Implementation and Assessment of a Virtual Laboratory of Parallel Robots Developed for Engineering Students

2014 ◽  
Vol 57 (2) ◽  
pp. 92-98 ◽  
Author(s):  
Arturo Gil ◽  
Adrian Peidro ◽  
Oscar Reinoso ◽  
Jose Maria Marin
2012 ◽  
pp. 105-129
Author(s):  
Alexandre Kawano ◽  
Eduardo Aoun Tannuri ◽  
Jun Okamoto ◽  
Marcos Ribeiro Pereira Barreto ◽  
Newton Maruyama ◽  
...  

From the academia viewpoint, the process of qualifying engineering students demands they acquire a deep understanding of basic sciences and technological aspects. On the other hand, it is quite a challenge to keep them motivated throughout their graduation period. Taking into account these issues, an integrated approach for teaching can provide good results. Basically, the way that such integration might be accomplished requires a single project per period. In addition, the disciplines taken by the students in a specific period should provide them the necessary background to conclude that project. Focusing on teaching robotics, this chapter describes the authors’ experience with mechatronics engineering students in the 7th-period of their graduation.


2020 ◽  
pp. 234763112097075
Author(s):  
N. Kapilan ◽  
P. Vidhya ◽  
Xiao-Zhi Gao

The engineering students understand the engineering concepts effectively when they conduct the experiments in the laboratory. Hence, laboratory is as important as theory; however, the ill-equipped laboratory facilities affect the students’ learnability. The virtual laboratories may help the students overcome the problems faced by them in the conventional laboratory. In India, educational activities during the middle of the semester were affected due to lockdown related to COVID-19. However, the theory classes were conducted online, and educational institutions are finding it difficult to complete the laboratory experiments due to closure of colleges for the students due to COVID-19 pandemic. Hence, we have conducted a faculty development programme for the engineering college faculty members on mechanical engineering virtual laboratories. Similarly, we have trained the mechanical engineering students on fluid mechanics virtual laboratory. We have taken feedback from the participants of these virtual laboratory training programme and analysed it. From the analysis we have observed that more than 90 per cent of the participants were happy about the virtual laboratory and they expressed that their learning process improved with virtual laboratory experiments. Also, they felt that the virtual laboratories can be used till the COVID-19 pandemic issues are solved. Since the vaccine for COVID-19 is not available yet, the virtual laboratories will help the mechanical engineering students to conduct the laboratory experiments for the academic year 2020–2021.


Author(s):  
Celina P. Lea˜o ◽  
Filomena O. Soares ◽  
Jose´ Machado ◽  
P. B. de Moura Oliveira ◽  
J. Boaventura Cunha

Modeling discrete event systems with sequential behavior can be a very hard and complex task. Some formalisms are used in this context, such as: Petri Nets, Statecharts, Finite automata, Grafcet and others. Among these, Grafcet seems to be a good choice because it is easy: to learn, to understand and to use. Teaching Grafcet is then relevant within engineering courses concerned with Industrial Automation. A virtual laboratory, e-GRAFCET, developed and first tested in UTAD University; it is a new, easy-to-use multimedia e-educational tool to support the self-learning process of Grafcet. This paper, reports a study of e-GRAFCET use by the students of University of Minho. A questionnaire was prepared and students asked to fulfill it in a volunteer basis. The results were statistically analyzed and the scores compared. The overall objective is to understand how the tool helps students in their study, and consequently improve their learning off Grafcet, independently of their engineering background.


Optics ◽  
2021 ◽  
Vol 2 (4) ◽  
pp. 251-258
Author(s):  
Javier Gamo

The need for remote teaching tools in all education levels has experienced a big increase due to COVID-19 pandemic. Laboratory practical sessions have not been an exception, and many online and offline tools have been made available to respond to the lockdown of teaching facilities. This paper presents a software testbed named OPTILAB for teaching diffraction experiments to engineering students. The software simulates classical diffraction apertures (single slit, double slit, circular slit) under a wide variety of conditions. Explanation about the Physics behind the diffraction phenomenon is also included in OPTILAB to increase the students’ self-learning experience. Originally conceived as a complement to on-site teaching, due to COVID-19 pandemic OPTILAB has been adopted as the basic tool to build a brand-new, virtual laboratory session about diffraction in Physics III course (biomedical engineering) at Carlos III University of Madrid. Results obtained by the students taking this virtual lab during Fall 2020 are presented and discussed.


Author(s):  
Michael J. Benson ◽  
Bret P. Van Poppel ◽  
Daisie D. Boettner ◽  
A. O¨zer Arnas

Topics on gas turbine machinery have been successfully integrated into the thermodynamics course at the United States Military Academy (USMA). Because graduating cadets will encounter gas turbines throughout their service in the U.S. Army, it is important for all engineering students, not just mechanical engineering majors, to learn about gas turbines, their operation, and their applications. This is accomplished by four methods, one of which is an experimental analysis of an operational auxiliary power unit (APU) from an Army helicopter. Due to recent building issues, this gas turbine laboratory was improvised and offered as a fully digital virtual laboratory exercise. Since all undergraduate programs do not have the luxury of having a gas turbine laboratory, our experiences with the virtual laboratory are offered as an effective option. By digitally reproducing the laboratory setup, introduction, instrumentation, data collection and analysis, the virtual experience captures the essence of the laboratory. After viewing the web-based laboratory digital media files, students use one of two data sets, recorded from the data display panel in the real laboratory, in order to complete the laboratory report. While the tremendous advantage of actually seeing, testing, and analyzing the real engine cannot be denied, a well-planned and executed virtual laboratory adequately achieves learning objectives and provides students a unique opportunity to apply gas turbine fundamentals. An assessment of the virtual laboratory and results of student feedback are provided.


2015 ◽  
Vol 48 (29) ◽  
pp. 19-24 ◽  
Author(s):  
Adrián Peidró ◽  
Oscar Reinoso ◽  
Arturo Gil ◽  
José M. Marín ◽  
Luis Payá

Author(s):  
Simoneta Caño de las Heras ◽  
Barbara Kensington-Miller ◽  
Brent Young ◽  
Vicente Gonzalez ◽  
Ulrich Krühne ◽  
...  

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