Trace Element Impurity Content K [Optical grade; Figure 3] | typical:≤0.01 PPM |
| Trace Element Impurity Content K [Industrial grade; Figure 3] | typical:≤0.01 PPM |
| Trace Element Impurity Content Fe [Optical grade; Figure 3] | typical:≤0.005 PPM |
| Trace Element Impurity Content Fe [Industrial grade; Figure 3] | typical:≤0.005 PPM |
| Trace Element Impurity Content Ti [Optical grade; Figure 3] | typical:≤0.01 PPM |
| Trace Element Impurity Content Ti [Industrial grade; Figure 3] | typical:≤0.01 PPM |
| Trace Element Impurity Content Cu [Optical grade; Figure 3] | typical:≤0.005 PPM |
| Trace Element Impurity Content Cu [Industrial grade; Figure 3] | typical:≤0.005 PPM |
| Trace Element Impurity Content Cr [Optical grade; Figure 3] | typical:≤0.005 PPM |
| Trace Element Impurity Content Cr [Industrial grade; Figure 3] | typical:≤0.005 PPM |
| Trace Element Impurity Content Mn [Optical grade; Figure 3] | typical:≤0.005 PPM |
| Trace Element Impurity Content Mn [Industrial grade; Figure 3] | typical:≤0.005 PPM |
| Partial Dispersion n_c−n_t [General properties of synthetic quartz; Figure 3] | 0.00613 |
| Partial Dispersion Ratio θ_c,t [General properties of synthetic quartz; Figure 3; Corresponding to n_c−n_t] | 0.9056 |
| Partial Dispersion n_c−n_A' [General properties of synthetic quartz; Figure 3] | 0.00248 |
| Partial Dispersion Ratio θ_c,A' [General properties of synthetic quartz; Figure 3; Corresponding to n_c−n_A'] | 0.3665 |
| Partial Dispersion n_d−n_c [General properties of synthetic quartz; Figure 3] | 0.00209 |
| Partial Dispersion Ratio θ_d,c [General properties of synthetic quartz; Figure 3; Corresponding to n_d−n_c] | 0.3093 |
| Partial Dispersion n_e−n_c [General properties of synthetic quartz; Figure 3] | 0.00371 |
| Partial Dispersion Ratio θ_e,c [General properties of synthetic quartz; Figure 3; Corresponding to n_e−n_c] | 0.5480 |
| Partial Dispersion n_g−n_d [General properties of synthetic quartz; Figure 3] | 0.00824 |
| Partial Dispersion Ratio θ_g,d [General properties of synthetic quartz; Figure 3; Corresponding to n_g−n_d] | 1.2167 |
| Partial Dispersion n_g−n_F [General properties of synthetic quartz; Figure 3] | 0.00356 |
| Partial Dispersion Ratio θ_g,F [General properties of synthetic quartz; Figure 3; Corresponding to n_g−n_F] | 0.5260 |
| Partial Dispersion n_h−n_g [General properties of synthetic quartz; Figure 3] | 0.00293 |
| Partial Dispersion Ratio θ_h,g [General properties of synthetic quartz; Figure 3; Corresponding to n_h−n_g] | 0.4323 |
| Partial Dispersion n_i−n_g [General properties of synthetic quartz; Figure 3] | 0.00785 |
| Partial Dispersion Ratio θ_i,g [General properties of synthetic quartz; Figure 3; Corresponding to n_i−n_g] | 1.1600 |
| Partial Dispersion n_c'−n_t [General properties of synthetic quartz; Figure 3] | 0.00647 |
| Partial Dispersion Ratio θ_c',t [General properties of synthetic quartz; Figure 3; Corresponding to n_c'−n_t] | 0.9499 |
| Partial Dispersion n_e−n_c' [General properties of synthetic quartz; Figure 3] | 0.00337 |
| Partial Dispersion Ratio θ_e,c' [General properties of synthetic quartz; Figure 3; Corresponding to n_e−n_c'] | 0.4952 |
| Partial Dispersion n_F'−n_e [General properties of synthetic quartz; Figure 3] | 0.00344 |
| Partial Dispersion Ratio θ_F',e [General properties of synthetic quartz; Figure 3; Corresponding to n_F'−n_e] | 0.5046 |
