CY8609 FTO Coated Glass Substrate 12-15 Ohm/Sq 25x25x2.2 mm

FTO Coated Glass Substrate 12-15 Ohm/Sq 25x25x2.2 mm Description

This FTO (Fluorine-Doped Tin Oxide) Coated Glass Substrate offers excellent electrical conductivity and high optical transparency, making it an ideal choice for advanced research and industrial applications. With a sheet resistance of 12–15 Ohms per square, it ensures efficient current flow across a uniformly coated 25 × 25 mm surface at a thickness of 2.2 mm. The FTO layer is carefully deposited under strict quality controls, resulting in consistent film quality and adherence to demanding performance requirements.

Engineered to meet rigorous industry standards, this substrate is well-suited for use in displays, solar cells, electrochromic devices, and other optoelectronic applications. Its composition ensures durability against heat and chemical exposure. Whether developing energy solutions or sensor technologies, this FTO Coated Glass Substrate provides the platform required for reliable results.

FTO Coated Glass Substrate 12-15 Ohm/Sq 25x25x2.2 mm Applications

Fluorine-doped tin oxide (FTO) coated glass substrates combine chemical stability and high optical transmittance with low sheet resistance, making them suitable for advanced electronic and industrial applications. With a 25x25x2.2 mm form factor and a surface resistivity of 12-15 Ω/□, these substrates deliver reliable performance in demanding environments. Their unique conductive properties enable precise control of electronic signals while maintaining optical clarity.

1. Industrial Applications

·         Automotive Sensor Modules: FTO substrates provide conductivity and transparency, enhancing the sensitivity of in-vehicle sensing systems.

·         Chemical Processing Equipment: Their corrosion-resistant properties ensure minimal degradation when exposed to harsh chemical environments.

2. Research and Development

·         Thin-Film Solar Cell Prototyping: These substrates serve as a platform for testing novel photovoltaic materials with consistent conductivity.

·         Biosensor Arrays: FTO’s reliable surface conductivity facilitates accurate readings in experimental medical and environmental diagnostics research.

3. Commercial Applications

·         Smart Windows: FTO provides a transparent conductive layer, enabling dynamic light control while maintaining visibility.

·         Consumer Display Devices: Its low sheet resistance and high optical clarity support responsive touchscreens and bright digital interfaces.

FTO Coated Glass Substrate 12-15 Ohm/Sq 25x25x2.2 mm Packaging

Each FTO Coated Glass Substrate (12-15 Ohm/Sq, 25x25x2.2 mm) is packaged with protective foam inserts and sealed in an anti-static sleeve to safeguard the conductive layer. A desiccant packet is included to maintain dryness and prevent oxidation. To minimise contamination, all handling is done in a clean environment. Custom dimensions and resistance ratings are available upon request. Store in a cool, dry place to ensure longevity.

Packaging: Vacuum sealed, Wooden Box, or Customised.

FTO Coated Glass Substrate 12-15 Ohm/Sq 25x25x2.2 mm FAQs

Q1: What are the key material properties of FTO Coated Glass Substrate 12-15 Ohm/Sq 25x25x2.2 mm?

A1: This FTO coated glass substrate features a fluorine-doped tin oxide layer with a specific sheet resistance ranging from 12 to 15 ohms per square. The 2.2 mm thick soda-lime glass base provides both mechanical stability and a smooth surface for uniform coating. The conductive layer offers high optical transmission, typically above 80%, making it suitable for photovoltaic, display, and electrochemical applications. It also demonstrates thermal stability and chemical resistance.

Q2: How should this product be handled and stored?

A2: For safe handling, always wear gloves to avoid fingerprints and potential contamination on the conductive layer. Avoid bending or applying excessive force to the edges, as the 2.2 mm thickness may still be prone to mechanical stress. Store the substrates in a clean, low-humidity environment to prevent oxidation or potential surface damage, preferably in their original packaging or anti-static containers.

Q3: Which quality standards and certifications apply to FTO Coated Glass Substrate 12-15 Ohm/Sq 25x25x2.2 mm?

A3: These FTO coated glass substrates are typically produced under ISO 9001-certified quality management systems, ensuring consistent thickness, sheet resistance uniformity, and surface flatness. They often meet RoHS and REACH compliance by limiting hazardous substances and restricting harmful chemicals. Many manufacturers also conduct in-house or third-party testing for adhesion, durability, and spectral transmission to meet stringent industry standards for photovoltaic, display, and research applications.

Related Information

1. Material Properties and Advantages

Combining a fluorine-doped tin oxide layer with a glass substrate measuring 25x25x2.2 mm ensures electrical conductivity. This FTO coating, rated at 12-15 ohms per square, optimises the substrate for uniform current distribution while maintaining high optical transparency. The low electrical resistivity contributes to improved performance in optoelectronic applications, where precise electrical control is essential.

Adjusting the substrate thickness to 2.2 mm balances durability with minimal bulk, making it suitable for integrated device designs. FTO coated glass with these specific dimensions also resists thermal stress, thus fostering stable performance under various temperature conditions often encountered in solar energy devices or transparent electronics.

2. Applications in Advanced Industries

Mentioning the wide scope of uses, FTO coated glass substrates with a sheet resistance of 12-15 ohms per square play a vital role in flexible displays, integrated lighting systems, and photovoltaics. They provide a foundation for emerging technologies such perovskite solar cells, where stable conductivity and high transparency are essential.

Focusing on research-grade prototypes, this 25x25x2.2 mm substrate dimension allows for easy testing and precise placement within compact electron transport layers. Its consistent surface and conductivity ensure that advancements in energy storage or display modules can be scaled effectively without altering fundamental design elements.