Detect cavitation in pumps earlier, assess efficiency more precisely and select pump variants on a more reliable basis When developing centrifugal pumps, head, efficiency and operational reliability have to be evaluated at an early stage. Physical prototypes and test runs, however, often reveal only late in the process whether a design meets the requirements. StrömungsRaum® simulates the hydraulics of your centrifugal pump automatically. Pressure distributions, velocity fields, performance curves and cavitation risks become visible. This allows you to compare several casing and impeller variants earlier and to create a reliable basis for your next development decision.
Detect cavitation in pumps earlier, assess efficiency more precisely and select pump variants on a more reliable basis When developing centrifugal pumps, head, efficiency and operational reliability have to be evaluated at an early stage. Physical prototypes and test runs, however, often reveal only late in the process whether a design meets the requirements. StrömungsRaum® simulates the hydraulics of your centrifugal pump automatically. Pressure distributions, velocity fields, performance curves and cavitation risks become visible. This allows you to compare several casing and impeller variants earlier and to create a reliable basis for your next development decision.
Detect cavitation in pumps earlier, assess efficiency more precisely and select pump variants on a more reliable basis When developing centrifugal pumps, head, efficiency and operational reliability have to be evaluated at an early stage. Physical prototypes and test runs, however, often reveal only late in the process whether a design meets the requirements. StrömungsRaum® simulates the hydraulics of your centrifugal pump automatically. Pressure distributions, velocity fields, performance curves and cavitation risks become visible. This allows you to compare several casing and impeller variants earlier and to create a reliable basis for your next development decision.
Where does cavitation occur in the centrifugal pump and which regions do you need to examine more closely? Regions in which the local pressure falls below the vapour pressure can impair the reliability and performance of a centrifugal pump. The simulation shows in which regions cavitation risks arise and whether possible NPSH shortfalls need to be examined more closely. This allows you to evaluate measures for preventing cavitation as early as the development phase.
How do head and efficiency develop? For a reliable pump design, considering a single operating point is usually not sufficient. What matters is how head, efficiency, power consumption and torque develop across the relevant operating points. StrömungsRaum® automatically generates the key performance curves. This allows you to assess the performance of your pump in a comprehensible way and to compare variants in a targeted manner.
How does the pumped medium move through the pump and which forces arise in the process? Pressure distributions, velocity fields and wall shear stresses show how the pumped medium moves through the casing and impeller. In addition, the resulting forces in the axial and radial directions can be investigated. The radial forces help you to better interpret the hydraulic behaviour behind the performance indicators and to decide more specifically which geometry or which region should be investigated further. The axial forces are relevant above all for the bearing design.
Where does cavitation occur in the centrifugal pump and which regions do you need to examine more closely? Regions in which the local pressure falls below the vapour pressure can impair the reliability and performance of a centrifugal pump. The simulation shows in which regions cavitation risks arise and whether possible NPSH shortfalls need to be examined more closely. This allows you to evaluate measures for preventing cavitation as early as the development phase.
How do head and efficiency develop? For a reliable pump design, considering a single operating point is usually not sufficient. What matters is how head, efficiency, power consumption and torque develop across the relevant operating points. StrömungsRaum® automatically generates the key performance curves. This allows you to assess the performance of your pump in a comprehensible way and to compare variants in a targeted manner.
How does the pumped medium move through the pump and which forces arise in the process? Pressure distributions, velocity fields and wall shear stresses show how the pumped medium moves through the casing and impeller. In addition, the resulting forces in the axial and radial directions can be investigated. The radial forces help you to better interpret the hydraulic behaviour behind the performance indicators and to decide more specifically which geometry or which region should be investigated further. The axial forces are relevant above all for the bearing design.
Where does cavitation occur in the centrifugal pump and which regions do you need to examine more closely? Regions in which the local pressure falls below the vapour pressure can impair the reliability and performance of a centrifugal pump. The simulation shows in which regions cavitation risks arise and whether possible NPSH shortfalls need to be examined more closely. This allows you to evaluate measures for preventing cavitation as early as the development phase.