| Partial Dispersion n_i−n_c [General properties of synthetic quartz; Figure 3] | 0.01104 |
| Partial Dispersion Ratio θ_i,c [General properties of synthetic quartz; Figure 3; Corresponding to n_i−n_c] | 1.6209 |
| Sellmeier dispersion formula coefficients A_1 [General properties of synthetic quartz; Figure 4; No printed unit] | 0.6961852 |
| Sellmeier dispersion formula coefficients A_2 [General properties of synthetic quartz; Figure 4; No printed unit] | 0.4079779 |
| Sellmeier dispersion formula coefficients A_3 [General properties of synthetic quartz; Figure 4; No printed unit] | 0.8974798 |
| Sellmeier dispersion formula coefficients B_1 [General properties of synthetic quartz; Figure 4; No printed unit] | 0.0685886 |
| Sellmeier dispersion formula coefficients B_2 [General properties of synthetic quartz; Figure 4; No printed unit] | 0.1162043 |
| Sellmeier dispersion formula coefficients B_3 [General properties of synthetic quartz; Figure 4; No printed unit] | 9.8961609 |
| Absolute Temperature Coefficient of Refractive Index dn/dT [Temperature range −40~−20℃; e(546.1nm); General properties of synthetic quartz; Figure 4] | 7.8 ×10^-6/K |
| Absolute Temperature Coefficient of Refractive Index dn/dT [Temperature range −40~−20℃; g(435.8nm); General properties of synthetic quartz; Figure 4] | 8.2 ×10^-6/K |
| Absolute Temperature Coefficient of Refractive Index dn/dT [Temperature range −40~−20℃; h(404.7nm); General properties of synthetic quartz; Figure 4] | 8.4 ×10^-6/K |
| Absolute Temperature Coefficient of Refractive Index dn/dT [Temperature range −40~−20℃; i(360.0nm); General properties of synthetic quartz; Figure 4] | 8.7 ×10^-6/K |
| Temperature Coefficient of Relative Refractive Index dn/dT [Temperature range −40~−20℃; e(546.1nm); General properties of synthetic quartz; Figure 4] | 9.8 ×10^-6/K |
| Temperature Coefficient of Relative Refractive Index dn/dT [Temperature range −40~−20℃; g(435.8nm); General properties of synthetic quartz; Figure 4] | 10.2 ×10^-6/K |
| Temperature Coefficient of Relative Refractive Index dn/dT [Temperature range −40~−20℃; h(404.7nm); General properties of synthetic quartz; Figure 4] | 10.5 ×10^-6/K |
| Temperature Coefficient of Relative Refractive Index dn/dT [Temperature range −40~−20℃; i(360.0nm); General properties of synthetic quartz; Figure 4] | 10.8 ×10^-6/K |
| Absolute Temperature Coefficient of Refractive Index dn/dT [Temperature range −20~0℃; e(546.1nm); General properties of synthetic quartz; Figure 4] | 8.2 ×10^-6/K |
| Absolute Temperature Coefficient of Refractive Index dn/dT [Temperature range −20~0℃; g(435.8nm); General properties of synthetic quartz; Figure 4] | 8.6 ×10^-6/K |
| Absolute Temperature Coefficient of Refractive Index dn/dT [Temperature range −20~0℃; h(404.7nm); General properties of synthetic quartz; Figure 4] | 8.9 ×10^-6/K |
| Absolute Temperature Coefficient of Refractive Index dn/dT [Temperature range −20~0℃; i(360.0nm); General properties of synthetic quartz; Figure 4] | 9.2 ×10^-6/K |
| Temperature Coefficient of Relative Refractive Index dn/dT [Temperature range −20~0℃; e(546.1nm); General properties of synthetic quartz; Figure 4] | 9.9 ×10^-6/K |
| Temperature Coefficient of Relative Refractive Index dn/dT [Temperature range −20~0℃; g(435.8nm); General properties of synthetic quartz; Figure 4] | 10.4 ×10^-6/K |
