CY8622 FTO Coated Glass Substrate 7-8 Ohm/Sq 100x100x2.2 mm

FTO Coated Glass Substrate 7-8 Ohm/Sq 100x100x2.2 mm Description

This FTO (Fluorine-Doped Tin Oxide) Coated Glass Substrate offers a precise sheet resistance of 7–8 ohms per square, making it suitable for advanced optoelectronic applications. Measuring 100 × 100 mm with a thickness of 2.2 mm, it features a uniform conductive coating that ensures reliable performance. The substrate’s high optical clarity and excellent thermal stability enable prolonged durability under various environmental conditions, providing consistent results over extended periods.

Engineered to meet demanding research and industrial standards, this FTO substrate is commonly used in the development of solar cells, sensors, and display technologies. Its chemical resistance, combined with a tightly controlled deposition process, guarantees a uniform coating thickness for optimal electrical conductivity. Choose this substrate to support precise, repeatable outcomes in your applications.

FTO Coated Glass Substrate 7-8 Ohm/Sq 100x100x2.2 mm Applications

This FTO (fluorine-doped tin oxide) coated glass substrate offers 7-8 ohms/sq of surface resistance with excellent optical transparency. The 100x100x2.2 mm form factor provides a sturdy, uniform platform for numerous high-performance applications. Thanks to its stability in various environments, low sheet resistance, and high visible light transmission, it is suitable for advanced electronics, research, and commercial projects.

1. Electronics and Semiconductor Applications

·        Transparent electrodes for touchscreens and display panels, enabling high clarity and accurate sensing

·        Low-resistance conductive layers for LED lighting assemblies and photovoltaic cells

·        Stable and uniform surfaces for wearable sensor devices, providing consistent performance over time

2. Medical and Healthcare Applications

·        Diagnostic laboratory instrumentation requiring precise electrode surfaces for accurate sample analysis

·        Biosensor platforms used in medical research, benefiting from both transparency and consistent conductivity

·        Contact-based monitoring systems that demand reliable signal collection and minimal interference

3. Industrial and Manufacturing Applications

·        Smart windows and energy-efficient glazing solutions in commercial buildings

·        Chemical processing equipment where transparent conductivity enhances process monitoring

·        Quality control instrument panels requiring durable, thin-film conductive surfaces for consistent readings

FTO Coated Glass Substrate 7-8 Ohm/Sq 100x100x2.2 mm Packaging

Each FTO Coated Glass Substrate is individually wrapped with a no-lint protective film to minimise friction. The stack is then placed in an acid-free cardboard box with foam inserts to cushion and protect edges. Substrates should be stored in a clean, low-humidity environment to prevent contamination or glass corrosion. Anti-static bags and customised labelling are available upon request to ensure secure handling and easy identification.

Packaging: Vacuum sealed, Wooden Box, or Customised.

FTO Coated Glass Substrate 7-8 Ohm/Sq 100x100x2.2 mm FAQs

Q1: What are the key material properties of FTO Coated Glass Substrate 7-8 Ohm/Sq 100x100x2.2 mm?

A1: This substrate features a uniform fluorine-doped tin oxide coating with a surface resistivity of approximately 7-8 ohms per square, ensuring stable electrical conductivity. It has high optical transmittance in the visible range, typically above 80%, depending on wavelength. The glass base measures 2.2 mm thick, providing rigidity and durability. The FTO layer is chemically bonded to the glass, offering enhanced thermal stability and consistent performance over extended periods.

Q2: How should this product be handled and stored?

A2: It is advisable to handle the FTO Coated Glass Substrate using lint-free gloves to avoid smudges, scratches, or contamination on the conductive surface. Keep the substrate in a clean, humidity-controlled environment, ideally sealed in a protective package to prevent dust accumulation. Avoid stacking without protective layers between sheets. When possible, store the product flat in a stable temperature range to maintain optimal conductivity and surface integrity.

Q3: Which quality standards and certifications apply to FTO Coated Glass Substrate 7-8 Ohm/Sq 100x100x2.2 mm?

A3: Many manufacturers produce FTO glass that complies with ISO 9001 for overall quality management and ISO 14001 for environmental management. Additionally, some suppliers provide RoHS-compliant substrates to meet hazardous substance regulations. Each batch typically undergoes rigorous optical and resistivity testing to ensure consistent performance. Depending on the application, certificates of conformity and independent laboratory testing results may also be available upon request.

Related Information

1. Material Properties and Advantages

FTO Coated Glass Substrate 7-8 Ohm/Sq 100x100x2.2 mm offers a balanced combination of transparency and electrical conductivity, making it ideal for optoelectronic applications. Its fluorine-doped tin oxide layer is uniformly deposited on the 2.2 mm thick glass surface, ensuring consistent resistance across the entire 100x100 mm area. This design provides excellent visibility with minimal haze, which is crucial for industries needing clear displays or glass assemblies without compromising conductivity.

Through meticulous doping of tin oxide with fluorine, this substrate maintains stable electrical performance even under varying environmental conditions. Its 7-8 Ohm/Sq surface resistance is carefully optimised for devices that require both high light transmission and efficient current distribution, such as transparent electrodes and advanced instrumentation interfaces. These advantages position FTO Coated Glass as a reliable option with enduring structural integrity that enhances long-term productivity in multiple technological sectors.

2. Applications in Advanced Industries

Because of its superior transparency and uniform surface resistance, this FTO coated substrate is increasingly employed in smart window technologies. Architects and engineers make use of this material for daylight-responsive glass panels, enabling improved energy management and aesthetic appeal. In addition to architectural projects, the substrate’s conductive properties make it suitable for sensors that must function consistently in rapidly changing environmental conditions.

Solar cell research leverages the FTO layer for photovoltaic devices that demand stable electrical characteristics in tandem with high visible light penetration. Flexible displays, automotive defogging systems, and specialised laboratory equipment benefit from the controlled conductivity and reliability of this substrate, particularly where precise charge transfer is essential. This diverse range of applications underscores how a single material solution can address pivotal requirements in multiple high-performance fields.