Trajectory and Conveyance Validation of a Micro Conveyor Based on a Digital Electromagnetic Actuators Array for the Micro-Factory

Micro-factories are characterized by high modularity, reconfigurability and mobility. To achieve this, the micro-factory needs a conveyor which is able to transport objects in as many degrees of freedom (DoF) as possible, executes optimal trajectories of these objects in terms of energy and precisio...

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Main Authors: Simon Duque Tisnes, Atif Tasneem, Laurent Petit, Christine Prelle
Format: Article
Language:English
Published: MDPI AG 2021-12-01
Series:Applied Sciences
Subjects:
Online Access:https://www.mdpi.com/2076-3417/11/24/11980
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author Simon Duque Tisnes
Atif Tasneem
Laurent Petit
Christine Prelle
author_facet Simon Duque Tisnes
Atif Tasneem
Laurent Petit
Christine Prelle
author_sort Simon Duque Tisnes
collection DOAJ
description Micro-factories are characterized by high modularity, reconfigurability and mobility. To achieve this, the micro-factory needs a conveyor which is able to transport objects in as many degrees of freedom (DoF) as possible, executes optimal trajectories of these objects in terms of energy and precision and is robust to withstand possible malfunctions. In this article, we present the planar conveyance of objects on a digital actuation array following trajectories generated by an adapted A* algorithm. The A* algorithm exploits the predictions of a developed dynamic model of the system to find the optimal paths (in terms of energy) on the conveyor surface. The dynamic model predictions were compared to experimental measurements, obtaining low root-mean-square-errors for all conditions. Uni-dimensional conveyance tests characterized the influence of the control parameters. Then, bi-dimensional motions characterized the conveyor’s performance. From the bi-dimensional test, a position root-mean-square-error of 20 μm was measured for a 1109 μm open-loop controlled trajectory. The modular nature of the array allows easy scaling and avoiding possible malfunctioning zones, increasing the robustness of the micro-conveyor. The experimental tests demonstrate that the proposed device is an interesting alternative for the micro-factory.
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spelling doaj.art-789d5cd020cd4cd39bacc92bd577880a2023-11-23T03:41:22ZengMDPI AGApplied Sciences2076-34172021-12-0111241198010.3390/app112411980Trajectory and Conveyance Validation of a Micro Conveyor Based on a Digital Electromagnetic Actuators Array for the Micro-FactorySimon Duque Tisnes0Atif Tasneem1Laurent Petit2Christine Prelle3Université de Technologie de Compiègne (UTC), Laboratoire Roberval (Mechanics, Energy and Electricity), Centre de Recherche Royallieu CS 60319, 60203 Compiègne, FranceUniversité de Technologie de Compiègne (UTC), Laboratoire Roberval (Mechanics, Energy and Electricity), Centre de Recherche Royallieu CS 60319, 60203 Compiègne, FranceUniversité de Technologie de Compiègne (UTC), Laboratoire Roberval (Mechanics, Energy and Electricity), Centre de Recherche Royallieu CS 60319, 60203 Compiègne, FranceUniversité de Technologie de Compiègne (UTC), Laboratoire Roberval (Mechanics, Energy and Electricity), Centre de Recherche Royallieu CS 60319, 60203 Compiègne, FranceMicro-factories are characterized by high modularity, reconfigurability and mobility. To achieve this, the micro-factory needs a conveyor which is able to transport objects in as many degrees of freedom (DoF) as possible, executes optimal trajectories of these objects in terms of energy and precision and is robust to withstand possible malfunctions. In this article, we present the planar conveyance of objects on a digital actuation array following trajectories generated by an adapted A* algorithm. The A* algorithm exploits the predictions of a developed dynamic model of the system to find the optimal paths (in terms of energy) on the conveyor surface. The dynamic model predictions were compared to experimental measurements, obtaining low root-mean-square-errors for all conditions. Uni-dimensional conveyance tests characterized the influence of the control parameters. Then, bi-dimensional motions characterized the conveyor’s performance. From the bi-dimensional test, a position root-mean-square-error of 20 μm was measured for a 1109 μm open-loop controlled trajectory. The modular nature of the array allows easy scaling and avoiding possible malfunctioning zones, increasing the robustness of the micro-conveyor. The experimental tests demonstrate that the proposed device is an interesting alternative for the micro-factory.https://www.mdpi.com/2076-3417/11/24/11980conveyance systemmicro-factorydiscrete actuatorcollaborative actuationMEMS arraydigital actuation
spellingShingle Simon Duque Tisnes
Atif Tasneem
Laurent Petit
Christine Prelle
Trajectory and Conveyance Validation of a Micro Conveyor Based on a Digital Electromagnetic Actuators Array for the Micro-Factory
Applied Sciences
conveyance system
micro-factory
discrete actuator
collaborative actuation
MEMS array
digital actuation
title Trajectory and Conveyance Validation of a Micro Conveyor Based on a Digital Electromagnetic Actuators Array for the Micro-Factory
title_full Trajectory and Conveyance Validation of a Micro Conveyor Based on a Digital Electromagnetic Actuators Array for the Micro-Factory
title_fullStr Trajectory and Conveyance Validation of a Micro Conveyor Based on a Digital Electromagnetic Actuators Array for the Micro-Factory
title_full_unstemmed Trajectory and Conveyance Validation of a Micro Conveyor Based on a Digital Electromagnetic Actuators Array for the Micro-Factory
title_short Trajectory and Conveyance Validation of a Micro Conveyor Based on a Digital Electromagnetic Actuators Array for the Micro-Factory
title_sort trajectory and conveyance validation of a micro conveyor based on a digital electromagnetic actuators array for the micro factory
topic conveyance system
micro-factory
discrete actuator
collaborative actuation
MEMS array
digital actuation
url https://www.mdpi.com/2076-3417/11/24/11980
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AT atiftasneem trajectoryandconveyancevalidationofamicroconveyorbasedonadigitalelectromagneticactuatorsarrayforthemicrofactory
AT laurentpetit trajectoryandconveyancevalidationofamicroconveyorbasedonadigitalelectromagneticactuatorsarrayforthemicrofactory
AT christineprelle trajectoryandconveyancevalidationofamicroconveyorbasedonadigitalelectromagneticactuatorsarrayforthemicrofactory