Investigating the influential factors of ejective time and compressible force magnitude to fluid jet movement

Q3 Mathematics
V. Q. Nguyen, Van Thien Nguyen, T. Hoang
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引用次数: 0

Abstract

The molecular dynamics is the research method which is used to simulate the liquid ejection in this paper. The factors of 200000 time step (fs) total ejective time of total 200 000 time steps (fs) and various compressible forces of 9.0 × 10−10, 10.0 × 10−10 and 11.0 × 10−10 Newton (N) are main investigated in this research. These influences have action to the moveable direction of fluid jet in the whole ejective process. The research result indicates that liquid jet is prepared to separate out from nozzle plate's surface to form up droplets at the ejective time of 140 000 fs for the nozzle diameter size of 27.5 Angstrom (Å), system temperature of 310 Kelvin (K) and compressible force magnitude of 9.0 × 10−10 (N). However, when increasing the ejective time or compressible force magnitude, the jets were not only non-destruction from nozzle's surface to produce the droplets but also downward movement to go back the nozzle's surface. Meanwhile, with the nozzle diameter size of 40 Å, the droplets are not only production but also movement up to go away the nozzle under same research condition. Those prove that the ejective time and compressible force magnitude have the influences to the moveable direction of fluid jet in the whole ejective process.
研究了喷射时间和可压缩力大小对射流运动的影响因素
本文采用分子动力学的研究方法来模拟液体喷射过程。主要研究了20万时间步长(fs)、总喷射时间(fs)和9.0 × 10−10、10.0 × 10−10和11.0 × 10−10牛顿(N)的各种可压缩力的影响因素。这些影响在整个喷射过程中对流体射流的运动方向都有影响。研究结果表明,在喷管直径为27.5埃(Å)、系统温度为310开尔文(K)、可压缩力量级为9.0 × 10−10 (N)的条件下,在喷射时间为14000 fs时,制备出液体射流从喷管板表面分离形成液滴。射流既不破坏喷嘴表面产生液滴,又能向下运动返回喷嘴表面。同时,当喷嘴直径为40 Å时,在相同的研究条件下,液滴不仅产生,而且向上运动离开喷嘴。结果表明,在整个喷射过程中,喷射时间和可压缩力大小对流体射流的运动方向有影响。
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来源期刊
CiteScore
2.00
自引率
0.00%
发文量
19
审稿时长
16 weeks
期刊介绍: The International Journal for Simulation and Multidisciplinary Design Optimization is a peer-reviewed journal covering all aspects related to the simulation and multidisciplinary design optimization. It is devoted to publish original work related to advanced design methodologies, theoretical approaches, contemporary computers and their applications to different fields such as engineering software/hardware developments, science, computing techniques, aerospace, automobile, aeronautic, business, management, manufacturing,... etc. Front-edge research topics related to topology optimization, composite material design, numerical simulation of manufacturing process, advanced optimization algorithms, industrial applications of optimization methods are highly suggested. The scope includes, but is not limited to original research contributions, reviews in the following topics: Parameter identification & Surface Response (all aspects of characterization and modeling of materials and structural behaviors, Artificial Neural Network, Parametric Programming, approximation methods,…etc.) Optimization Strategies (optimization methods that involve heuristic or Mathematics approaches, Control Theory, Linear & Nonlinear Programming, Stochastic Programming, Discrete & Dynamic Programming, Operational Research, Algorithms in Optimization based on nature behaviors,….etc.) Structural Optimization (sizing, shape and topology optimizations with or without external constraints for materials and structures) Dynamic and Vibration (cover modelling and simulation for dynamic and vibration analysis, shape and topology optimizations with or without external constraints for materials and structures) Industrial Applications (Applications Related to Optimization, Modelling for Engineering applications are very welcome. Authors should underline the technological, numerical or integration of the mentioned scopes.).
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