Factory Direct Pricing | Bulk Orders Available
Molybdenum Mo Coated Glass
$105.00
Features
- Surface Resistivity – < 1 Ohms/Sq.
- Coating Thickness – 500 nm
- Substrate Thickness – 0.8 mm, 2.0 mm
- Transmittance – Null
- Coating – One-sided
- Customization – Available
Mo Coated Glass Description and Specifications
The Molybdenum (Mo) coated glass is one of the most acceptable alternatives in improving the present photovoltaic technology. It is especially true for solar cells that use Copper Indium Gallium Dieseline (CIGS) or Copper Indium Sulfide (CIS). These Mo coated glass plates are available in varying thicknesses and dimensions to suit the user's requirements. It is a single side coated substrate which manufactures by the Target sputtering method.
Technical Specifications of MO Coated Glass
| Parameter | Specification |
|---|---|
| Product Name | Molybdenum (Mo) Coated Glass |
| Coating Material | Molybdenum (Mo) |
| Coating Type | Single-side coating |
| Coating Method | Target Sputtering |
| Surface Resistivity | < 1 Ohm/sq |
| Coating Thickness | ~500 nm |
| Substrate Material | Glass (Soda-lime / Borosilicate) |
| Substrate Thickness | 0.8 mm / 2.0 mm |
| Optical Transmittance | 0% (Non-transparent) |
| Standard Sizes | 25×25 mm, 50×25 mm, 75×25 mm, 50×50 mm, 100×100 mm |
| Maximum Size | 200 × 200 mm |
| Operating Temperature | Up to 450°C |
| Electrical Conductivity | High conductivity (metal-based coating) |
| Thermal Stability | Excellent |
| Corrosion Resistance | High |
| Customization | Available (size & thickness) |
| Applications | Solar Cells (CIGS/CIS), Photovoltaics, R&D, Thin Film Deposition |
Molybdenum Coated Glass Variations
We produced the substrate mainly in 2 varieties; one is 2mm thick, and another has 0.8mm thickness. The resistivity for both is the same, which is less than 1 ohms/sq. Unlike TCO glass, the transmittance at 550nm is zero, and easy to identify the coated side. It is a non-transparent conductive glass. The maximum available size is L200mm x W200mm, whereas our standard sizes are L25mm x W25mm, L50mm x W25mm, L50mm x W50mm, L75mm x W25mm, and L100mm x W100mm. The Maximum operating temperature is 450 °C.
The best part about replacing the conventional CIGS electrode with Mo coated glass plate in solar cells is that it finds perfect synchronization with the CIGS electrode and can enhance its performance to a remarkable extent. Apart from synchronizing perfectly, these substrates also have higher dimensional stability, better thermal, and electrical conductivity. These are in a pure form and are significantly resistant to corrosion and creep.
Mo Coated Glass vs ITO Coated Glass vs FTO coated glass
| Attribute | Molybdenum (Mo) Coated Glass | ITO Coated Glass | FTO Coated Glass |
|---|---|---|---|
| Coating Material | Molybdenum (Metal) | Indium Tin Oxide | Fluorine-doped Tin Oxide |
| Transparency | Opaque | Highly Transparent | Transparent |
| Surface Resistivity | < 1 Ω/sq | 5 – 15 Ω/sq | 7 – 15 Ω/sq |
| Electrical Conductivity | Very High | High | Moderate |
| Thermal Stability | Up to ~450°C | Low (heat sensitive) | High (heat resistant) |
| Chemical Stability | High | Moderate | Very High |
| Optical Transmission | 0% | 80 – 90% | 80 – 85% |
| Coating Thickness | ~500 nm | ~100 – 200 nm | ~300 – 500 nm |
| Substrate Type | Glass (Borosilicate / Soda Lime) | Glass / PET | Glass |
| Best Applications | Solar back contact (CIGS/CIS), electrodes | Touchscreens, displays, sensors | DSSC, solar cells, high-temp applications |
| Cost | Medium | High | Low – Medium |
| Durability | Excellent | Moderate | Excellent |
Mo Coated Glass Features
- Pure quality Molybdenum coating
- The high-quality substrate used for coating with Mo
- Uniform Mo coating on glass makes it excellent for R&D and industrial/commercial applications
- Excellent energy retention properties
- Superior electrical/thermal conductivity
Applications
Molybdenum coated glass is used in many fields where materials must stay strong and stable, especially under heat and stress. Works properly even under vacuum conditions, making it useful in semiconductor devices, sensors, and systems that require very accurate measurements. As a back-contact layer in solar cells such as CIGS and CIS, it facilitates electron flow and improves performance. Laboratory work uses this material for thin-film coating, and it also improves precision in processes such as laser cutting and micro-patterning. Display systems rely on it to maintain a steady electrical flow without disrupting screen quality or signal clarity. De-icing systems use their ability to generate heat via electrical current. High-temperature industrial processes, such as glass melting, use it in electrodes because it can handle extreme heat without losing efficiency.
Molybdenum-coated glass serves as a conductive barrier layer in semiconductor manufacturing, helping limit oxidation at interfaces and maintaining process stability. As a contact layer in microelectronics, this material helps create strong, stable electrical connections and smooth, even films. Sensor modules that require both transparency and electrical conductivity also use this material. Nanotechnology, materials science, and energy storage rely on it for a range of experimental research applications. Battery components use this material because it withstands repeated heating and cooling without damage. Mo-coated glass products are designed for research, development, and industrial work.
How to Use
- Inspect the glass carefully for scratches or any defects before use.
- Make sure the coated surface is clean, dry, and free of dust before use.
- Handle the glass with powder-free, non-latex or nylon/polyester gloves to avoid fingerprints and dirt.
- Work with precise tools and keep the area clean to avoid contamination.
- Do not allow the coated surface to come into contact with rough or hard materials.
- Grind or polish the edges to reduce stress and lower the risk of cracking.
- Heat the glass gradually during high-temperature processes to prevent thermal shock.
- Keep the temperature within the safe limit of 450°C.
- Apply appropriate coatings, such as SiO₂, SiNx, or SiOxNy, as needed.
- For resistivity measurements, use the 4-probe method for accurate results.
- Store the material in cushioned, anti-static packaging with proper labels and sealing.
- Keep the product at room temperature under normal pressure to protect the coating.
Safety Measures
- Adhere to general laboratory safety guidelines when working with the glass.
- Wear proper protective gear (PPE) while handling it.
- Handle the sharp edges carefully to prevent cuts.
- Always store it in a clean area, protected from dust and chemicals.
- To preserve the coating, keep it away from moisture.
- Make sure it is never exposed to temperatures beyond the specified limit.
- Maintain good ventilation whenever high temperatures are involved.
- Try not to scratch it or put pressure on the coated surface.
- Use a smooth, soft cloth for cleaning to prevent surface scratches.
- Refrain from using abrasive or harsh cleaning products that might harm the coating.
- During transport, package the glass securely to prevent breakage.
- Instead of stacking items directly, place separators between them.
- Dispose of any broken pieces cautiously to minimize the risk of injury.
Why Us?
Shilpa Enterprises supply pure high-grade products to global customers and satisfy researcher demand. It is utilized mainly in the research and scientific labs, educational institutes, and industries. We provide standard and customized Mo coated glass of the best quality to ensure complete reliability and the best results in their applications.