How do head and efficiency develop? For a reliable pump design, considering a single operating point is usually not sufficient. What matters is how head, efficiency, power consumption and torque develop across the relevant operating points. StrömungsRaum® automatically generates the key performance curves. This allows you to assess the performance of your pump in a comprehensible way and to compare variants in a targeted manner.
How does the pumped medium move through the pump and which forces arise in the process? Pressure distributions, velocity fields and wall shear stresses show how the pumped medium moves through the casing and impeller. In addition, the resulting forces in the axial and radial directions can be investigated. The radial forces help you to better interpret the hydraulic behaviour behind the performance indicators and to decide more specifically which geometry or which region should be investigated further. The axial forces are relevant above all for the bearing design.
IANUS takes care of the technical analysis. Your team decides which geometry is pursued further.
StrömungsRaum® automates the calculation of centrifugal pump hydraulics – from pre-processing through to post-processing. You upload your geometries, investigate different combinations and define the relevant operating points, without having to build up your own computing hardware or complex simulation workflows. In-depth CFD expertise is not required to get started either. This allows you to optimise your centrifugal pump, investigate more variants and deploy development resources where they make the greatest contribution.
You receive detailed results and automatically generated performance curves for head, efficiency, power consumption, torque, resulting forces and cavitation. Graphical representations of pressure distributions, velocity fields and regions with a cavitation risk support you in interpreting the results. This turns a technical analysis into a comprehensible basis for the next decision in design engineering and development.
IANUS takes care of the technical analysis. Your team decides which geometry is pursued further.
StrömungsRaum® automates the calculation of centrifugal pump hydraulics – from pre-processing through to post-processing. You upload your geometries, investigate different combinations and define the relevant operating points, without having to build up your own computing hardware or complex simulation workflows. In-depth CFD expertise is not required to get started either. This allows you to optimise your centrifugal pump, investigate more variants and deploy development resources where they make the greatest contribution.
You receive detailed results and automatically generated performance curves for head, efficiency, power consumption, torque, resulting forces and cavitation. Graphical representations of pressure distributions, velocity fields and regions with a cavitation risk support you in interpreting the results. This turns a technical analysis into a comprehensible basis for the next decision in design engineering and development.
IANUS takes care of the technical analysis. Your team decides which geometry is pursued further.
StrömungsRaum® automates the calculation of centrifugal pump hydraulics – from pre-processing through to post-processing. You upload your geometries, investigate different combinations and define the relevant operating points, without having to build up your own computing hardware or complex simulation workflows. In-depth CFD expertise is not required to get started either. This allows you to optimise your centrifugal pump, investigate more variants and deploy development resources where they make the greatest contribution.
You receive detailed results and automatically generated performance curves for head, efficiency, power consumption, torque, resulting forces and cavitation. Graphical representations of pressure distributions, velocity fields and regions with a cavitation risk support you in interpreting the results. This turns a technical analysis into a comprehensible basis for the next decision in design engineering and development.
01
You describe what you want to clarify about your centrifugal pump: does the design achieve the required head? How do efficiency and power consumption develop across the relevant operating points? Where can local pressure minima and cavitation risks arise? Together with IANUS, you define which technical question is the focus and which project data is relevant for it.
02
You upload the geometries of your casings and impellers to StrömungsRaum®. The platform supports automatic, geometry-adaptive meshing of the variants investigated.
03
You define the relevant operating points and receive fully automated, detailed results and performance curves for your centrifugal pump design. The results allow you to evaluate head, efficiency, power consumption, pressure distribution and cavitation risks, among other things.
01
You describe what you want to clarify about your centrifugal pump: does the design achieve the required head? How do efficiency and power consumption develop across the relevant operating points? Where can local pressure minima and cavitation risks arise? Together with IANUS, you define which technical question is the focus and which project data is relevant for it.
02
You upload the geometries of your casings and impellers to StrömungsRaum®. The platform supports automatic, geometry-adaptive meshing of the variants investigated.