| Temperature Coefficient of Relative Refractive Index dn/dT [Temperature range −20~0℃; h(404.7nm); General properties of synthetic quartz; Figure 4] | 10.7 ×10^-6/K |
| Temperature Coefficient of Relative Refractive Index dn/dT [Temperature range −20~0℃; i(360.0nm); General properties of synthetic quartz; Figure 4] | 11.0 ×10^-6/K |
| Absolute Temperature Coefficient of Refractive Index dn/dT [Temperature range 0~20℃; e(546.1nm); General properties of synthetic quartz; Figure 4] | 8.7 ×10^-6/K |
| Absolute Temperature Coefficient of Refractive Index dn/dT [Temperature range 0~20℃; g(435.8nm); General properties of synthetic quartz; Figure 4] | 9.1 ×10^-6/K |
| Absolute Temperature Coefficient of Refractive Index dn/dT [Temperature range 0~20℃; h(404.7nm); General properties of synthetic quartz; Figure 4] | 9.4 ×10^-6/K |
| Absolute Temperature Coefficient of Refractive Index dn/dT [Temperature range 0~20℃; i(360.0nm); General properties of synthetic quartz; Figure 4] | 9.7 ×10^-6/K |
| Temperature Coefficient of Relative Refractive Index dn/dT [Temperature range 0~20℃; e(546.1nm); General properties of synthetic quartz; Figure 4] | 10.1 ×10^-6/K |
| Temperature Coefficient of Relative Refractive Index dn/dT [Temperature range 0~20℃; g(435.8nm); General properties of synthetic quartz; Figure 4] | 10.6 ×10^-6/K |
| Temperature Coefficient of Relative Refractive Index dn/dT [Temperature range 0~20℃; h(404.7nm); General properties of synthetic quartz; Figure 4] | 10.9 ×10^-6/K |
| Temperature Coefficient of Relative Refractive Index dn/dT [Temperature range 0~20℃; i(360.0nm); General properties of synthetic quartz; Figure 4] | 11.2 ×10^-6/K |
| Absolute Temperature Coefficient of Refractive Index dn/dT [Temperature range 20~40℃; e(546.1nm); General properties of synthetic quartz; Figure 4] | 9.1 ×10^-6/K |
| Absolute Temperature Coefficient of Refractive Index dn/dT [Temperature range 20~40℃; g(435.8nm); General properties of synthetic quartz; Figure 4] | 9.5 ×10^-6/K |
| Absolute Temperature Coefficient of Refractive Index dn/dT [Temperature range 20~40℃; h(404.7nm); General properties of synthetic quartz; Figure 4] | 9.8 ×10^-6/K |
| Absolute Temperature Coefficient of Refractive Index dn/dT [Temperature range 20~40℃; i(360.0nm); General properties of synthetic quartz; Figure 4] | 10.2 ×10^-6/K |
| Temperature Coefficient of Relative Refractive Index dn/dT [Temperature range 20~40℃; e(546.1nm); General properties of synthetic quartz; Figure 4] | 10.6 ×10^-6/K |
| Temperature Coefficient of Relative Refractive Index dn/dT [Temperature range 20~40℃; g(435.8nm); General properties of synthetic quartz; Figure 4] | 10.8 ×10^-6/K |
| Temperature Coefficient of Relative Refractive Index dn/dT [Temperature range 20~40℃; h(404.7nm); General properties of synthetic quartz; Figure 4] | 11.1 ×10^-6/K |
| Temperature Coefficient of Relative Refractive Index dn/dT [Temperature range 20~40℃; i(360.0nm); General properties of synthetic quartz; Figure 4] | 11.5 ×10^-6/K |
| Absolute Temperature Coefficient of Refractive Index dn/dT [Temperature range 40~60℃; e(546.1nm); General properties of synthetic quartz; Figure 4] | 9.5 ×10^-6/K |
| Absolute Temperature Coefficient of Refractive Index dn/dT [Temperature range 40~60℃; g(435.8nm); General properties of synthetic quartz; Figure 4] | 9.9 ×10^-6/K |
