Is the IBC 90° Elbow with BSP Female Thread, Polypropylene suitable for use with aggressive chemicals and high-temperature fluids?

The IBC 90° Elbow with BSP Female Thread, Polypropylene offers very good chemical resistance and is suitable for many aggressive chemicals commonly handled in industrial and agricultural settings, thanks to its high-quality polypropylene construction and corrosion resistance. However, suitability depends on the specific chemical (concentration, oxidizing nature, solvents, etc.)—some highly aggressive solvents and strong oxidizers may attack polypropylene. Temperature-wise, the fitting is rated for continuous use from −10°C to +70°C, with short-term tolerance up to +80°C. It is therefore appropriate for many high-temperature fluid applications within these limits, but not for continuous service above +70°C. In summary: good for many aggressive chemicals and for fluids up to +70°C (briefly to +80°C), but verify chemical compatibility for your specific fluid and avoid continuous operation above +70°C.

Can the IBC 90° Elbow with BSP Female Thread, Polypropylene be used with potable (drinking) water applications and meet hygiene standards?

IBC 90° Elbow with BSP Female Thread, Polypropylene Format: Based on the provided description, this fitting is made of high-quality polypropylene with good chemical and corrosion resistance, suitable pressure (up to 7 bar) and a wide temperature range (-10°C to +70°C, short-term +80°C). However, the description does not state any specific certifications or approvals for potable water use (e.g., WRAS, NSF/ANSI 61, ACS or equivalent) nor does it mention food-grade or hygienic compliance. Therefore, you cannot assume it meets drinking-water hygiene standards without manufacturer confirmation or documentation. To use this elbow for potable water, obtain explicit certification from the supplier proving it is approved for drinking water (food-grade polypropylene and applicable regional sanitary approvals).

IBC 90° Elbow with BSP Female Thread, Polypropylene

Additional information

Material	P – material (plastic)

The 90° IBC elbow with internal BSP thread is a durable and reliable connection element designed for versatile use in fluid handling systems. Manufactured from high-quality polypropylene, it ensures excellent resistance to chemicals, corrosion, and mechanical wear, making it an ideal choice for demanding industrial and agricultural applications. With a working pressure of up to 7 bar, it provides secure and leak-free performance even under intensive operating conditions. The wide temperature range from -10°C to +70°C, with short-term resistance up to +80°C, guarantees dependable functionality in both low and high thermal environments. Its precise BSP threading allows for easy installation and a tight fit, ensuring compatibility with a variety of IBC containers and accessories. This elbow fitting is a practical solution for optimizing flow direction, saving space, and enhancing the efficiency of liquid transfer systems.

List of product variants

Article number	Product variant name	Nominal inner diameter	Working pressure [bar]	Enquiry
AC-IBFF100-90	IBC 90° connector (elbow) with 1" BSP female thread	-	7

The 90° IBC elbow with internal BSP thread is a durable and reliable connection element designed for versatile use in fluid handling systems. Manufactured from high-quality polypropylene, it ensures excellent resistance to chemicals, corrosion, and mechanical wear, making it an ideal choice for demanding industrial and agricultural applications. With a working pressure of up to 7 bar, it provides secure and leak-free performance even under intensive operating conditions. The wide temperature range from -10°C to +70°C, with short-term resistance up to +80°C, guarantees dependable functionality in both low and high thermal environments. Its precise BSP threading allows for easy installation and a tight fit, ensuring compatibility with a variety of IBC containers and accessories. This elbow fitting is a practical solution for optimizing flow direction, saving space, and enhancing the efficiency of liquid transfer systems.