03
You define the relevant operating points and receive fully automated, detailed results and performance curves for your centrifugal pump design. The results allow you to evaluate head, efficiency, power consumption, pressure distribution and cavitation risks, among other things.
01
You describe what you want to clarify about your centrifugal pump: does the design achieve the required head? How do efficiency and power consumption develop across the relevant operating points? Where can local pressure minima and cavitation risks arise? Together with IANUS, you define which technical question is the focus and which project data is relevant for it.
02
You upload the geometries of your casings and impellers to StrömungsRaum®. The platform supports automatic, geometry-adaptive meshing of the variants investigated.
03
You define the relevant operating points and receive fully automated, detailed results and performance curves for your centrifugal pump design. The results allow you to evaluate head, efficiency, power consumption, pressure distribution and cavitation risks, among other things.
How AI-supported simulations accelerate the development of more efficient centrifugal pumps.
Customer-specific simulations make the performance of your centrifugal pump visible and thus become a convincing sales tool.
How AI-supported simulations accelerate the development of more efficient centrifugal pumps.
Customer-specific simulations make the performance of your centrifugal pump visible and thus become a convincing sales tool.
How AI-supported simulations accelerate the development of more efficient centrifugal pumps.
Customer-specific simulations make the performance of your centrifugal pump visible and thus become a convincing sales tool.
Design engineering
You decide how casing, impeller and operating points fit together. StrömungsRaum® supports you in investigating variants earlier and in evaluating the effects on head, efficiency, pressure distribution and cavitation in a comprehensible way. This allows you to select the next geometry more specifically and to substantiate your design with reliable results.
Production and process engineering
You have to align the pump design with the intended operating conditions and the pumped medium used. StrömungsRaum® makes flow behaviour, performance indicators and possible cavitation risks for different fluids visible at an early stage. This allows you to clarify open technical questions with development on a comprehensible basis, prepare further test runs more specifically and coordinate possible adjustments earlier.
Design engineering
You decide how casing, impeller and operating points fit together. StrömungsRaum® supports you in investigating variants earlier and in evaluating the effects on head, efficiency, pressure distribution and cavitation in a comprehensible way. This allows you to select the next geometry more specifically and to substantiate your design with reliable results.
Production and process engineering
You have to align the pump design with the intended operating conditions and the pumped medium used. StrömungsRaum® makes flow behaviour, performance indicators and possible cavitation risks for different fluids visible at an early stage. This allows you to clarify open technical questions with development on a comprehensible basis, prepare further test runs more specifically and coordinate possible adjustments earlier.
Design engineering
You decide how casing, impeller and operating points fit together. StrömungsRaum® supports you in investigating variants earlier and in evaluating the effects on head, efficiency, pressure distribution and cavitation in a comprehensible way. This allows you to select the next geometry more specifically and to substantiate your design with reliable results.
Production and process engineering
You have to align the pump design with the intended operating conditions and the pumped medium used. StrömungsRaum® makes flow behaviour, performance indicators and possible cavitation risks for different fluids visible at an early stage. This allows you to clarify open technical questions with development on a comprehensible basis, prepare further test runs more specifically and coordinate possible adjustments earlier.
Would you like to avoid cavitation in the pump, assess efficiency or compare casing and impeller variants? With StrömungsRaum® you can:
Your introductory offer
investigate cavitation risks and local regions with low pressure earlier
evaluate performance curves for head, efficiency and power consumption
compare casing and impeller variants at relevant operating points
prepare development decisions with comprehensible results
Would you like to avoid cavitation in the pump, assess efficiency or compare casing and impeller variants? With StrömungsRaum® you can:
investigate cavitation risks and local regions with low pressure earlier
evaluate performance curves for head, efficiency and power consumption
compare casing and impeller variants at relevant operating points
prepare development decisions with comprehensible results
Would you like to avoid cavitation in the pump, assess efficiency or compare casing and impeller variants? With StrömungsRaum® you can:
investigate cavitation risks and local regions with low pressure earlier
evaluate performance curves for head, efficiency and power consumption
compare casing and impeller variants at relevant operating points
prepare development decisions with comprehensible results
