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How can added mass method be used to study the forces involved in fish locomotion? 


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The added mass method can be used to study the forces involved in fish locomotion by separating and emphasizing the role of added mass and vorticity release in generating kinetic energy and enabling vortex shedding in the wake . This method allows for the precise identification of added mass, which is crucial for a well-posed numerical problem and easily readable results . Additionally, the added mass plays a significant role in propulsive force generation, explaining some unexpected experimental results in front crawl swimming . By considering the effect of added mass and acceleration on hydrodynamic forces, the added mass method provides insights into the scale and trend of forces generated during swimming . Furthermore, the added mass method has been used to investigate the mechanical properties of fish fins during natural swimming, providing valuable information about fin stiffness and its modulation during swimming .

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The provided paper does not discuss the application of the added mass method to study the forces involved in fish locomotion.
The provided paper does not mention the added mass method or how it can be used to study the forces involved in fish locomotion.
The paper does not mention the use of the added mass method to study the forces involved in fish locomotion. The paper focuses on using a pneumatically-actuated fish-like model to investigate the effects of parameters like body stiffness, co-activation, and frequency on thrust generation.
The paper does not provide information on how the added mass method can be used to study the forces involved in fish locomotion.

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