Developed by Matelys in collaboration with INSA Lyon, PipingCell is designed to measure and analyze pressure pulsations within piping systems. It supports both intrusive and non-intrusive measurement techniques, allowing users to map pressure-induced dynamic stresses along pipes and monitor the hydraulic state of internal fluids in connected circuits. The software can characterize sources of pressure pulsations, such as pumps and compressors, and is compatible with a wide range of pipe materials (e.g., steel, cast iron, copper, PVC) and diameters (from 10 mm to 2 m). PipingCell offers post-processing capabilities, including extrapolation of pressure pulsations along the pipe from localized measurements, measurement of hydraulic circuit impedance, and determination of the actual speed of sound in the internal fluid or gas. It also features comprehensive project organization and computes actual fluid-structure coupling. Users can choose between classical intrusive sensors or external strain sensors, the latter allowing for measurements without perforating the piping.

Features:

• Measurement Flexibility: Supports both intrusive and non-intrusive pressure pulsation measurements.
• Dynamic Stress Mapping: Maps pressure-induced dynamic stresses along pipes.
• Hydraulic State Monitoring: Monitors the hydraulic state of internal fluids in connected circuits.
• Source Characterization: Characterizes sources of pressure pulsations, such as pumps and compressors.
• Broad Applicability: Compatible with various pipe materials and diameters, accommodating diverse operating conditions.
• Post-Processing Capabilities: Includes extrapolation of pressure pulsations, measurement of circuit impedance, and determination of sound speed in fluids.
• Sensor Options: Offers a choice between classical intrusive sensors and external strain sensors to avoid perforating pipes.
• Project Organization: Provides comprehensive tools for project management and organization.
• Fluid-Structure Coupling Computation: Calculates actual fluid-structure interactions within the piping system.