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
“I find Ansys Fluent simulation a useful tool for solving my research questions. For us basic morphologists, learning a programming language is a hurdle — even more so for CFD simulations. I think Fluent software is very easy to use for beginners because it is not text based, but rather graphic based, which is easy to understand. I am impressed to be able to see the invisible phenomenon of flow by using Fluent software, which has greatly broadened my research horizons.”
— Taro Okamura, Graduate Student, Graduate School of Environmental Studies at Nagoya University
Using computational fluid dynamics (CFD), graduate student Taro Okamura of the Graduate School of Environmental Studies at Nagoya University is leading research on the evolutionary process of how and why cetaceans acquired their fin shape.
Under the supervision of Nagoya professor Ken Yoda, Ph.D., and with access to Ansys Fluent® fluid simulation software through the Ansys Academic Program, Okamura uses CFD to understand how the diversity of cetacean fin morphology — their form, position, and size — relates to hydrodynamics.
Cetaceans acquired three types of fins during the process of aquatic adaptation: pectoral fins, which are commonly called flippers, the dorsal fin, and the caudal fin (also called the tail fin or fluke). Although the dorsal fin has no joints and cannot move by itself, studies consistently recognize it as a posture stabilizer. However, the morphology of the dorsal fin varies significantly among species, prompting Okamura to ask: Does the dorsal fin perform the same stabilizer function in all cetaceans?
Traditional morphology research involves measuring and comparing animal shapes. However, fin morphology involves substantial diversity, including differences in fin shape among cetacean species and the functionality of those shapes in a fluid environment. Simulation helps researchers visualize and analyze diverse flow phenomena, but CFD can be challenging for non-simulation experts.
Okamura finds Fluent software easy to use for beginners because it is graphic based rather than text based. This enables him to analyze and model shape functionality and compare different fin shapes from varying cetaceans. In addition, he can analyze extreme models that do not exist in nature, which provides deeper insight into shape differences.
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