The latest version of PipeNet, a leading software solution for industrial piping design and analysis, has been released - PipeNet 1.11. This updated version brings a host of new features, enhancements, and bug fixes that promise to take piping design and analysis to the next level.
The "Libraries" are where users define the specific characteristics of components in their system, such as pipes, fittings, fluids, and valves. A model must be defined in the libraries before it can be selected for use in the "Init" section. Once the model is built, the powerful calculation engine can analyze even the most complex systems.
The simulation kept failing at the foam proportioner. If the pressure wasn't perfect, the foam wouldn't mix. Without foam, a crude oil fire would just laugh at the water. He adjusted the pipe roughness coefficients, re-checked the pump flow rates, and hit 'Run' again. pipenet 1.11
The release of version 1.11 significantly optimizes simulation workflows across the energy, process, and marine industries. It balances steady-state precision with dynamic, transient mitigation tools. Core Product Architecture
The software is oriented toward engineering design units, with the interface, built-in models, software functions, required parameter conditions, and calculation result outputs all designed to align with the characteristics and requirements of engineering design. The latest version of PipeNet, a leading software
Version 1.11 also offered an early iteration of transient analysis, capable of modeling:
This is the headline feature. PipeNet 1.11 now includes a that attempts to auto-recognize pipe centerlines from 3D models. It’s not perfect (it’s a beta feature), but it reduced my modeling time on a recent skid design from four hours to twenty minutes. It intelligently ignores flanges and bolts and extracts only the hydraulic path. A model must be defined in the libraries
The rollout of PIPENET Vision 1.11 brought a selection of key efficiency updates to operating teams:
In version 1.11, users can model various components such as pipes, ducts, fittings, pumps, fans, check valves, control valves, nozzles, filters, orifice plates, and fixed pressure losses. For advanced applications, the software provides unique models for dry pipe, cushion effect, innovative flow path cavitation, air pockets, and physical movement of slugs within piping systems. It also includes powerful control system capabilities for both steady-state and dynamic conditions, which are essential for modeling many complex network systems.
The software uses a schematic model similar to a process flow diagram. Components without operational actions are entered as resistance parameters, allowing modifications to be made by changing parameters rather than the model itself, greatly enhancing design efficiency.