CY8652 ITO Coated Glass Substrate 30-60 Ohm/Sq 100x100x0.7 mm

ITO Coated Glass Substrate 30-60 Ohm/Sq 100x100x0.7 mm Description

Crafted with a precise layer of indium tin oxide (ITO), this 100 x 100 x 0.7 mm glass substrate provides a transparent, conductive surface with a sheet resistance range of 30–60 Ω/sq. Its uniform coating ensures excellent conductivity across the entire panel, making it suitable for advanced electronic applications such as touchscreens, photovoltaic cells, and display panels. By combining high optical clarity with reliable electrical performance, this substrate supports accurate signal transmission and consistent device operation.

Manufactured under stringent quality standards, each ITO coated glass substrate undergoes thorough inspection to ensure consistent thickness, adhesion, and resistivity. The result is a durable and versatile material suited for a wide range of research, prototyping, or commercial development projects, offering reliability and performance that can be depended on for innovative designs.

ITO Coated Glass Substrate 30-60 Ohm/Sq 100x100x0.7 mm Applications

ITO coated glass substrates are widely used in advanced electronic applications due to their high transparency and low electrical resistance. This 30-60 ohm/sq, 100 x 100 x 0.7 mm substrate is suitable for tasks that require both conductivity and clarity. By effectively balancing optical and conductive properties, this material can be applied in multiple industries, from medical devices to commercial displays, enabling precise performance in various environments.

1. Industrial Applications

·         Manufacturing Equipment: Provides sensitive control panels and displays with clear visibility and stable electrical conductivity.

·         Automotive Touch Interfaces: Enables transparent control surfaces for dashboards and environmental controls.

2. Research Applications

·         Laboratory Sensors: Delivers reliable platforms for chemical and biological testing where transparency and conductivity are essential.

·         Prototype Electronics Development: Offers a conductive surface for experimental circuit layouts and device innovation.

3. Commercial Applications

·         Consumer Display Screens: Maintains sharp image quality while ensuring efficient touch responsiveness.

·         Smart Home Devices: Integrates into modern home systems, offering both design and dependable operation.

ITO Coated Glass Substrate 30-60 Ohm/Sq 100x100x0.7 mm Packaging

These 30-60 Ohm/Sq 100×100×0.7 mm ITO-coated glass substrates are meticulously packaged in anti-static, bubble-wrapped containers to prevent electrostatic discharge and impact damage. Each set is sealed in a clean, dust-free environment and stored at controlled temperatures and low humidity. Specialized foam inserts reduce contamination, while optional vacuum packaging is available for additional protection. Custom labeling, box sizes, and multi-layered wraps can be tailored to specific storage and transport requirements.

Packaging: Vacuum sealed, Wooden Box, or Customised.

ITO Coated Glass Substrate 30-60 Ohm/Sq 100x100x0.7 mm FAQs

Q1: What are the key material properties of ITO Coated Glass Substrate 30-60 Ohm/Sq 100x100x0.7 mm?

A1: The substrate features a thin, transparent indium tin oxide (ITO) coating that provides a surface resistivity in the 30-60 Ohm/Sq range. It offers high optical transparency (typically above 80%) and uniform conductivity across the glass surface. At 0.7 mm thickness, the underlying glass provides mechanical stability while maintaining a lightweight profile. This coating also exhibits good adhesion, ensuring reliable performance in various commercial or industrial applications.

Q2: How should this product be handled and stored?

A2: Handle the substrate with clean gloves to prevent fingerprint residues and surface contaminants. Avoid direct contact with sharp or abrasive objects to prevent scratches on the ITO coating. For storage, keep it in a clean, dust-free environment at moderate temperatures and humidity levels. Use protective packaging to avoid impacts or bending, and ensure minimal exposure to extreme environmental conditions for optimal performance and longevity.

Q3: Which quality standards and certifications apply to ITO Coated Glass Substrate 30-60 Ohm/Sq 100x100x0.7 mm?

A3: These substrates typically comply with recognised industry standards for optical coatings and electronic components, such as ISO 9001 quality management requirements. Manufacturers may also follow recognised environmental regulations like RoHS for restricted substances. Consistency in sheet resistance, optical clarity, and substrate thickness is verified through stringent testing processes, ensuring the substrate meets specified tolerance levels for commercial and industrial-grade applications.

Related Information

1. Material Properties and Advantages

Its uniform surface resistivity of 30-60 Ohm/Sq provides reliable conductivity across the entire 100x100x0.7 mm ITO coated glass substrate, making it suitable for precise electronic applications. The thin, transparent layer of indium tin oxide is carefully deposited to ensure both excellent optical clarity and stable electrical performance, allowing the substrate to function effectively in devices requiring high transparency combined with low resistive losses.

Tightly controlled coating processes help this substrate achieve a smooth, defect-minimised surface crucial for sensitive applications such as touch panels and OLED displays. This particular thickness of 0.7 mm offers structural integrity while keeping weight to a minimum, enabling easier integration into advanced products ranging from sensor arrays to lighting components.

2. Applications in Advanced Industries

By harnessing the substrate’s consistent conductivity and high transparency, numerous industries can benefit from its use in sophisticated display panels and flexible optoelectronic devices. Manufacturers of biomedical detection equipment often incorporate this ITO coated glass to achieve precise readings without compromising sample visibility, helping to advance diagnostic tools employed in various healthcare settings.

Careful integration of this substrate in photovoltaic research projects has also shown promising results, as its stable electrical properties support the development of energy-efficient components. Whether producing prototyping boards for laboratory testing or large-scale commercial systems, engineers and researchers can rely on this substrate’s dependable performance and ease of customisation to drive innovation in emerging high-tech fields.