Simulation research of a wind turbine using SolidWorks software

Cekus, Dawid; Gnatowska, Renata; Kwiatoń, Paweł; Šofer, Michal

doi:10.1088/1742-6596/1398/1/012001

Cited by 11 publications

(9 citation statements)

References 12 publications

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“…Prototyping radar on AR, as shown in Figure 9, develop Augmented Reality design using markers and cellphones or gadgets. The manufacturing process begins with drawing a 3D radar model object and, in this study, using the Solidworks application (Cekus et al, 2019). Furthermore, the 3D image is combined with the 3D Blender application to create a virtual object whose format follows the application on the game engine.…”

Section: Figure 9 Ar Radar Design Stagesmentioning

confidence: 99%

The Integration of Augmented Reality and Virtual Laboratory based on the 5E Model and Vark Assessment: A Conceptual Framework

Purwaningtyas¹,

Prabowo²,

Napitupulu³

et al. 2022

JPII

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Engineering education in aviation vocational education builds up skills and attitudes. Students must deal with the laboratory complexity, especially in radar training. Students must understand so much basic knowledge and enhance their skills. The high equipment cost and inflexibility of current learning make radar training less effective and cognitive. Augmented Reality (AR) integrated with laboratory activities is an opportunity to improve learning outcomes for vocational education training in an online learning platform. This study aims to find student learning problems in radar training and propose a framework for integrating virtual radar laboratories with Augmented Reality. This research used a descriptive analysis approach and a literature study. A survey at four Aviation Polytechnics in Indonesia results in cognitive load and troubleshooting skills as the main problem in radar training. The proposed framework concept for laboratory integration with Augmented Reality is added a learning style: the VARK framework and Augmented Reality design with a 5E-based model to make laboratory interaction design. Virtual laboratory integration with Augmented Reality with learning style proposed to enhance laboratory activity to achieve the troubleshooting capability on radar laboratory and make this learning more flexible and personalized.

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Section: Figure 9 Ar Radar Design Stagesmentioning

confidence: 99%

The Integration of Augmented Reality and Virtual Laboratory based on the 5E Model and Vark Assessment: A Conceptual Framework

Purwaningtyas¹,

Prabowo²,

Napitupulu³

et al. 2022

JPII

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“…Модель компьютерной установки была создана в полном геометрическом соответствии с размерами разработанной установки, что с высокой степенью достоверности предполагает получение данных, которые составят основу проведения экспериментальных исследований. Моделирование потока осуществлялось в программном продукте SolidWorks 11 [19][20][21] с использованием критерия подобия -числом Рейнольдса Re.…”

Section: рис 3 форма регулируемой щели Fig 3 Shape Of the Adjustable Slitunclassified

Installation of physical simulation of wind load on crane structures

Сладкова

Крылов

Кузнецов

2021

jour

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The purpose of the paper is to reproduce a standard wind flow (laminar, turbulent, pulsating modes) to study the impact on crane structures, with the aim to obtain the load values of crane elements most closely approximate to real conditions. When creating an installation, which is related to the field of experimental aerodynamics, the "principle of simulating the main factors determined by the operating conditions of the research object" is adopted to ensure the r eproducibility of test results to the maximum extent. To confirm the performance efficiency of the proposed installation device, its computer model is developed using the CAD software SolidWorks. The computer model parameters are in full geometric agreement with the dimensions of the developed real installation. The use of the installation makes it possible to study the dynamic effect of the wind on the stability of crane structures in various operation modes (change in wind speed, in the mode of load operation, in operation conditions at the wall, etc.). The proposed installation allows to simulate the loads on crane equipment with the possibility of characteristics expanding, for example, its carrying capacity. The generated computer model of the installation makes it possible to reveal the physical picture of wind flow distribution at the installation outlet. The results of wind flow simulation on the proposed installation are confirmed on a computer model with a high degree of convergence of results at wind speeds of 2.5 m/s and lower The installation proposed by the authors will allow to simulate: the value of the real average statistical wind load of various intensity; pulsating component of the wind load; vortex excitation; increase of the available aerodynamic research capability for a real crane structure. The developed installation is a calibration device for external impacts of the wind force on the crane structure.

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“…The impact of wind pressure acting on the load can be represented using a formula (14) for aerodynamic resistance [11,37]:…”

Section: Analytical Approachmentioning

confidence: 99%

The dynamic analysis of load motion during the interaction of wind pressure

2020

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This work presents the analysis of the load motion during the interaction of wind pressure. The load was treated as a rigid body, and the rope system model as a non-deformed. The influence of effective area of wind pressure on load motion was considered. The theoretical model of load motion was presented, which may be an universal approach for transporting machines equipped with a rope-lifting system. To define the orientation of the movable Cartesian coordinate system related to the load, Bryant angles were used. An algorithm and computational program were developed to allow for analysis of dynamic phenomena. The initial problem was solved with the use of the ode45 calculation procedure in the Matlab software on the basis of the Runge-Kutta 4th Order Method. The obtained results were verified with the experimental ones achieved in the wind tunnel and Tracker program. Numerical calculations using commercial software SolidWorks were also presented. In the experiment, the spatial motion of the load was analysed. Experimental tests were carried out for gust of wind and constant temperature and humidity. In addition, the paper presents the application of the proposed method for a load carried by a rotary crane. After taking into account the control functions resulting from the nature of the work of any machine, the formulated model can be a full description of the carried load motion taking into account external forces.

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Simulation research of a wind turbine using SolidWorks software

Cited by 11 publications

References 12 publications

The Integration of Augmented Reality and Virtual Laboratory based on the 5E Model and Vark Assessment: A Conceptual Framework

The Integration of Augmented Reality and Virtual Laboratory based on the 5E Model and Vark Assessment: A Conceptual Framework

Installation of physical simulation of wind load on crane structures

The dynamic analysis of load motion during the interaction of wind pressure

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