Optimizing the speed of single infrared-laser-induced thermocapillary flows micromanipulation by using design of experiments

Elvin Muñoz; Johan Quispe; Pierre Lambert; Aude Bolopion; Ronald Terrazas; Stéphane Régnier; Emir Vela

doi:10.1007/s12213-017-0097-3

Optimizing the speed of single infrared-laser-induced thermocapillary flows micromanipulation by using design of experiments

Elvin Muñoz, Johan Quispe, Pierre Lambert, Aude Bolopion, Ronald Terrazas, Stéphane Régnier, Emir Vela

Department of Electrical and Mechatronics Engineering

Research output: Contribution to journal › Article › peer-review

5 Scopus citations

Abstract

Laser-induced thermocapillary convection flows is a promising technique to manipulate micrometer size particles. Several parameters, such as the laser exposure time, the laser-particle distance, the particles’ diameter and the water layer thickness can be used to control the particles’ speed. This article deals with the study of the influence of the control parameters in the manipulation process using a systematic method: Design of Experiments (DoE). Additionally, a mathematical speed model of the manipulated particle as function of the mentioned parameters is proposed in order to enhance the manipulation accuracy and speed paving the way toward future works related to control strategies. Acid-washed glass beads ranging from 50 up to 150 microns were used for this purpose.

Original language	English
Pages (from-to)	65-72
Number of pages	8
Journal	Journal of Micro-Bio Robotics
Volume	12
Issue number	1-4
DOIs	https://doi.org/10.1007/s12213-017-0097-3
State	Published - 1 Jun 2017

Keywords

Design of experiments (DoE)
Infrared Laser
Micromanipulation
Thermocapillary flows

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10.1007/s12213-017-0097-3

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title = "Optimizing the speed of single infrared-laser-induced thermocapillary flows micromanipulation by using design of experiments",

abstract = "Laser-induced thermocapillary convection flows is a promising technique to manipulate micrometer size particles. Several parameters, such as the laser exposure time, the laser-particle distance, the particles{\textquoteright} diameter and the water layer thickness can be used to control the particles{\textquoteright} speed. This article deals with the study of the influence of the control parameters in the manipulation process using a systematic method: Design of Experiments (DoE). Additionally, a mathematical speed model of the manipulated particle as function of the mentioned parameters is proposed in order to enhance the manipulation accuracy and speed paving the way toward future works related to control strategies. Acid-washed glass beads ranging from 50 up to 150 microns were used for this purpose.",

keywords = "Design of experiments (DoE), Infrared Laser, Micromanipulation, Thermocapillary flows",

author = "Elvin Mu{\~n}oz and Johan Quispe and Pierre Lambert and Aude Bolopion and Ronald Terrazas and St{\'e}phane R{\'e}gnier and Emir Vela",

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AU - Lambert, Pierre

AU - Bolopion, Aude

AU - Terrazas, Ronald

AU - Régnier, Stéphane

AU - Vela, Emir

PY - 2017/6/1

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AB - Laser-induced thermocapillary convection flows is a promising technique to manipulate micrometer size particles. Several parameters, such as the laser exposure time, the laser-particle distance, the particles’ diameter and the water layer thickness can be used to control the particles’ speed. This article deals with the study of the influence of the control parameters in the manipulation process using a systematic method: Design of Experiments (DoE). Additionally, a mathematical speed model of the manipulated particle as function of the mentioned parameters is proposed in order to enhance the manipulation accuracy and speed paving the way toward future works related to control strategies. Acid-washed glass beads ranging from 50 up to 150 microns were used for this purpose.

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KW - Infrared Laser

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Optimizing the speed of single infrared-laser-induced thermocapillary flows micromanipulation by using design of experiments

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Keywords

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