We have compiled a list of manufacturers, distributors, product information, reference prices, and rankings for Analysis software.
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Analysis software Product List and Ranking from 40 Manufacturers, Suppliers and Companies

Last Updated: Aggregation Period:Jul 30, 2025~Aug 26, 2025
This ranking is based on the number of page views on our site.

Analysis software Manufacturer, Suppliers and Company Rankings

Last Updated: Aggregation Period:Jul 30, 2025~Aug 26, 2025
This ranking is based on the number of page views on our site.

  1. null/null
  2. ミューテック Tokyo//software
  3. ウェーブフロント Kanagawa//software 本社
  4. 4 null/null
  5. 5 日本イーエスアイ Tokyo//software

Analysis software Product ranking

Last Updated: Aggregation Period:Jul 30, 2025~Aug 26, 2025
This ranking is based on the number of page views on our site.

  1. Fatigue Life Prediction Analysis Software 'FEMFAT' マグナ・インターナショナル・ジャパン マグナパワートレイン・ECS(Engieering Center Steyr)
  2. Multivariate analysis software "SIMCA" インフォコム サイエンスグループ
  3. Medical statistical analysis software 'MedCalc' B7
  4. 4 Multivariate analysis software 'Proficy CSense 2024' GEベルノバ・ソフトウェア・ジャパン
  5. 5 Viscous and viscoelastic fluid analysis software Ansys Polyflow

Analysis software Product List

736~750 item / All 1035 items

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Semiconductor plasma analysis software 'Particle-PLUS'

"Particle-PLUS" is a plasma and rarefied fluid analysis software that excels in ICP and CCP analysis using particle methods.

"Particle-PLUS" is software suitable for research and development of devices using plasma, compatible with ICP and CCP. - Excels in simulations of low-pressure gases where fluid modeling is difficult - Calculation functions for inductive heating for ICP simulations - Advanced physical model analysis such as CCP and external circuit models - Capable of simultaneously simulating ICP and CCP - Supports 2D and 3D, efficiently analyzing complex models - As a strength of our in-house developed software, customization to fit customer devices is possible ◆ Supports various cases ◆ - Magnetron sputtering - PVD, plasma CVD - Capacitively coupled plasma (CCP) - Dielectric barrier discharge (DBD), etc. ◆ Outputs various calculation results ◆ - Potential distribution - Density distribution/temperature distribution/generation distribution of electrons and ions - Particle flux and energy flux to the wall - Energy spectrum of electrons and ions at the wall - Density distribution/temperature distribution/velocity distribution of neutral gas, etc. *For more details, please feel free to contact us at sales@wavefront.co.jp.

  • Other analyses

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[Case Study] Machine Learning Example at a Coating Material Manufacturer

Introducing case studies of machine learning using "Pipeline Pilot"【Case Studies】

This time, the goal was to grasp the trends of optimal experimental conditions by predicting characteristic values. <Background> From traditional to modern times, developing materials with better characteristic values is an important task across all fields and remains a significant challenge. Additionally, since the characteristic values of materials can be influenced by various factors, there is a demand for increased efficiency in material development. For instance, factors such as the materials used during development, reaction time, temperature, and hysteresis may also affect the results. While it is ideal to introduce experimental design methods for all these conditions and discover optimal conditions through actual experiments and measurements, this is not realistic from a cost and time perspective. Therefore, we conducted machine learning using a small dataset that recorded several experimental conditions (for example, explanatory variables X1, X2, X3, X4, ...) and their respective characteristic values (for example, objective variables Y1, Y2). In this case, we were able to easily perform machine learning to create a model and improve prediction accuracy. *For more details, please contact us.*

  • simulator
  • Document and Data Management
  • Business Intelligence and Data Analysis

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Simerics MP+ is also used for oil cooling analysis of eAxle.

Analyze the oil cooling of the eAxle using Simerics, which has strong rotation and VOF capabilities! It's also suitable for switching from other general-purpose CFD solvers or particle methods.

【The following fluid analyses are possible】 ■ Free surface flow ■ Flow considering the compressibility of air contained in liquids ■ Pressure pulsation, water hammer effect ■ Coupling of pump flow with the rigid body motion of valves and cam rings ■ Flow in low to medium vacuum conditions ■ Compressible flow (subsonic) ■ Cavitation ■ Flow field (velocity vectors, pressure), flow rate, fluid forces, and time variation of torque Recently, there has been an increase in projects for oil cooling analysis of eAxles for automobiles, and when solving the VOF method with other CFD software, we have received inquiries such as: - Analysis time is too long - It is difficult to create fine calculation meshes - It diverges and does not converge Additionally, even when analyzing with particle methods, we have received feedback that accurate thermal analysis cannot be performed, and it can only determine the areas where oil is present. Our company undertakes actual contract work from Tier 1 customers, gaining know-how that cannot be obtained solely from software sales. Development source's SAE presentation paper on motor oil cooling https://saemobilus.sae.org/content/2020-01-0168/

  • Thermo-fluid analysis
  • Contract Analysis
  • simulator

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Simerics MP+ is also used for the oil cooling analysis of E-Axle.

