Case Study
Ansysは、シミュレーションエンジニアリングソフトウェアを学生に無償で提供することで、未来を拓く学生たちの助けとなることを目指しています。
Ansysは、シミュレーションエンジニアリングソフトウェアを学生に無償で提供することで、未来を拓く学生たちの助けとなることを目指しています。
Ansysは、シミュレーションエンジニアリングソフトウェアを学生に無償で提供することで、未来を拓く学生たちの助けとなることを目指しています。
Case Study
"As our products continue to evolve, the ability to accurately predict material behaviors without the need to build physical prototypes has become essential. Integrating Ansys simulation solutions into our design process has enabled us to increase the quality of design iterations and ultimately produce more robust products."
— Chad Becht, Product Development / Safespill Systems
Due to the unique ways that our product is utilized by our clients, each application tends to involve a certain level of customization to provide the best possible solution. This can range from analyzing standard product geometries using application-specific load cases to developing custom designs specifically tailored to our clients’ needs. The use of Ansys Simulation software enables our design team to develop these solutions more quickly and accurately.
While developing a client-specific application, the harsh environment that our system will be utilized in necessitated the use of chemically resistant PTFE for all seal materials. This came with the added drawback of increasing the hardness of the material, which required significantly higher compression forces to achieve a proper seal. The design utilizes a bolted connection to compress the seals. It was unknown if the standard geometry could generate sufficient forces to achieve adequate compression. We chose to use simulation to predict the maximum achievable seal compression force before component damage would occur.
Ansys simulation has become an integral part of the design process. Safespill can significantly decrease the time between product conceptualization and validation by allowing the design team to minimize the need to build prototypes between iterations. In the example described, the duration between identifying the failure mode and developing a working solution was under two weeks. Simulation enabled the team to test multiple iterations computationally and ultimately develop a product capable of generating compression forces 75% greater than the initial design.