Fewer die corrections, shorter run-in phases and a more reliable basis for your next decision. In extrusion technology in particular, important decisions often have to be made before it becomes visible how the material exits the extrusion die. An extrusion simulation in StrömungsRaum® makes the underlying physics visible at an earlier stage and creates a data-driven basis for further development and targeted die optimisation. You do not need to set up your own simulation department, new computing hardware or complex simulation workflows.
Fewer die corrections, shorter run-in phases and a more reliable basis for your next decision. In extrusion technology in particular, important decisions often have to be made before it becomes visible how the material exits the extrusion die. An extrusion simulation in StrömungsRaum® makes the underlying physics visible at an earlier stage and creates a data-driven basis for further development and targeted die optimisation. You do not need to set up your own simulation department, new computing hardware or complex simulation workflows.
Fewer die corrections, shorter run-in phases and a more reliable basis for your next decision. In extrusion technology in particular, important decisions often have to be made before it becomes visible how the material exits the extrusion die. An extrusion simulation in StrömungsRaum® makes the underlying physics visible at an earlier stage and creates a data-driven basis for further development and targeted die optimisation. You do not need to set up your own simulation department, new computing hardware or complex simulation workflows.
How evenly is the material distributed at the die exit? StrömungsRaum® visualises the material distribution and flow behaviour in the extrusion die and supports you in evaluating homogeneity at the die exit. This allows you to identify inhomogeneities – such as wall thickness variations or insufficient dimensional accuracy – earlier and to derive possible starting points for more targeted die optimisation.
Where do pressure losses or relevant differences in residence time occur? The simulation analyses pressure drop and residence time in the die under consideration. This gives you a data-driven basis for investigating critical regions and dead zones and for comparing die variants more objectively.
Which geometric regions have a particularly strong influence on the flow result? Geometry-specific sensitivities show which regions of a die have the greatest influence on exit homogeneity. This allows you to identify optimisation potential earlier and to make changes where they are relevant to the question at hand.
How evenly is the material distributed at the die exit? StrömungsRaum® visualises the material distribution and flow behaviour in the extrusion die and supports you in evaluating homogeneity at the die exit. This allows you to identify inhomogeneities – such as wall thickness variations or insufficient dimensional accuracy – earlier and to derive possible starting points for more targeted die optimisation.
Where do pressure losses or relevant differences in residence time occur? The simulation analyses pressure drop and residence time in the die under consideration. This gives you a data-driven basis for investigating critical regions and dead zones and for comparing die variants more objectively.
Which geometric regions have a particularly strong influence on the flow result? Geometry-specific sensitivities show which regions of a die have the greatest influence on exit homogeneity. This allows you to identify optimisation potential earlier and to make changes where they are relevant to the question at hand.
How evenly is the material distributed at the die exit? StrömungsRaum® visualises the material distribution and flow behaviour in the extrusion die and supports you in evaluating homogeneity at the die exit. This allows you to identify inhomogeneities – such as wall thickness variations or insufficient dimensional accuracy – earlier and to derive possible starting points for more targeted die optimisation.
Where do pressure losses or relevant differences in residence time occur? The simulation analyses pressure drop and residence time in the die under consideration. This gives you a data-driven basis for investigating critical regions and dead zones and for comparing die variants more objectively.
Which geometric regions have a particularly strong influence on the flow result? Geometry-specific sensitivities show which regions of a die have the greatest influence on exit homogeneity. This allows you to identify optimisation potential earlier and to make changes where they are relevant to the question at hand.
The crucial question is not only whether a die works. What matters is which geometry enables a uniform material flow and where an adjustment is particularly worthwhile.
StrömungsRaum® is a cloud-based simulation solution for extrusion dies. It enables you to investigate different variants without having to build up your own hardware, additional software or extensive simulation expertise. Analyse material flow and material distribution. Evaluate temperature control in the die more precisely. Compare possible solutions on a reliable basis. This turns a laborious sequence of trial and error into a structured, efficient process for further die development.
You receive detailed simulation results and specific, actionable recommendations for the die and the process. In the 3D Live Viewer, you evaluate the results interactively and examine relevant regions directly. Automatic evaluations and geometry-specific sensitivities help you to identify optimisation potential more quickly and plan the next changes in a more targeted way.
The crucial question is not only whether a die works. What matters is which geometry enables a uniform material flow and where an adjustment is particularly worthwhile.
StrömungsRaum® is a cloud-based simulation solution for extrusion dies. It enables you to investigate different variants without having to build up your own hardware, additional software or extensive simulation expertise. Analyse material flow and material distribution. Evaluate temperature control in the die more precisely. Compare possible solutions on a reliable basis. This turns a laborious sequence of trial and error into a structured, efficient process for further die development.
You receive detailed simulation results and specific, actionable recommendations for the die and the process. In the 3D Live Viewer, you evaluate the results interactively and examine relevant regions directly. Automatic evaluations and geometry-specific sensitivities help you to identify optimisation potential more quickly and plan the next changes in a more targeted way.
The crucial question is not only whether a die works. What matters is which geometry enables a uniform material flow and where an adjustment is particularly worthwhile.
StrömungsRaum® is a cloud-based simulation solution for extrusion dies. It enables you to investigate different variants without having to build up your own hardware, additional software or extensive simulation expertise. Analyse material flow and material distribution. Evaluate temperature control in the die more precisely. Compare possible solutions on a reliable basis. This turns a laborious sequence of trial and error into a structured, efficient process for further die development.