Analyze the oil cooling of the E-Axle using Simerics, which has strong rotation and VOF capabilities! It's also suitable for switching from other general-purpose CFD solvers or particle methods.

【The following fluid analyses are possible】 ■ Free surface flow ■ Flow considering the compressibility of air contained in liquids ■ Pressure pulsation, water hammer effect ■ Coupling of pump flow with the rigid body motion of valves and cam rings ■ Flow in low to medium vacuum conditions ■ Compressible flow (subsonic) ■ Cavitation ■ Time variation of flow field (velocity vectors, pressure), flow rate, fluid forces, and torque Recently, there has been an increase in projects for oil cooling analysis of E-Axles for automobiles, and when solving the VOF method with other CFD software, we have received inquiries such as: - Analysis time is too long - It is difficult to create fine computational meshes - The solution diverges and does not converge Additionally, even when analyzing with particle methods, we have received feedback that accurate thermal analysis cannot be performed, and it is only possible to determine the areas where oil is present. Our company has gained know-how that cannot be obtained solely from software sales by actually undertaking contract work from Tier 1 customers. Development source's SAE presentation paper on motor oil cooling https://saemobilus.sae.org/content/2020-01-0168/

  • Thermo-fluid analysis
  • Contract Analysis
  • simulator

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Simerics MP+ is also used for oil cooling analysis of e-axles.

Analyze the oil cooling of e-axles with the powerful rotation and VOF features of Simerics! It's also suitable for switching from other general-purpose CFD solvers and particle methods.

【The following fluid analyses are possible】 ■ Free surface flow ■ Flow considering the compressibility of air contained in liquids ■ Pressure pulsation, water hammer effect ■ Coupling of pump flow with the rigid body motion of valves and cam rings ■ Flow in low to medium vacuum conditions ■ Compressible flow (subsonic) ■ Cavitation ■ Time variation of flow field (velocity vectors, pressure), flow rate, fluid forces, and torque Recently, there has been an increase in projects for oil cooling analysis of e-axles for automobiles, and when solving the VOF method with other CFD software, we have received inquiries such as: - Analysis time is too long - It is difficult to create fine computational meshes - It diverges and does not converge Additionally, even when analyzed using particle methods, we have received feedback that accurate thermal analysis cannot be performed, and it only provides a rough idea of where the oil is located. Our company has gained know-how that cannot be obtained solely from software sales by actually undertaking contracted work from Tier 1 customers. Development source's SAE presentation paper on motor oil cooling https://saemobilus.sae.org/content/2020-01-0168/

  • Thermo-fluid analysis
  • Contract Analysis
  • simulator

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Cooling analysis of the e-axle also uses "Simerics MP+".

Analyze the cooling of the e-axle with Simerics, which has strong rotation and VOF capabilities! It's also suitable for switching from other general-purpose CFD solvers or particle methods.

【The following fluid analyses are possible】 ■ Free surface flow ■ Flow considering the compressibility of air contained in liquids ■ Pressure pulsations, water hammer effects ■ Coupling of pump flow with the rigid body motion of valves and cam rings ■ Flow in low to medium vacuum conditions ■ Compressible flow (subsonic) ■ Cavitation ■ Flow field (velocity vectors, pressure), flow rate, fluid forces, and time variations of torque Recently, there has been an increase in projects for cooling analysis of e-axles for automobiles, and when solving the VOF method with other CFD software, we have received inquiries such as: - Analysis time is too long - It is difficult to create fine computational meshes - The solution diverges and does not converge Additionally, even when analyzing with particle methods, we have received feedback that accurate thermal analysis cannot be performed, and it is only possible to identify areas where oil is present. Our company has gained know-how that cannot be obtained solely from software sales by undertaking actual contract work from Tier 1 customers. SAE presentation paper on motor oil cooling from the developer: https://saemobilus.sae.org/content/2020-01-0168/

  • Thermo-fluid analysis
  • Contract Analysis
  • simulator

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Thermal Fluid Analysis Software FlowDesigner Inverse Analysis Function

The world's first thermal fluid analysis tool that exceeds the limits of trial and error.

In general thermal fluid analysis software, designers only input their proposed designs to simulate airflow and temperature distribution. Therefore, if the initial design conditions do not achieve the desired design target, the designer must repeatedly reconsider the improvement conditions themselves. To find improvement proposals that can meet the design goals, it is necessary to conduct a vast number of analyses. How can one find a design proposal that achieves the design goals within a limited design review period? The inverse analysis function of FlowDesigner is the only simulation software that provides the answer.

