CY8611 FTO Coated Glass Substrate 12-15 Ohm/Sq 50x50x2.2 mm

FTO Coated Glass Substrate 12-15 Ohm/Sq 50x50x2.2 mm Description

Our FTO Coated Glass Substrate delivers a uniform, low sheet resistance of 12–15 Ω/sq on a 50 × 50 mm panel, with a thickness of 2.2 mm designed for durability and performance. This fluorine-doped tin oxide coating ensures high optical transparency and reliable electrical conductivity, making it suitable for photovoltaics, sensors, and display technologies that require precision and consistency.

Manufactured under strict quality standards, each substrate undergoes rigorous testing to ensure minimal surface defects and consistent coating thickness. Its durability and stable electrical properties provide long-lasting performance in research, prototyping, and large-scale production. Enhance efficiency and reliable results with our FTO Coated Glass Substrate—engineered to meet demanding application requirements.

FTO Coated Glass Substrate 12-15 Ohm/Sq 50x50x2.2 mm Applications

FTO (Fluorine-doped Tin Oxide) coated glass substrates, measuring 50x50x2.2 mm, with surface resistivity of 12-15 ohms per square, combine high optical transparency and reliable conductivity. This combination makes them suitable for a variety of civilian and industrial projects, from electronic device components to renewable energy systems. Their durability and stable performance under various conditions further expand their potential across numerous sectors.

1. Industrial Applications

·         High-temperature chemical processing sensors, using transparent and conductive surfaces for accurate monitoring.

·         Automotive interior displays and touch panels, benefiting from stable conductive layers.

2. Research Applications

·         Thin-film photovoltaic experiments, where consistent sheet resistance supports test reproducibility.

·         Sensors and biosensors in laboratory work, using conductive surfaces for precision in data collection.

3. Commercial Applications

·         Interactive retail displays that require clear, responsive touch interfaces with minimal resistive loss.

·         Consumer electronics screens demanding reliable conductivity and transparency for dependable performance.

FTO Coated Glass Substrate 12-15 Ohm/Sq 50x50x2.2 mm Packaging

Each FTO Coated Glass Substrate (12-15 Ohm/Sq, 50x50x2.2 mm) is securely packaged in an antistatic, foam-padded tray to protect against mechanical impact and electrostatic discharge. A secondary sealed bag minimises contamination, while silica gel packets regulate humidity. For optimal longevity, store the substrates in a clean, dry environment. Custom packaging solutions, including vacuum-sealed or individually labelled pouches, are available to accommodate specific requirements.

Packaging: Vacuum sealed, Wooden Box, or Customised.

FTO Coated Glass Substrate 12-15 Ohm/Sq 50x50x2.2 mm FAQs

Q1: What are the key material properties of FTO Coated Glass Substrate 12-15 Ohm/Sq 50x50x2.2 mm?

A1: The fluorine-doped tin oxide (FTO) coating provides a sheet resistance of roughly 12–15 ohms per square, ensuring efficient electrical conductivity for various optoelectronic applications. The glass is 2.2 mm thick, offering both rigidity and durability. Typical optical transmittance is in the visible range of around 80–85%, and the uniform FTO layer maintains excellent haze control and surface smoothness, important for precise device performance.

Q2: How should this product be handled and stored?

A2: Handle the FTO coated glass with clean, lint-free gloves to avoid fingerprints and contaminants on the conductive surface. Store each piece separately or use non-abrasive separators to protect the coating from scratches that can impair conductivity. Maintain a stable, dry environment with low humidity to minimise moisture absorption, and avoid excessive heat or direct sunlight, as these conditions can degrade coating integrity over time.

Q3: Which quality standards and certifications apply to FTO Coated Glass Substrate 12-15 Ohm/Sq 50x50x2.2 mm?

A3: The substrate generally adheres to ISO 9001 for process quality and ISO 14001 for environmental management, ensuring consistent reliability and environmental responsibility. In addition, manufacturing often follows RoHS compliance by limiting hazardous substances within the coating materials. Some suppliers may hold additional certifications, such as CE or REACH, confirming adherence to European safety and chemical regulations for import, distribution, and device assembly.

Related Information

1. Material Properties and Advantages

This FTO Coated Glass Substrate, featuring a sheet resistance of 12-15 ohms per square and measuring 50x50x2.2 mm, stands out for its dependable electrical conductivity, making it indispensable for optoelectronic applications. Its fluorine-doped tin oxide layer exhibits high transmittance in the visible spectrum, ensuring minimal disruption of light while delivering reliable current flow across the substrate. Moreover, the uniform thickness of 2.2 mm enhances structural stability, offering a platform that can withstand mechanical stresses during manufacturing or in-field usage.

Combining conductivity with dependable optical clarity, this substrate is suitable for projects requiring visual transparency and efficient electron transport. Its carefully engineered composition provides excellent chemical resistance while maintaining a smooth surface profile. These qualities help to reduce issues such as scattering, corrosion, and degradation that may occur in aggressive environments. The balance between durability and performance positions this substrate as a preferred choice for technologies that require consistent quality.

2. Applications in Advanced Industries

Renowned for its stable electrical conductivity and enduring structural features, this FTO Coated Glass Substrate is widely adopted by manufacturers of solar cells, smart windows, and various sensor technologies. The ability of the fluorine-doped tin oxide layer to maintain a low sheet resistance under demanding conditions means it can efficiently integrate into applications such as thin-film photovoltaics and organic light-emitting diodes. Additionally, its transparent qualities make it an ideal medium for display panels requiring a high degree of optical clarity and fast switching response.

FTO-coated glass substrates have also been gaining traction in laboratory research settings, where precise and reproducible performance is paramount. Investigations into nanomaterials, catalysis experiments, and photoelectrochemical cells often rely on stable, transparent electrodes for quantifiable results. By combining conductivity, visible light transmission, and surface resilience, this substrate demonstrates versatility in industries that demand high standards and practicality.