CY8601 FTO Coated Glass Substrate 13-15 Ohm/Sq 150x150x0.7 mm

FTO Coated Glass Substrate 13-15 Ohm/Sq 150x150x0.7 mm Description

This FTO (Fluorine-doped Tin Oxide) Coated Glass Substrate combines reliable conductivity with exceptional optical clarity, making it a prime choice for advanced electronic, photovoltaic, and display applications. Its low sheet resistance of 13–15 Ohm/Sq ensures uniform current flow, while the 0.7 mm thickness provides both mechanical stability and efficient heat dissipation. With precise coating control, each 150×150 mm sheet delivers consistent performance across the entire surface.

Manufactured using stringent quality standards, this substrate meets demanding application requirements by maintaining excellent chemical durability, thermal stability, and adhesion. Its robust FTO coating resists damage and corrosion, enhancing the lifespan of devices relying on sensitive conductive surfaces. Count on this substrate to support prototype development or high-volume production goals with dependable, industry-leading performance.

FTO Coated Glass Substrate 13-15 Ohm/Sq 150x150x0.7 mm Applications

This FTO Coated Glass Substrate with 13-15 Ohm/Sq resistance, measuring 150x150x0.7 mm, offers high optical transparency, stable electrical conductivity, and excellent thermal resistance, making it suitable for multiple advanced applications. Its unique properties are ideal for precise sensor fabrication, photovoltaic research, and robust displays in the healthcare and industrial sectors. The substrate’s uniform coating ensures reliable performance and longevity across a broad spectrum of commercial and scientific applications.

1. Electronics and Semiconductor Applications

·         Serves as a transparent conductive layer for touchscreen panels and wearable devices

·         Provides a stable substrate for advanced sensor arrays and circuit integration

2. Research and Development Applications

·         Enables high-efficiency solar cell prototypes and thin-film photovoltaic experiments

·         Functions as a controllable electrode surface in laboratory-scale electrochemical studies

3. Commercial and Consumer Applications

·         Supports interactive display technologies for kiosks and digital signage

·         Integrates into smart window systems offering improved light control and energy efficiency

FTO Coated Glass Substrate 13-15 Ohm/Sq 150x150x0.7 mm Packaging

Each FTO Coated Glass Substrate is individually sealed in anti-static sleeves and lined with foam corner protectors to prevent chipping. They are then placed in sealed, labelled containers to reduce contamination from dust and moisture. For optimal protection, store in a cool, dry area away from direct sunlight. Additional custom packaging options, such as specialised labelling or unique dimensions, can be arranged according to specific requirements.

Packaging: Vacuum sealed, Wooden Box, or Customised.

FTO Coated Glass Substrate 13-15 Ohm/Sq 150x150x0.7 mm FAQs

Q1: What are the key material properties of FTO Coated Glass Substrate 13-15 Ohm/Sq 150x150x0.7 mm?

A1: FTO Coated Glass Substrate with a specified sheet resistance of 13-15 ohms per square offers reliable electrical conductivity, high optical transparency (generally above 80% in the visible range), and a uniform fluorine-doped tin oxide layer. The glass measures 150×150 mm with a thickness of 0.7 mm, maintaining consistent coating adhesion. The substrate's low surface roughness and stable doping composition ensure good electron transport, making it suitable for photovoltaic, display, and sensor applications.

Q2: How should this product be handled and stored?

A2: For safe handling, always wear nitrile or vinyl gloves and avoid direct contact with the conductive surface to prevent contamination or scratches. The substrate’s edges can be sharp, so protective measures, such as cut-resistant gloves, are advised. Store it in low-humidity, dust-free conditions, ideally in a sealed container with protective layers to prevent friction. Prolonged exposure to high temperatures or moisture may degrade the FTO coating over time.

Q3: Which quality standards and certifications apply to FTO Coated Glass Substrate 13-15 Ohm/Sq 150x150x0.7 mm?

A3: These FTO Coated Glass Substrates commonly adhere to ISO 9001 for quality management and ISO 14001 for environmental responsibility. RoHS compliance ensures minimal hazardous materials, while specific industry requirements, such as the IEC 61215 standard for solar applications, may also be met. They undergo rigorous inspection for coating uniformity, sheet resistance tolerance, and optical clarity, ensuring consistent performance across production batches.

Related Information

1. Quality Control Measures

Quality forms the cornerstone of producing FTO Coated Glass Substrate 13-15 Ohm/Sq 150x150x0.7 mm with consistently precise characteristics. Rigorous inspections begin with advanced spectral measurements to verify the defined conduction range, ensuring that sheet resistance remains within the 13-15 ohms/sq threshold across the entire surface area. Meticulous attention to film thickness helps preserve optimal light transmission, allowing the transparent conductive layer to meet the requirements of sensitive research and industrial applications.

Thorough in-house testing protocols also involve verifying adhesion strength and uniform coating distribution. Surface integrity evaluations employ cutting-edge imaging methods to detect microdefects or irregularities in the fluorine-doped tin oxide film, which could impact performance. By maintaining strict internal audit processes and adhering to stringent validation benchmarks, laboratories and manufacturers achieve consistently precise substrates tailored to meet exact conductivity and optical standards.

2. Applications in Advanced Industries

Adaptive energy solutions are a prominent domain where FTO Coated Glass Substrate 13-15 Ohm/Sq 150x150x0.7 mm finds widespread utilisation. Because these substrates exhibit reliable sheet resistance and excellent optical clarity, they serve as an ideal platform in photovoltaic cells and perovskite-based solar modules, maximising photon capture while sustaining low electrical losses. Their capacity to handle high temperatures without significant film degradation further elevates their efficacy in advanced energy systems.

Significant growth in display technologies has also propelled these substrates into applications such as flexible touch panels and interactive screens. Enhanced by temperature-stable and conductive FTO layers, these panels show remarkable precision and responsiveness. Whether integrated into automotive instrumentation or sophisticated research instruments, the uniform coating properties and consistent electrical performance position these substrates as a critical component in additional innovation.