IT for Engineering (it4e) GmbH
4 software found

IT for Engineering (it4e) GmbH software

IOTlab - Software Tools for Monitoring, Analysis, and Development

IOTlab is the it4e product and service division for process data acquisition and control via the internet. IOTlab comprises modular hard- and software components which we can offer as cost-saving standard packages or compose individual configurations adjusted to special customer demands.  

DNSlab - Direct Numerical Simulation Laboratory Software

The DNSlab simulation software is a tool for design and analysis of porous structures for technical applications, especially in the field of filtration and adsorption. The 3D models of the porous structures are generated or imported by DNSlab, e.g. from tomography data. By methods of image analysis, computational fluid dynamics (CFD) and by modeling of particle collisions (discrete element method, DEM), amongst others porosity, permeability, filtration efficiency, filter cake build-up and backwashing, adsorption loading and breakthrough curves can be determined for the porous structures.

DBSlab - Pressure Drop Software Module

For a 3D model of a porous medium, the pressure drop curve for a permeating Newtonian gas or liquid can be computed fully automatic. Mesh generation or adjusting boundary conditions is not necessary any more. After the dimensionless flow computation over a wide range of flow velocities has completed, the pressure drop for arbitrary Newtonian fluids can simply be determined by input of the density and the viscosity and the face velocity or the volume flow respectively mass flow and the inflow area.

DNSlab - Filter Cake Build-Up and Backwashing Simulation Tools

The integrated 1½-way CFD-DEM coupling methodology facilitates the simulation of filter cake formation and the subsequent backwashing process. This approach efficiently models the fluid dynamics and particulate interactions in filter systems. A notable advantage is the minimal computational resources needed. By only updating the flow field when a significant quantity of particles has either deposited or detached, the frequency of updates is greatly reduced, ensuring efficient simulation while still capturing essential pressure drop variations. This method is beneficial for engineering applications looking to optimize filter performance and maintenance through accurate modeling of cake deposition and removal dynamics.