JGS3 Fused Silica Wafers Full Spectrum
Where Can I Buy Infrared Optical Glass JGS3 Fused Silica Substrates?
JGS3 in stock items can be purchased online.
Glass is a common optical material, but it has a high OH content which can distort the image.
Problem: Glasses have a high OH content which can distort the image. This makes them unsuitable for many optical applications.
Solution: JGS3 Fused Silica is one of the most commonly used optical materials due to its low OH content. It is suitable for optical applications due to its low OH-content, and it is extremely transparent in the visible and ultraviolet spectrums. Its excellent bending resistance to shock and temperature make it an excellent material for photovoltaics and solar cells.
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JGS3 Fused Silica Transmission Curve
What Is JGS3 Fused Silica Used For?
JGS3 Fused Silica is one of the most commonly used optical materials due to its high transparency and low OH content. It is suitable for optical applications due to its high OH-content, and it is extremely transparent in the visible and ultraviolet spectrums. Its excellent bending resistance to shock and temperature make it an excellent material for photovoltaics and solar cells.
Due to its outstanding physical and chemical properties, JGS3 Fused Silica is an excellent choice for optical applications. The low OH content and low inclusion and bubble content make it an attractive material for high-end optics. Its low OH content makes it suitable for a wide range of electronic components. Its excellent thermal and radiation resistance make it a good candidate for a variety of applications.
The highest grade of JGS3 Fused Silica is used in optical applications. Its high transparency and low OH content make it an excellent choice for these applications. Because of its spectral range, JGS3 is very chemical and thermal shock resistant. It is also very hard and resistant to abrasion. In addition, it is highly compatible with various electronic components. Its high quality also makes it a popular choice for high-end optical systems.
Fused Silica is the glassy form of quartz. It is tough and hard and has a very low expansion. It is known for its use in wristwatches and electronic systems. Its high IR absorption makes it a good material for optical components. And thanks to advances in raw material beneficiation, it can even be transparent. It is used for a variety of high-performance applications.
What Does JGS3 Full Spectrum Fused Silica Mean?
When you need a substrate that can handle very high temperatures and work as an insulator in semiconductors, then JGS2 Grade Fused Silica Wafers is the right choice.
JGS3 windows are fabricated with very high-purity sand in a vacuum pressure furnace, also called electrofusion method. JGS3 has a transmittance over 85% and its application range is in the 260-3500 nm range of optical materials.
| Parameter Value | JGS3 |
| Max Size | <200mm |
| Tramission Range (medium transmission ratio) | 0.185~3.50um (Tavg>85%) |
| OH-Content | 5ppm |
| Fluorescence (ex 254nm) | Strong v-b |
| Impurity Content | 40-50 ppm |
| Birefringent constant | 4-10 nm/cm |
| Melting Method | Electrical Method |
What other Fused Silica Wafer Grades are Available?
Other fused silica wafer grades and their applications include:
What is JGS3 Fused Silica?
JGS3 Fused Silica is an insulating glass that possesses excellent optical properties in the ultraviolet and visible spectral ranges. Its high OH-concentration causes absorption bands that range from 1.2 to 1.5 mm. It is highly transparent in the IR and deep UV spectral regions. However, it is more expensive than Silicon and Calcium Fluoride. Its optical properties are similar to those of ZnS Multi-spectral grade and Heraeus Suprasil 300.
As a result of its high OH-content, JGS1 wafers have very high transparency and a wide spectral range. It is also chemically resistant and can withstand temperature changes up to 1000 degrees Celsius without cracking. In addition, JGS3 is extremely durable and has excellent optical properties, including design compressive strength. It is more resistant to chemical and heat shocks than other types of glass.
JGS3 Fused Silica is made from naturally occurring crystal quartz. It is produced using an electric vacuum furnace, which provides a low water content of less than 5 parts per million. The low inclusion, bubble, and striae content make it ideal for optics. The material is also non-hygroscopic and thermal shock resistant. It is extremely hard and is therefore a superior choice for optical applications.
The advantages of JGS3 Fused Silica are vast. Its high transparency is unmatched, and it has low OH content. It is also suitable for high-temperature applications. Its low OH-content makes it a highly versatile material. It has exceptional transparency in the ultraviolet and visible ranges. Further, its high OH-content makes it a good candidate for optical components. It can also be used in photovoltaic and solar cells.
The highest quality JGS3 Fused Silica is the best material for optical applications. Its high transparency is the hallmark of high-end optics. Its low OH content makes it highly attractive to manufacturers and consumers. Its good thermal and radiation resistance makes it a popular choice for many other applications. In addition, it's compatible with a variety of electronic components. Regardless of its application, JGS3 Fused Silica is highly versatile.
The benefits of JGS3 Fused Silica are mainly derived from its excellent optical properties. Its low OH-content makes it a good candidate for optical systems. It is highly transparent in the visible and UV wavelength range. It is also very resistant to shock. Its high OH-content also allows it to resist bending. This material is an excellent material for photovoltaics. If you're considering using it in lasers, you should make sure that it meets the minimum requirements of the industry.
The highest purity JGS3 Fused Silica is the most popular choice for high-end optical devices. Due to its high OH-content, JGS3 is the ideal choice for semiconductors. Its low OH-content and high transparency make it ideal for semiconductor and optical applications. This material is also excellent for machining in the pharmaceutical and chemical industries. You can find it in your local market. In addition, JGS3 is a popular choice for high-end glass.
