OP8264 Borosilicate Window Dia. 50 mm x Thk. 3.3 mm, Uncoated

Borosilicate Window Dia. 50 mm x Thk. 3.3 mm, Uncoated Description

This uncoated borosilicate window, measuring 50 mm in diameter with a thickness of 3.3 mm, provides durability and optical clarity. Manufactured from premium borosilicate glass, it offers thermal shock resistance due to its low coefficient of thermal expansion, ensuring consistent performance in fluctuating temperature environments. Its high chemical resistance renders it suitable for demanding laboratory and industrial settings, reducing the risk of damage when exposed to various chemical agents.

Precision-engineered to meet stringent quality standards, this borosilicate window undergoes inspection to ensure minimal surface imperfections, guaranteeing light transmission and durability. Its versatile design makes it an appropriate choice for optical instruments, laser systems, and protective enclosures, where both clarity and resilience are essential. Depend on this premium borosilicate window for a reliable solution that upholds performance and quality in challenging operational environments.

Borosilicate Window Dia. 50 mm x Thk. 3.3 mm, Uncoated Applications

Borosilicate windows with a diameter of 50 mm and a thickness of 3.3 mm provide thermal resistance, optical clarity, and chemical stability. These properties make them suitable for various demanding applications, from industrial settings to research laboratories and commercial products. By withstanding high temperatures and harsh environments, these windows ensure consistent performance, precision optical transmission, and durability, making them an effective choice for applications requiring reliable transparency solutions.

1. Industrial Applications

·         High-temperature process observation: The window’s thermal shock resistance and clarity enable direct observation of furnaces and combustion systems.

·         Chemical processing inspection: Its excellent chemical inertness ensures compatibility with corrosive substances, maintaining visibility in harsh industrial settings.

2. Research Applications

·         Laser experiments: The window's low expansion coefficient and optical clarity facilitate precise beam transmission in laser setups.

·         Advanced spectroscopy: Borosilicate’s uniform thickness and transparency support accurate spectral measurements in demanding analytical research.

3. Commercial Applications

·         Protective enclosures: Utilised in display cases or protective housings, the window’s durability and clarity secure valuable items while offering unobstructed viewing.

·         Optical components: Its uniform surface and chemical resistance classify it as a preferred choice for specialised lenses and viewing ports in consumer products.

Borosilicate Window Dia. 50 mm x Thk. 3.3 mm, Uncoated Packaging

This borosilicate window is securely enclosed in a foam-lined box, secured with bubble wrap, and sealed in a dust-free plastic sleeve. It is stored in a clean, dry environment to minimise moisture exposure and particle contamination. Protective documentation is provided for reference and safe handling. Optional custom labelling, barcoding, or additional cushioning can be arranged to meet specific requirements.

Packaging: Vacuum sealed, Wooden Box, or Customised.

Borosilicate Window Dia. 50 mm x Thk. 3.3 mm, Uncoated FAQs

Q1: What are the key material properties of Borosilicate Window Dia. 50 mm x Thk. 3.3 mm, Uncoated ?

A1: Borosilicate glass is recognised for its low thermal expansion coefficient, which grants thermal shock resistance. It offers high optical clarity and transmittance across various wavelengths, making it suitable for applications such as lasers and imaging systems. Additionally, it is chemically inert and maintains dimensional stability under temperature fluctuations. The 50 mm diameter and 3.3 mm thickness provide structural integrity and consistent performance.

Q2: How should this product be handled and stored?

A2: For safe handling, always wear clean gloves to prevent fingerprints and contaminants. Support the window along its edges to reduce stress and potential fractures. Avoid sudden temperature variations, as even borosilicate glass can be stressed by extreme gradients. Store the window in a padded container or protective sleeve, separately from other components to decrease the risk of scratching. Maintain a clean, dry environment to prevent unwanted residue or moisture accumulation.

Q3: Which quality standards and certifications apply to Borosilicate Window Dia. 50 mm x Thk. 3.3 mm, Uncoated ?

A3: As it is a specialised optical component, compliance with ISO 10110 specifications for optical materials and surface quality is commonly observed. Many manufacturers also adhere to ASTM E438 for borosilicate glass properties, ensuring consistent chemical durability and thermal performance. Additional certifications, such as RoHS or REACH compliance, may apply depending on the intended usage. Each piece should meet internal QA protocols, including dimensional tolerances and visual inspection for surface defects.

Related Information

1. Material Properties and Advantages

Borosilicate glass is known for its chemical durability, making it resistant to most acids, alkalis, and corrosive substances. The uncoated nature of this 50 mm diameter and 3.3 mm thick window ensures high transmission over a broad wavelength range, serving applications that require optical clarity and minimal interference.

For this borosilicate window, a low coefficient of thermal expansion assures stable performance in conditions with frequent temperature fluctuations. Its mechanical strength reduces the risk of fractures under mild mechanical stress, while its uncoated design simplifies maintenance in settings where regular cleaning and inspections are necessary.

2. Applications in Advanced Industries

This borosilicate window finds considerable usage in advanced manufacturing sectors requiring precision optical components, such as the semiconductor and aerospace industries. By providing a barrier against outside contamination, it safeguards sensitive instrumentation and ensures consistent performance in demanding research environments.

Optical laboratories frequently incorporate these windows into spectroscopic instruments and laser systems, utilising the clarity and minimal signal distortion they provide. Moreover, the window’s broad optical transmission range supports specialised processes that rely on precise beam intensities and targeted wavelength exposure, making it essential for advanced applications.