CY8676 ITO Coated Glass Substrate 5-7 Ohm/Sq 100x100x1.1 mm

ITO Coated Glass Substrate 5-7 Ohm/Sq 100x100x1.1 mm Description

Experience the reliable performance of our ITO Coated Glass Substrate, featuring a 5–7 Ohm/Sq sheet resistance and uniform conductivity across its 100 x 100 x 1.1 mm dimensions. The indium tin oxide layer delivers a stable electrical interface while maintaining high optical clarity, making it ideal for a wide range of precision applications. Engineered with a scratch-resistant surface, this substrate promises longevity and consistent conductivity, even under demanding conditions.

Designed to meet exacting industry standards, each batch undergoes strict quality checks to ensure premium performance. Whether used in advanced display panels, touch sensors, or research prototypes, our ITO Coated Glass Substrate provides a dependable foundation for technologies. Trust in its proven track record and count on it to deliver exceptional results.

ITO Coated Glass Substrate 5-7 Ohm/Sq 100x100x1.1 mm Applications

This advanced indium tin oxide (ITO) coated glass substrate delivers reliable conductivity with a surface resistivity of 5-7 Ohm per square, making it ideal for transparent conductive applications. Its superb optical clarity and stable electrical performance enable precise control over light transmission and heat reflection. At 100x100x1.1 mm, it offers durability for prototyping and small-scale production in various commercial, industrial, and research fields.

1. Industrial Applications

·         Electronics Production: Used as a transparent electrode in displays and touch panel assemblies for precision manufacturing lines.

·         Process Monitoring: Integrated into sensors for chemical and petrochemical facilities, ensuring accurate measurements and stable performance.

2. Research Applications

·         Material Science Experiments: Serves as a durable, conductive base for prototyping sensor designs and investigative studies.

·         Renewable Energy Studies: Acts as a transparent conductive layer in photovoltaic experiments and solar cell development.

3. Commercial Applications

·         Medical Device Interfaces: Enables high-quality touchscreens in diagnostic equipment due to its clarity and conductivity.

·         Consumer Electronics: Used in interactive displays and wearables requiring transparent conductive layers for user experiences.

ITO Coated Glass Substrate 5-7 Ohm/Sq 100x100x1.1 mm Packaging

These fragile ITO Coated Glass Substrates (5-7 ohm/sq, 100x100x1.1 mm) are packaged in foam-lined, electrostatic discharge (ESD)-safe boxes that shield against physical damage and static build-up. Desiccant packets keep them dry, while sealed plastic liners prevent dust and contaminants. They should be stored in a humidity-controlled, temperature-stable environment to maintain performance. Custom packaging options, such as vacuum sealing or specialised labels, are available to meet specific handling requirements.

Packaging: Vacuum sealed, Wooden Box, or Customised.

ITO Coated Glass Substrate 5-7 Ohm/Sq 100x100x1.1 mm FAQs

Q1: What are the key material properties of ITO Coated Glass Substrate 5-7 Ohm/Sq 100x100x1.1 mm?

A1: Indium tin oxide (ITO) coatings on this substrate deliver excellent electrical conductivity, maintaining a surface resistivity between 5-7 Ohm/Sq. The glass base, measuring 1.1 mm in thickness, provides structural stability and a smooth surface for uniform coating. Its optical transparency makes it suitable for display, sensor, and optoelectronic devices. The ITO layer adheres strongly to the glass, ensuring minimal delamination under typical environmental conditions.

Q2: How should this product be handled and stored?

A2: Use clean, lint-free gloves when handling the ITO-coated surface to prevent contamination and scratches. Keep the substrate in a dust-free environment, ideally in its original packaging until needed. Avoid direct contact with sharp objects or excessive force that could damage the thin ITO layer. Store in a cool, dry area away from direct sunlight or moisture, and handle the substrate using antistatic procedures where possible.

Q3: Which quality standards and certifications apply to ITO Coated Glass Substrate 5-7 Ohm/Sq 100x100x1.1 mm?

A3: These substrates commonly adhere to established industrial and quality management standards such as ISO 9001 for consistent manufacturing processes. In many cases, they also meet RoHS requirements to limit hazardous substances, ensuring compliance with broader environmental guidelines. Manufacturers often conduct thorough optical, electrical, and adhesion tests to validate performance. Third-party inspections or certifications may confirm product reliability and adherence to commercial quality benchmarks.

Related Information

1. Material Properties and Advantages

Featuring a specialised indium tin oxide layer with a stable surface resistance of 5-7 Ohm/Sq, the 100x100x1.1 mm ITO coated glass substrate offers an optimal balance between electrical conductivity and optical clarity. Achieved through precision sputtering techniques, this substrate delivers uniform performance across various segments of the visible light spectrum, making it a reliable solution for high-resolution touch screens, display panels, and sensor-based devices.

Additionally, the carefully controlled 1.1 mm thickness provides long-lasting mechanical stability without compromising on the efficient transmission of visible light. The consistent low sheet resistance contributes to improved power distribution and signal accuracy, enhancing product longevity in complex applications such as interactive kiosks or analytical instruments. This composition ensures durability under continuous operational cycles, aligning well with the quality demands of electronic systems.

2. Applications in Advanced Industries

Employed across high-resolution display manufacturing, this ITO coated glass substrate is essential for modern electronic devices that demand precise touch sensitivity and clear visual output. Its refined conductive attributes enable stable operation in large-format monitors and interactive signage installations, ensuring consistent performance that supports intuitive user interfaces and clear image representation.

Moreover, the integrity of the glass and conductive coating makes it a sought-after component in specialised medical diagnostics and research environments. Its ability to maintain reliable conductivity while preserving excellent transparency allows for accurate readings and results in advanced imaging equipment. Combined with its mechanical resilience, this substrate offers a dependable platform for technological systems within healthcare, laboratory settings, and beyond.