High transparency: This material has the highest transparency. The high OH-content of JGS3 makes it a great choice for high-end optical devices. Its low OH-content makes it a good candidate for use in optical materials. It is also ideal for a wide range of applications. Among its uses are in a variety of industries. For example, optical parts for semiconductor manufacturing are made of glass that can withstand a higher OH-content.
The highest transparency and low OH-concentration of JGS3 Fused Silica are common in semiconductor applications. Its low OH-content is beneficial for optical parts in the semiconductor industry. It is transparent over a wide spectral range of wavelengths, including the visible and deep UV. Despite the high OH-content, JGS3 Fused Silica has a high degree of transparency.
A thin fused silica wafer is a transparent, amorphous material that has high transmittance and low thermal expansion. Its thermal expansion coefficient is small, and it can withstand extreme temperature changes. A glass heated to 1100°F will not explode in water at room temperature. Additionally, JGS3 Fused Silica has high light transmittance throughout the visible and infrared spectral ranges.
JGS3 Fused Silica for Optical Coatings
Fused Silica Wafers is a type of molten UV silica wafer originally developed to measure the quality of optical coatings. The standard thickness of a molten silicon transfer is 500, 700 or 1000 mm, but JGS2 wafers are made with smaller diameters, which are bubble-free and can be very thin. [Sources: 1]
In the visible range, the transmission of quartz glass is also high, but the ultraviolet range is larger. In the infrared range, the spectral transmission is large for ordinary glass, but small for quartz. The reflection of quartz glass is generally 8%, the reflection of silicon wafers is only 2%. [Sources: 0]
An optic with a thickness of 1 cm has a transmission of about 50% at wavelengths below 170 nm, while it drops to only a few percent at 160 nm and to about 10% at 180 nm. [Sources: 3]
Absorption in the visible band is caused by the presence of transition metal ions, and absorption at 2730 nm is an absorption peak of hydroxyl that can be used to calculate the hydroxyl value. In the infrared range, the absorption of the metal ion OH (1,2,3,4,5,6,8,11,13,14,15,16,18,19,21,22,23,24,25,26,27,28,29,30,32,34,35,37,38,39,40,42,43,44,45,
46,47,48,49,50,52,53,54,55,56, 55, 56, 57, 58, 59, 60, 61, 62, 63, 64, 65, 66, 67, 68, 69, 70, 71, 72, 73, 74, 75, 76, 78, 79, 80, 81, 82, 83, 84, 85, 86, 88, 89, 90, 91, 92, 93, 94, 95, 96, 97, 98, 99, 100, 102, 103, 104, 105, 106, 107, 108, 109 The UV absorption already starts at approx. Contains a large amount of hydryl (2000 ppm), has an excellent UV transmission performance and an excellent UV transmission performance. Absorption for visible bands causes the absence of heavy metals, but also in the infrared range, due to a high concentration of hydrocarbons. [Sources: 0, 1]
Spectral transmission is much better than with any other type of glass, and the bubble - strip uniformity and birefringence are comparable to ordinary optical glasses. Chemical stability is good, but the transmission power is significantly better than other types of glasses, especially in the short-wave UV range; especially for short-wave and UV regions. [Sources: 0]
JGS1 is transparent in the ultraviolet and visible ranges and has an absorption range of 170 - 250 nm wavelength intervals. It has absorption bands in 185 to 250% of the spectral range, but a very low absorption range of less than 5 nm with a maximum of 1.5 nm. JGS 1 has no cushioning tape on 170 to 250 Nm wavelength interval, except for the visible range. [Sources: 1, 2]
It is transparent in the ultraviolet and visible ranges and has an absorption range in wavelength intervals of 170 - 250 nm. In the visible range, it has absorption bands in 185 to 250% of the spectral range, but a very low absorption range of less than 5 nm with a maximum of 1.5 nm. It has an OH absorption band in the 2700 nm water band and there is a strip particle structure, so the application should not be sensitive to inclusion. The elements that are built into large parts will most likely contain bubbles, and this is the main reason for the high concentration of bubbles in JGS 3. [Sources: 0, 2]
We can send you a drawing of the final product and we will make you an offer and you can also send us your drawings of your product in the form of a PDF file. [Sources: 3]
The JGS2 grade offers excellent performance in all cases where this is the primary goal, and the shape provides a high degree of shelf life and high quality of the end product. We meet customer demand for processing while saving costs and in some cases even high demand. [Sources: 2, 3]
The JGS3 combines outstanding physical properties with outstanding performance in the shortwave and ultraviolet ranges of the electromagnetic spectrum. By adding a small amount of TiO2, the UV light is filtered out at 220 nm, which is called ozone-free quartz glass. It has excellent ultraviolet transmission, with a short-wave ultraviolet range that is much better than other glasses. Shortwave up to 340 Nm can be filtered out by adding quartz glass and small amounts of titanium dioxide, a high-performance, low-cost, non-oxidizing material that filters ultraviolet to 220 nm and is called "ozone-free" quartz glass. [Sources: 0, 2]
A thin article made of quartz glass, which is quenched by immersion in cold water for 1000 dollars without breaking, is available. A wide range of quartz used - molten quartz - combines with the JGS3, with the use of quartz carrying the additional risk of thermally induced fractures, but without the high cost and additional risks of using the quartz. [Sources: 3]
Quartz glass has a higher melting point than highly chilled cristobalite and can undergo large and rapid temperature changes without cracking. Quartz, however, can undergo a larger and faster temperature change before cracking, accompanied by a large reduction in density, which leads to cracking and splintering. [Sources: 1, 3]