| Absolute Temperature Coefficient of Refractive Index dn/dT [Temperature range 40~60℃; h(404.7nm); General properties of synthetic quartz; Figure 4] | 10.2 ×10^-6/K |
| Absolute Temperature Coefficient of Refractive Index dn/dT [Temperature range 40~60℃; i(360.0nm); General properties of synthetic quartz; Figure 4] | 10.6 ×10^-6/K |
| Temperature Coefficient of Relative Refractive Index dn/dT [Temperature range 40~60℃; e(546.1nm); General properties of synthetic quartz; Figure 4] | 10.6 ×10^-6/K |
| Temperature Coefficient of Relative Refractive Index dn/dT [Temperature range 40~60℃; g(435.8nm); General properties of synthetic quartz; Figure 4] | 11.1 ×10^-6/K |
| Temperature Coefficient of Relative Refractive Index dn/dT [Temperature range 40~60℃; h(404.7nm); General properties of synthetic quartz; Figure 4] | 11.4 ×10^-6/K |
| Temperature Coefficient of Relative Refractive Index dn/dT [Temperature range 40~60℃; i(360.0nm); General properties of synthetic quartz; Figure 4] | 11.7 ×10^-6/K |
| Absolute Temperature Coefficient of Refractive Index dn/dT [Temperature range 60~80℃; e(546.1nm); General properties of synthetic quartz; Figure 4] | 9.8 ×10^-6/K |
| Absolute Temperature Coefficient of Refractive Index dn/dT [Temperature range 60~80℃; g(435.8nm); General properties of synthetic quartz; Figure 4] | 10.3 ×10^-6/K |
| Absolute Temperature Coefficient of Refractive Index dn/dT [Temperature range 60~80℃; h(404.7nm); General properties of synthetic quartz; Figure 4] | 10.5 ×10^-6/K |
| Absolute Temperature Coefficient of Refractive Index dn/dT [Temperature range 60~80℃; i(360.0nm); General properties of synthetic quartz; Figure 4] | 10.9 ×10^-6/K |
| Temperature Coefficient of Relative Refractive Index dn/dT [Temperature range 60~80℃; e(546.1nm); General properties of synthetic quartz; Figure 4] | 10.8 ×10^-6/K |
| Temperature Coefficient of Relative Refractive Index dn/dT [Temperature range 60~80℃; g(435.8nm); General properties of synthetic quartz; Figure 4] | 11.3 ×10^-6/K |
| Temperature Coefficient of Relative Refractive Index dn/dT [Temperature range 60~80℃; h(404.7nm); General properties of synthetic quartz; Figure 4] | 11.6 ×10^-6/K |
| Temperature Coefficient of Relative Refractive Index dn/dT [Temperature range 60~80℃; i(360.0nm); General properties of synthetic quartz; Figure 4] | 12.0 ×10^-6/K |
| Density [General properties of synthetic quartz; Figure 5; No additional explanation, 25℃] | 2.2 g/cm³ |
| Young's Modulus [General properties of synthetic quartz; Figure 5; No additional explanation, 25℃] | 72.7 GPa |
| Shear Modulus [General properties of synthetic quartz; Figure 5; No additional explanation, 25℃] | 31.4 GPa |
| Poisson’s Ratio [General properties of synthetic quartz; Figure 5; No additional explanation, 25℃] | 0.16 |
| Flexural Strength [General properties of synthetic quartz; Figure 5; Affected by surface conditions; *1] | 65~95 MPa |
| Compressive strength [General properties of synthetic quartz; Figure 5; *1] | 1.130 GPa |
| Tensile Strength [General properties of synthetic quartz; Figure 5; Affected by surface conditions; *1] | 49 MPa |
| Torsional strength [General properties of synthetic quartz; Figure 5; *1] | 29 MPa |
| Mohs Hardness [General properties of synthetic quartz; Figure 5; No additional explanation, 25℃] | 5~6 |
