Microfluidics for High School Chemistry Students

We present a laboratory experiment that introduces high school chemistry students to microfluidics while teaching fundamental properties of acid–base chemistry. The procedure enables students to create microfluidic systems using nonspecialized equipment that is available in high school classrooms an...

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Veröffentlicht in:Journal of chemical education 2014-01, Vol.91 (1), p.112-115
Hauptverfasser: Hemling, Melissa, Crooks, John A, Oliver, Piercen M, Brenner, Katie, Gilbertson, Jennifer, Lisensky, George C, Weibel, Douglas B
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container_end_page 115
container_issue 1
container_start_page 112
container_title Journal of chemical education
container_volume 91
creator Hemling, Melissa
Crooks, John A
Oliver, Piercen M
Brenner, Katie
Gilbertson, Jennifer
Lisensky, George C
Weibel, Douglas B
description We present a laboratory experiment that introduces high school chemistry students to microfluidics while teaching fundamental properties of acid–base chemistry. The procedure enables students to create microfluidic systems using nonspecialized equipment that is available in high school classrooms and reagents that are safe, inexpensive, and commercially available. The experiment is designed to ignite creativity and confidence about experimental design in a high school chemistry class. This experiment requires a computer program (e.g., PowerPoint), Shrinky Dink film, a readily available silicone polymer, weak acids, bases, and a colorimetric pH indicator. Over the span of five 45-min class periods, teams of students design and prepare devices in which two different pH solutions mix in a predictable way to create five different pH solutions. Initial device designs are instructive but rarely optimal. During two additional half-class periods, students have the opportunity to use their initial observations to redesign their microfluidic systems to optimize the outcome. The experiment exposes students to cutting-edge science and the design process, and solidifies introductory chemistry concepts including laminar flow, neutralization of weak acids–bases, and polymers.
doi_str_mv 10.1021/ed4003018
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source American Chemical Society Journals
subjects Acid-base neutralization
Acids
Chemistry
Colorimetry
Creativity
Design of experiments
Experimental design
High Schools
Laboratory Experiments
Laminar flow
Microfluidics
Neutralization
Optimization
Organic chemistry
Polymers
Reagents
Redesign
Research design
Secondary education
Secondary School Science
Secondary school students
Students
Teaching
title Microfluidics for High School Chemistry Students
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