EXPLORING THE DESIGN AND USE OF MOLECULAR ANIMATIONS THAT CONFLICT FOR UNDERSTANDING CHEMICAL REACTIONS

Understanding chemical reactions conceptually involves recognizing characteristics of observable phenomena and envisioning how atoms, ions and molecules move and interact to cause the macroscopic changes. Our research focuses on the development of effective strategies for designing and presenting vi...

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Main Authors: Resa M. Kelly, Sarah J. R. Hansen
Format: Article
Language:English
Published: Sociedade Brasileira de Química
Series:Química Nova
Subjects:
Online Access:http://www.scielo.br/scielo.php?script=sci_arttext&pid=S0100-40422017000400476&lng=en&tlng=en
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spelling doaj-d8269c5d2ff04547a8ba7bb359ec7ccd2020-11-24T21:00:38ZengSociedade Brasileira de QuímicaQuímica Nova1678-706440447648110.21577/0100-4042.20170043S0100-40422017000400476EXPLORING THE DESIGN AND USE OF MOLECULAR ANIMATIONS THAT CONFLICT FOR UNDERSTANDING CHEMICAL REACTIONSResa M. KellySarah J. R. HansenUnderstanding chemical reactions conceptually involves recognizing characteristics of observable phenomena and envisioning how atoms, ions and molecules move and interact to cause the macroscopic changes. Our research focuses on the development of effective strategies for designing and presenting visualizations (videos and animations) to assist students with making connections between macroscopic and molecular level behaviors of chemical reactions. Specifically, we study how students, who view videos of a redox reaction that exhibits obvious signs of macroscopic chemical change, can determine which molecular animation of a set of contrasting animations is best supported by its fit with experimental evidence. Herein we describe how we develop our videos and animations, and how students are learning from this animation task. Students who select inaccurate animation models are often enticed by a model that is easier to explain and fits with their understanding of reaction equations. We note that even though students indicate a preference for one animation over another, they often revise their drawn representations to fit with features from multiple animations. With the assistance of eye tracking research, we are gaining a better understanding of what students view and how they make sense of it.http://www.scielo.br/scielo.php?script=sci_arttext&pid=S0100-40422017000400476&lng=en&tlng=enmolecular animationsvisualizationschemistry education researchfirst-year undergraduategeneral chemistryreduction-oxidation reactions
collection DOAJ
language English
format Article
sources DOAJ
author Resa M. Kelly
Sarah J. R. Hansen
spellingShingle Resa M. Kelly
Sarah J. R. Hansen
EXPLORING THE DESIGN AND USE OF MOLECULAR ANIMATIONS THAT CONFLICT FOR UNDERSTANDING CHEMICAL REACTIONS
Química Nova
molecular animations
visualizations
chemistry education research
first-year undergraduate
general chemistry
reduction-oxidation reactions
author_facet Resa M. Kelly
Sarah J. R. Hansen
author_sort Resa M. Kelly
title EXPLORING THE DESIGN AND USE OF MOLECULAR ANIMATIONS THAT CONFLICT FOR UNDERSTANDING CHEMICAL REACTIONS
title_short EXPLORING THE DESIGN AND USE OF MOLECULAR ANIMATIONS THAT CONFLICT FOR UNDERSTANDING CHEMICAL REACTIONS
title_full EXPLORING THE DESIGN AND USE OF MOLECULAR ANIMATIONS THAT CONFLICT FOR UNDERSTANDING CHEMICAL REACTIONS
title_fullStr EXPLORING THE DESIGN AND USE OF MOLECULAR ANIMATIONS THAT CONFLICT FOR UNDERSTANDING CHEMICAL REACTIONS
title_full_unstemmed EXPLORING THE DESIGN AND USE OF MOLECULAR ANIMATIONS THAT CONFLICT FOR UNDERSTANDING CHEMICAL REACTIONS
title_sort exploring the design and use of molecular animations that conflict for understanding chemical reactions
publisher Sociedade Brasileira de Química
series Química Nova
issn 1678-7064
description Understanding chemical reactions conceptually involves recognizing characteristics of observable phenomena and envisioning how atoms, ions and molecules move and interact to cause the macroscopic changes. Our research focuses on the development of effective strategies for designing and presenting visualizations (videos and animations) to assist students with making connections between macroscopic and molecular level behaviors of chemical reactions. Specifically, we study how students, who view videos of a redox reaction that exhibits obvious signs of macroscopic chemical change, can determine which molecular animation of a set of contrasting animations is best supported by its fit with experimental evidence. Herein we describe how we develop our videos and animations, and how students are learning from this animation task. Students who select inaccurate animation models are often enticed by a model that is easier to explain and fits with their understanding of reaction equations. We note that even though students indicate a preference for one animation over another, they often revise their drawn representations to fit with features from multiple animations. With the assistance of eye tracking research, we are gaining a better understanding of what students view and how they make sense of it.
topic molecular animations
visualizations
chemistry education research
first-year undergraduate
general chemistry
reduction-oxidation reactions
url http://www.scielo.br/scielo.php?script=sci_arttext&pid=S0100-40422017000400476&lng=en&tlng=en
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