| Dielectric Constant [General properties of synthetic quartz; Figure 5; 500MHz] | 3.78 |
| Dielectric loss factor [General properties of synthetic quartz; Figure 5; 500MHz; tanδ] | <1×10^-3 |
| Electrical Resistance [General properties of synthetic quartz; Figure 5; No additional explanation, 25℃] | 5×10^15 |
| Electrical Resistivity [General properties of synthetic quartz; Figure 5; No additional explanation, 25℃] | 1×10^18 |
| Strain Point [General properties of synthetic quartz; Figure 5; η=10^14.5; No unit in this original row] | 920 |
| Annealing point [General properties of synthetic quartz; Figure 5; η=10^13] | 1060 ℃ |
| Softening Point [General properties of synthetic quartz; Figure 5; η=10^7.6; Estimated by extrapolation; *2] | 1585 ℃ |
| Thermal Conductivity [General properties of synthetic quartz; Figure 5; 20℃] | 1.38 W/m·k |
| Specific Heat [General properties of synthetic quartz; Figure 5; 20℃] | 749 J/kg·K |
| Thermal Diffusivity [General properties of synthetic quartz; Figure 5; 20℃] | 7.5 ×10^-7 m²/s |
| Coefficient of Thermal Expansion [General properties of synthetic quartz; Figure 5; α; 30℃~100℃; Original first row] | 5.2 ×10^-7/k |
| Coefficient of Thermal Expansion [General properties of synthetic quartz; Figure 5; α; 30℃~100℃; Original second row] | 5.8 ×10^-7/k |
| Viscosity logη [General properties of synthetic quartz; Figure 5; Equilibrium state; 1200℃] | 11.4 |
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Supplier Information
Hubei Feilihua Quartz Glass Co., Ltd. is located in Jingzhou City, Hubei Province, a famous historical and cultural city in China.
The company is mainly engaged in the research and development and production of high-performance quartz glass, quartz fiber and composite materials, mainly serving high-tech fields such as semiconductors, optical communications, photovoltaic solar energy, high-end optics and aerospace.
It is the first quartz material supplier in China to pass the integrated circuit chip access qualification certification, and one of the few companies in the world with mass production capacity of quartz fiber.
The company was founded in 1966 and listed on the ChiNext Board of the Shenzhen Stock Exchange in 2014. It is the first listed company in China's quartz industry (stock code 300395).
It now has seven production bases in Jingzhou, Qianjiang, Wuhan, Shanghai, Hefei, Taizhou, and Jinan, as well as three major R&D platforms in Jingzhou, Wuhan, and Shanghai.
The company has passed ISO9001, ISO14001 and ISO45001 system certifications. It is now a national enterprise technology center, a special optical glass material technology innovation center, a national high-tech enterprise, a Hubei provincial enterprise technology center, a Hubei provincial high-performance quartz glass and quartz fiber engineering technology research center, a Hubei provincial postdoctoral industry base, the fifth batch of innovative pilot enterprises in China, and a Hubei provincial key laboratory of advanced optical quartz material technology.
The company adheres to the core values of "Focus, Integrity, Innovation, Enterprising" and is committed to providing global customers with overall solutions for high-performance quartz products, becoming a leader in quartz technology innovation.
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