Zilmet Inox-Pro Stainless Steel Potable Expansion Vessel 10 Bar – ¾ BSP – 12 Ltr

The Zilmet Inox-Pro Stainless Steel Potable Expansion Vessel is engineered for reliability and efficiency in potable water systems. With a capacity of 12 litres and a maximum working pressure of 10 bar, this expansion vessel is designed to accommodate the thermal expansion of water, ensuring optimal performance in various applications such as heating systems and water supply networks.

Key Features

• Material Quality: Constructed from high-grade stainless steel, the Inox-Pro vessel ensures durability and resistance to corrosion, making it suitable for both cold and hot water applications (up to 70°C) while maintaining high hygienic standards.
• Non-Toxic Membrane: The vessel is equipped with a butyl membrane that is WRAS approved, ensuring it is safe for contact with drinking water. This feature prevents contamination and maintains the quality of the water supply.
• Compact Design: With dimensions of 270mm in height and diameter, the vessel’s compact design allows for easy installation in various settings, including residential and commercial environments.
• Connection Specifications: The Zilmet Inox-Pro features a ¾ BSP connection, facilitating straightforward integration into existing plumbing systems.
• Factory Pre-Charge: The vessel comes with a factory pre-charge of 2.5 bar, which can be adjusted according to system requirements for optimal performance.

Applications

This expansion vessel is ideal for use in:

• Domestic hot water systems
• Heating plants utilising water heaters or heat exchangers
• Applications requiring anti-hammer solutions in coastal or brackish environments

The Zilmet Inox-Pro Stainless Steel Potable Expansion Vessel (SKU: 11B0001200) combines advanced engineering with high-quality materials to deliver a reliable solution for managing water expansion in potable systems. Its robust construction and compliance with health regulations make it an excellent choice for maintaining water quality while ensuring system efficiency.