You can understand the pressure loss of the heat sink water jacket!
For shape creation, we use CAESES, and for mesh model creation and CFD analysis, we use products from NUMECA!
Evaluating the losses occurring on the inner walls of the resonator! Introducing the successful correlation between Q value and theoretical solutions.
Quickly model electronic circuit structures using AIFEM! Evaluate the rationality of temperature and stress distribution.
A case study analyzing the temperature distribution of IGBTs and the stress distribution resulting from that temperature.
A control method that combines "predictive control," "adaptive control," and "feedback correction" is effective!
Explanation of the temperature distribution on the model surface and the temperature distribution in the central cross-section using diagrams!
Introducing fast prediction of temperature fields using data analysis based on the issues in the development and design of fuel cells!
To all businesses that offer services expected to bring about changes in the face and body.
An intuitively easy-to-understand layout! A design that allows for a smooth and easy progression from the interview to measurements.
Streamline data acquisition and analysis! Supported by top-level researchers with extensive experience.
A recruitment suitability assessment tool developed based on neuroscience and statistics!
Heart rate variability analysis from a wearable electrocardiogram.
Creation and analysis of visual decision-making models.
Used to suppress reflections from the applicator! Introducing simulation examples of the EH tuner.
Calculate the average magnetic flux density flowing inside the iron plate! A case study comparing and verifying the measurements of Team Problem 13.
Confirming the electric field strength generated by overhead power lines! Introducing simulation examples through frequency response analysis.
This solution enables the visualization of complex physical phenomena!
Developing a model base for the motor drive system!
ICT Service Coordinator Evolving Amid Change
Organize data for decision-making rather than just "capturing" the site. A foundational technology service that combines aerial photography, 3D scanning, and point cloud analysis.
Digitize the site and streamline progress management. Make decisions based on accurate information.
Maximize the appeal of the property. Create new value with accurate data.
Inspect infrastructure structures accurately and efficiently with data.
We will accurately grasp the disaster situation and support rapid recovery and reconstruction.
Digitize the site to accurately understand the condition of energy facilities.
Digitizing urban landscapes to support future urban planning.
We accurately understand the excavation site and support data-driven decision-making.
We digitize the scene of the incident to support objective evidence and rapid decision-making.
We will digitize the site to support rapid firefighting activities.
Automation of structural verification realized with Gears Verify! Recommended for those who want to streamline structural verification using analysis data.
Examples of the first five non-rigid motion modes, excluding the sixth rigid motion mode!
Examples of products that create a wealth of solutions for diverse applications!
Examples of products that use a friendly and user-friendly wizard-style interactive interface!
We will introduce a case where two heat sources were installed on a cooling plate and the cooling performance was evaluated.
Quickly check the response peaks and stress distribution of electronic devices with the frequency response analysis feature!
Input the necessary design parameters! It is possible to quickly obtain 3D design results.
A case study utilizing the unique feature of AI acceleration! Reducing iterations and achieving efficient analysis.
Learn mapping relationships and build data models! Quickly obtain molds that meet the requirements.
Only the modified parts of the existing shape are defined by parameters! Various shapes can be created.
One of the investigations into the impact of peak water pressure on structures! A case study analyzing the strength of the pump body.
Improving the performance of centrifugal pumps! A case study applying general-purpose thermal fluid analysis software.
Early warning methods based on machine learning can respond more sensitively to abnormal conditions!
Providing training on gearbox failure characteristics through big data analysis!
Efficiently solving complex flow and heat transfer problems! Case study of combustion analysis of a conical burner.
Create parametric and robust CAD models! Various types of complex freeform shapes can be realized.
The goal of the optimization calculation is to maximize fan efficiency at specific flow rates and increase airflow!
Introducing the parametric model of the pump model and the evaluation of H-Q (Head-Flow) and T-Q (Torque-Flow)!
The optimization calculation based on AIPOD resulted in a 4.69% reduction in mass!
Explanation of the geometry settings for turbo ducts and model variations!
Under conditions with little change in average torque, torque ripple is reduced by 10%!
Improved the first natural frequency from 701.5Hz to 1224.6Hz without breaking the outline boundary of the base model!
Compare the maximum displacements of the analysis results and reference values, and also conduct a verification of the analysis accuracy!
AIPOD is equipped with a direct interface, allowing for flexible process construction!
Optimization of the duct of the catalytic converter using CAESES!
Under the restriction of a pressure loss dp of less than 25 kPa for the water-cooled plate, the temperature difference across the section is reduced by 13.403%!
Predict the flow field and maximum velocity when the airflow velocity at the air conditioning outlet (inlet) is 2 m/s!
By checking the state of the velocity field, we can evaluate what kind of flow is occurring internally!
Optimization calculations are conducted in the design space using the optimization algorithm SilverBullet installed in AIPOD!
By comparing the results of strength analysis and eigenvalue analysis with reference results, the verification of AIFEM's analysis accuracy is also conducted simultaneously!
The error in pressure loss is about 2%, demonstrating that the computational capability of AICFD is effective!
Conducted heat dissipation simulation of air-cooled motors using AICFD and performed validation of the analysis results!
Using a porous media model! Create and evaluate the temperature distribution map on the model surface and the temperature distribution map of the central cross-section.
Simulating the flow around the vehicle body using the AI acceleration feature equipped in AICFD!
It is possible to efficiently obtain optimal candidate geometry that can be directly supplied to the downstream CAD design process!
The advantages of simulation include reproducibility, short cycles, low cost, and comprehensive and rich flow field analysis capabilities!
Introducing the parametric model of the rear wing created using CAESES' special CAD features!
Introducing representative results that visualize the characteristics of turbulence (vorticity magnitude)!
Implement shape deformation on the injector nozzle using the morphing function!
Utilizing CAESES for the optimization of the rear wing shape attached to racing cars!
A system for automatic optimization has been built using CAESES and commercial CFD analysis tools, resulting in significant improvements to the tire tread pattern!
Supporting development design operations! Introducing features that can be effectively utilized.
The parametric model is created in CAESES, and the adjoint solutions obtained from the commercial CFD tool are mapped to the design variables!
CAESES provides beneficial results across various fields, regardless of the products in question!
In the development of engine combustion processes, 3D CFD analysis is an important tool!
Parametrize the fin shape and arrangement of the heat sink to build a model that can flexibly evaluate various design patterns!
Optimization aimed at minimizing the maximum temperature based on a flexible parametric model has been implemented!
The parametric model created with CAESES can robustly output various complex shapes for use in optimization calculations!
Quickly obtain optimal designs by effectively utilizing simulation-driven optimization calculations!
Evaluate the entire process from curing and cooling to transportation and storage, as well as discharge heating and cooling, using AIFEM.
By considering manufacturing constraints, it leads to obtaining an even more ideal shape.
Reduction of total production costs! It is a collaborative mixed analysis and scale-up tool.
Measures "skin deviation value" compared to peers of the same age as a comprehensive score for "skin age." It displays analysis results that make it easy to compare with past data over time.
A unique technology that allows simultaneous measurement of not only the surface of the skin but also its deeper layers.
Using the "image analysis technology" with a CCD camera module, we measure and analyze the fineness of the skin texture, the amount of pores, and the quantity of comedones.
By analyzing the captured images and quantifying the area and intensity of the stains, it can be quantified.