  • Thermo-fluid analysis

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This is how to use it! Inverse analysis in thermal design - Examination of heat sink shapes -

Visualizing improvement points with thermal conductivity sensitivity.

Are you repeatedly struggling with trial and error in thermal design? ~Introducing the "Inverse Analysis Function" of FlowDesigner!~ In traditional thermal design, we have derived answers through trial and error to meet design goals. There have also been times when we couldn't immediately achieve the design objectives and were forced to compromise. By using the "Inverse Analysis" function of the thermal fluid analysis software FlowDesigner, you can visualize various improvement proposals as "sensitivity" with just two analyses: "current proposal analysis" and "sensitivity analysis." This not only shortens the time spent on trial and error in thermal design but may also lead to solutions that you had never imagined before.

  • Thermo-fluid analysis

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BIM airflow analysis software FlowDesigner for architects.

Quickly visualize wind flow and temperature distribution! Useful for examining design and construction proposals, as well as for client proposal materials.

FlowDesigner is a purely domestic software developed with the desire to make it more accessible and easier to use not only for researchers with expertise in thermal fluid simulation but also for general designers. We believe that the essence of simulation lies in the ability to "test any idea immediately and as many times as needed." We think that this ease of use makes front-loading in design feasible. FlowDesigner will continue to evolve daily based on the following three key features to realize the simulation software we envision. ◆ It has been designated as a software eligible for subsidies under the Ministry of Land, Infrastructure, Transport and Tourism's "Building BIM Acceleration Project."

  • others

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Optimize heat sink placement with reverse analysis in FlowDesigner!

What can be done to "streamline" the consideration of the optimal layout plan?

Are you repeatedly struggling with trial and error in thermal design? ~Introducing the case of FlowDesigner’s "Inverse Analysis" feature!~ In traditional thermal design, we have derived answers through trial and error to meet design goals. There have also been times when we couldn't immediately achieve the design goals and were forced to settle for compromises. By using the "Inverse Analysis" feature of the thermal fluid analysis software FlowDesigner, you can visualize various improvement proposals as "sensitivity" with just two analyses: "current proposal analysis" and "sensitivity analysis." This not only shortens the time spent on trial and error in thermal design but may also lead to solutions that you had never imagined before.

  • Thermo-fluid analysis

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Thermal Fluid Analysis Software 'FlowDesigner'

Introducing the "inverse analysis" feature that visualizes improvements in thermal design with just two analyses.

In thermal design, where long hours of trial and error are used to derive answers, there are times when one cannot meet design goals and is forced to compromise. With the "inverse analysis" feature of the thermal fluid analysis software 'FlowDesigner', it is possible to visualize various improvement proposals as "sensitivity" with just two analyses. This can be expected to shorten the time spent on trial and error and lead to the discovery of improvement proposals. 【Features】 ■ Visualization of improvement proposals for airflow, position, thermal conductivity, etc., through analysis of the current plan and sensitivity analysis ■ Utilizing inverse analysis for design ideas can significantly improve design efficiency ■ Easy operation with an intuitive interface ■ Excellent stability and analysis speed ■ Support available after implementation ★ A free trial version of this software is currently available. Please feel free to contact us if you are interested. * For more details about the product, please download the PDF document.

  • Thermo-fluid analysis

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Thermal Fluid Analysis Software 'FlowDesigner' <Inverse Analysis Function>

You can instantly see where the problem lies! You are asked to identify "where the conditions that need improvement are" in a "reverse" manner.

"FlowDesigner" is a thermal fluid analysis software that boasts exceptional stability and overwhelming speed, allowing for easy operation with an intuitive interface. The product's "inverse analysis function" provides answers on how to achieve design goals within a limited design review period. By inputting the desired design target values, you can "reverse" the inquiry to determine "where improvements should be made" from the initial design proposal. 【Features of the Inverse Analysis Function】 ■ Identify improvement points with just two simulations  ・Step 1: Conduct analysis of the initial design proposal  ・Step 2: Set design target points and target values ■ Understand suitable improvement methods from the sensitivity map ■ Estimate internal heat generation of equipment through inverse analysis *For more details, please refer to the PDF document or feel free to contact us.

  • Thermo-fluid analysis

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Inverse Analysis: Automatically Achieving Target Design Temperature!? [Electronic Devices / Control Systems]

Free trial application now open!

FlowDesigner Inverse Analysis - Optimization of Flow Rate by Changing Opening Ratio - As a forced air cooling method, how should the opening ratio of the opening ratio panel be designed to achieve a wind speed target of 8 m/s at the target? The inverse analysis function of FlowDesigner allows you to input the desired design target value and determine "in reverse" where improvements should be made from the initial design proposal. In this video, we further utilize the automation feature to "automatically" derive the opening ratio (shape of the opening) that achieves the design target!

  • Thermo-fluid analysis

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