USD 9.95
L-shaped push-in pneumatic fitting connecting R1/2 male threads to 10mm O.D. tubing. Operates from -0.95 to 14 bar with 360-degree orientation capability.
The Festo QSL-1/2-10 (Part Number 190661) is a standard series push-in L-fitting designed for robust pneumatic connection. It features an R1/2 male threaded port with an external 21 mm hexagon and a 10 mm push-in tubing receptacle. The fitting operates efficiently across a pressure range of -0.95 to 14 bar (depending on temperature) and is constructed with a PBT housing, nickel-plated brass threaded plug, high-alloy stainless steel tubing clamp, and an NBR seal for leak-free, long-lasting performance. It allows 360-degree orientation and supports compressed air to ISO 8573-1:2010 and liquid water (up to 50°C), making it suitable for versatile industrial applications including cleanroom Class 4 environments.
| Parameter | Value |
|---|---|
| Nominal Size | 8.3 mm |
| Tubing Insertion Depth | 20.2 mm |
| Operating Pressure | -0.95 bar to 14 bar (Temperature Dependent) |
| Ambient Temperature | -10 °C to 80 °C |
| Pneumatic Connection 1 | Male thread R1/2 |
| Pneumatic Connection 2 | For 10 mm O.D. tubing |
| Material (Housing) | PBT |
| Material (Tubing Seal) | NBR |
| Cleanroom Suitability | Class 4 (ISO 14644-1) |
Enables reliable and leak-free routing of compressed air to pneumatic actuators, maintaining system pressure up to 14 bar in high-speed manufacturing environments.
Eliminates air leaks and pneumatic pressure drops in complex moving machinery with rigid tubing systems.
Safely integrates into semiconductor or pharmaceutical process machinery thanks to its ISO 14644-1 Class 4 cleanroom suitability.
Prevents particulate contamination in highly sensitive manufacturing zones while reliably supplying control air.
Facilitates fluid connections for liquid water cooling loops operating up to 50°C and 6 bar, leveraging its robust NBR seals and corrosion-resistant construction.
Provides secure, easily orientable fluid connections for thermal management systems without risk of sudden decoupling.
