Learning Micromanipulation, Part 2: Term Projects in Practice

This paper describes the activities that have been necessary to design, fabricate, control and test some low-cost test stands independently developed by the students enrolled in the course of Micro-Nano sensors and actuators for the postgraduate course in Industrial Nanotechnologies Engineering of t...

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Main Authors: Giovanni Bonciani, Gaetano Biancucci, Simona Fioravanti, Vagif Valiyev, Antonello Binni
Format: Article
Language:English
Published: MDPI AG 2018-09-01
Series:Actuators
Subjects:
Online Access:http://www.mdpi.com/2076-0825/7/3/56
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spelling doaj-9258e95da27241a4a6d74738b8a238c12020-11-24T22:04:17ZengMDPI AGActuators2076-08252018-09-01735610.3390/act7030056act7030056Learning Micromanipulation, Part 2: Term Projects in PracticeGiovanni Bonciani0Gaetano Biancucci1Simona Fioravanti2Vagif Valiyev3Antonello Binni4Department of Mechanical and Aerospace Engineering, University of Rome La Sapienza, 00184 Rome, ItalyDepartment of Mechanical and Aerospace Engineering, University of Rome La Sapienza, 00184 Rome, ItalyDepartment of Mechanical and Aerospace Engineering, University of Rome La Sapienza, 00184 Rome, ItalyDepartment of Mechanical and Aerospace Engineering, University of Rome La Sapienza, 00184 Rome, ItalyDepartment of Mechanical and Aerospace Engineering, University of Rome La Sapienza, 00184 Rome, ItalyThis paper describes the activities that have been necessary to design, fabricate, control and test some low-cost test stands independently developed by the students enrolled in the course of Micro-Nano sensors and actuators for the postgraduate course in Industrial Nanotechnologies Engineering of the University of Rome La Sapienza. The construction and use of these test stands are an essential part of teaching and learning methods whose theoretical bases have been presented in the companion paper (Part 1). Each test stand is composed of a compliant structure and a control system, which consists of a programmable control micro-card equipped with sensors and actuators. The compliant structure consists of a compliant mechanism whose geometry is achieved by scaling some previously developed silicon micromanipuators and microactuators up to the macroscale by a factor of 20. This macroscale model offered a kinesthetic tool to improve the understanding of the original microsystems and their working principles. The original silicon micromechanisms have been previously presented in the literature by the research group after design and deep reactive-ion etching (DRIE) microfabrication. Scaling from micro to macro size was quite easy because the original DRIE masks were bestowed to the students in the form of CAD files. The samples at the macroscale have been fabricated by means of recently available low-cost 3D printers after some necessary modifications of the mask geometry. The purpose of the whole work (Parts 1 and 2) was the improvement of the efficiency of an educational process in the field of microsystem science. By combining the two companion papers, concerning, respectively, the theoretical basis of the teaching methods and the students’ achievements, it is possible to conclude that, in a given class, there may be some preferred activities that are more efficient than others in terms of advancements and satisfaction.http://www.mdpi.com/2076-0825/7/3/56teachinglearningmocromanipulationmicroactuationmultiple ability inventories
collection DOAJ
language English
format Article
sources DOAJ
author Giovanni Bonciani
Gaetano Biancucci
Simona Fioravanti
Vagif Valiyev
Antonello Binni
spellingShingle Giovanni Bonciani
Gaetano Biancucci
Simona Fioravanti
Vagif Valiyev
Antonello Binni
Learning Micromanipulation, Part 2: Term Projects in Practice
Actuators
teaching
learning
mocromanipulation
microactuation
multiple ability inventories
author_facet Giovanni Bonciani
Gaetano Biancucci
Simona Fioravanti
Vagif Valiyev
Antonello Binni
author_sort Giovanni Bonciani
title Learning Micromanipulation, Part 2: Term Projects in Practice
title_short Learning Micromanipulation, Part 2: Term Projects in Practice
title_full Learning Micromanipulation, Part 2: Term Projects in Practice
title_fullStr Learning Micromanipulation, Part 2: Term Projects in Practice
title_full_unstemmed Learning Micromanipulation, Part 2: Term Projects in Practice
title_sort learning micromanipulation, part 2: term projects in practice
publisher MDPI AG
series Actuators
issn 2076-0825
publishDate 2018-09-01
description This paper describes the activities that have been necessary to design, fabricate, control and test some low-cost test stands independently developed by the students enrolled in the course of Micro-Nano sensors and actuators for the postgraduate course in Industrial Nanotechnologies Engineering of the University of Rome La Sapienza. The construction and use of these test stands are an essential part of teaching and learning methods whose theoretical bases have been presented in the companion paper (Part 1). Each test stand is composed of a compliant structure and a control system, which consists of a programmable control micro-card equipped with sensors and actuators. The compliant structure consists of a compliant mechanism whose geometry is achieved by scaling some previously developed silicon micromanipuators and microactuators up to the macroscale by a factor of 20. This macroscale model offered a kinesthetic tool to improve the understanding of the original microsystems and their working principles. The original silicon micromechanisms have been previously presented in the literature by the research group after design and deep reactive-ion etching (DRIE) microfabrication. Scaling from micro to macro size was quite easy because the original DRIE masks were bestowed to the students in the form of CAD files. The samples at the macroscale have been fabricated by means of recently available low-cost 3D printers after some necessary modifications of the mask geometry. The purpose of the whole work (Parts 1 and 2) was the improvement of the efficiency of an educational process in the field of microsystem science. By combining the two companion papers, concerning, respectively, the theoretical basis of the teaching methods and the students’ achievements, it is possible to conclude that, in a given class, there may be some preferred activities that are more efficient than others in terms of advancements and satisfaction.
topic teaching
learning
mocromanipulation
microactuation
multiple ability inventories
url http://www.mdpi.com/2076-0825/7/3/56
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