Basri Ernnie Illyani, Basri Adi Azriff, Ahmad Kamarul Arifin
Department of Aerospace Engineering, Universiti Putra Malaysia, Serdang 43400, Selangor Darul Ehsan, Malaysia.
Biomimetics (Basel). 2023 Jul 20;8(3):319. doi: 10.3390/biomimetics8030319.
In many modern engineering fields, computational fluid dynamics (CFD) has been adopted as a methodology to solve complex problems. CFD is becoming a key component in developing updated designs and optimization through computational simulations, resulting in lower operating costs and enhanced efficiency. Even though the biomimetics application is complex in adapting nature to inspire new capabilities for exciting future technologies, the recent CFD in biomimetics is more accessible and practicable due to the availability of high-performance hardware and software with advances in computer sciences. Many simulations and experimental results have been used to study the analyses in biomimetics applications, particularly those related to aerospace engineering. There are numerous examples of biomimetic successes that involve making simple copies, such as the use of fins for swimming or the mastery of flying, which became possible only after the principles of aerodynamics were better understood. Therefore, this review discusses the essential methodology of CFD as a reliable tool for researchers in understanding the technology inspired by nature and an outlook for potential development through simulations. CFD plays a major role as decision support prior to undertaking a real commitment to execute any design inspired by nature and providing the direction to develop new capabilities of technologies.
在许多现代工程领域,计算流体动力学(CFD)已被用作解决复杂问题的一种方法。通过计算模拟,CFD正成为开发更新设计和进行优化的关键组成部分,从而降低运营成本并提高效率。尽管仿生学应用在将自然特性应用于激发未来令人兴奋的新技术能力方面很复杂,但由于高性能硬件和软件的可用性以及计算机科学的进步,最近仿生学中的CFD变得更易于使用和切实可行。许多模拟和实验结果已被用于研究仿生学应用中的分析,特别是那些与航空航天工程相关的分析。有许多仿生成功的例子,包括进行简单的模仿,例如使用鳍来游泳或掌握飞行,只有在更好地理解空气动力学原理之后才成为可能。因此,本综述讨论了CFD作为研究人员理解受自然启发的技术的可靠工具的基本方法,以及通过模拟实现潜在发展的展望。在真正致力于执行任何受自然启发的设计之前,CFD作为决策支持发挥着重要作用,并为开发新技术能力提供方向。