You receive detailed simulation results and specific, actionable recommendations for the die and the process. In the 3D Live Viewer, you evaluate the results interactively and examine relevant regions directly. Automatic evaluations and geometry-specific sensitivities help you to identify optimisation potential more quickly and plan the next changes in a more targeted way.
01
You can get started in StrömungsRaum® straight away on your own, or we can clarify together in an initial consultation which extrusion die is to be considered and which requirements are the focus. Possible starting points include homogeneity at the die exit, a high pressure drop or a comparison of several die variants.
02
All you need to do is upload your project data to StrömungsRaum®. The cloud-based solution then takes care of the automated simulation steps.
03
You receive detailed results on the parameters investigated as well as specific recommendations for the die and the process. In the 3D Live Viewer, you can examine the relevant regions and plan the next optimisation steps in a more targeted way.
01
You can get started in StrömungsRaum® straight away on your own, or we can clarify together in an initial consultation which extrusion die is to be considered and which requirements are the focus. Possible starting points include homogeneity at the die exit, a high pressure drop or a comparison of several die variants.
02
All you need to do is upload your project data to StrömungsRaum®. The cloud-based solution then takes care of the automated simulation steps.
03
You receive detailed results on the parameters investigated as well as specific recommendations for the die and the process. In the 3D Live Viewer, you can examine the relevant regions and plan the next optimisation steps in a more targeted way.
01
You can get started in StrömungsRaum® straight away on your own, or we can clarify together in an initial consultation which extrusion die is to be considered and which requirements are the focus. Possible starting points include homogeneity at the die exit, a high pressure drop or a comparison of several die variants.
02
All you need to do is upload your project data to StrömungsRaum®. The cloud-based solution then takes care of the automated simulation steps.
03
You receive detailed results on the parameters investigated as well as specific recommendations for the die and the process. In the 3D Live Viewer, you can examine the relevant regions and plan the next optimisation steps in a more targeted way.
During the continuous extrusion process for filaments, LEHVOSS repeatedly experienced disruptions at the die exit. Specifically, undesirable die drool occurred, as well as abrupt breaking of the extrudate immediately after it left the die.
Significantly faster die development and measurable cost benefits through parametric simulation and digital design of the spiral mandrel distributors.
During the continuous extrusion process for filaments, LEHVOSS repeatedly experienced disruptions at the die exit. Specifically, undesirable die drool occurred, as well as abrupt breaking of the extrudate immediately after it left the die.
Significantly faster die development and measurable cost benefits through parametric simulation and digital design of the spiral mandrel distributors.
During the continuous extrusion process for filaments, LEHVOSS repeatedly experienced disruptions at the die exit. Specifically, undesirable die drool occurred, as well as abrupt breaking of the extrudate immediately after it left the die.
Significantly faster die development and measurable cost benefits through parametric simulation and digital design of the spiral mandrel distributors.
Design engineering
You want to evaluate material flow, pressure drop and homogeneity as early as the development phase. With StrömungsRaum®, you investigate critical die regions and compare variants on a data-driven basis. This allows you to identify optimisation potential earlier and steer further die development more precisely and with fewer iterations.
Production
You experience the consequences of die corrections, long run-in phases and scrap directly in day-to-day production. The simulation creates a data-driven basis for investigating potential critical regions before the die is put into operation. Comprehensible results support coordination between development and production and help you to prepare the next step in a more targeted way.
Design engineering
You want to evaluate material flow, pressure drop and homogeneity as early as the development phase. With StrömungsRaum®, you investigate critical die regions and compare variants on a data-driven basis. This allows you to identify optimisation potential earlier and steer further die development more precisely and with fewer iterations.
Production
You experience the consequences of die corrections, long run-in phases and scrap directly in day-to-day production. The simulation creates a data-driven basis for investigating potential critical regions before the die is put into operation. Comprehensible results support coordination between development and production and help you to prepare the next step in a more targeted way.
Design engineering
You want to evaluate material flow, pressure drop and homogeneity as early as the development phase. With StrömungsRaum®, you investigate critical die regions and compare variants on a data-driven basis. This allows you to identify optimisation potential earlier and steer further die development more precisely and with fewer iterations.
Production
You experience the consequences of die corrections, long run-in phases and scrap directly in day-to-day production. The simulation creates a data-driven basis for investigating potential critical regions before the die is put into operation. Comprehensible results support coordination between development and production and help you to prepare the next step in a more targeted way.
Would you like to gain a better understanding of material flow, pressure drop or homogeneity in your extrusion die? With StrömungsRaum® you can:
Your introductory offer
investigate critical die regions as early as the development phase
compare die variants on a data-driven basis
use automatic evaluations and actionable recommendations
plan the next optimisation steps in a more targeted way
Would you like to gain a better understanding of material flow, pressure drop or homogeneity in your extrusion die? With StrömungsRaum® you can:
investigate critical die regions as early as the development phase
compare die variants on a data-driven basis
use automatic evaluations and actionable recommendations
plan the next optimisation steps in a more targeted way
Would you like to gain a better understanding of material flow, pressure drop or homogeneity in your extrusion die? With StrömungsRaum® you can:
investigate critical die regions as early as the development phase
compare die variants on a data-driven basis
use automatic evaluations and actionable recommendations
plan the next optimisation steps in a more targeted way
