Addressing Challenges of Biological Animations

Much research on learning with animations has used mechanical rather than biological subject matter. Interactions in mechanical systems tend to involve components acting as coherent wholes (i.e., extrinsic changes such as translations). In contrast, when parts of a biological system interact, they c...

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Main Authors: Lowe, Richard, Boucheix, J.
Other Authors: Erica de Vries
Format: Conference Paper
Published: Universite Pierre-Mendes-France 2012
Subjects:
Online Access:http://earlisig2-2012.upmf-grenoble.fr/UserFiles/EARLI_SIG2_Proceedings_2012.pdf
http://hdl.handle.net/20.500.11937/9835
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author Lowe, Richard
Boucheix, J.
author2 Erica de Vries
author_facet Erica de Vries
Lowe, Richard
Boucheix, J.
author_sort Lowe, Richard
building Curtin Institutional Repository
collection Online Access
description Much research on learning with animations has used mechanical rather than biological subject matter. Interactions in mechanical systems tend to involve components acting as coherent wholes (i.e., extrinsic changes such as translations). In contrast, when parts of a biological system interact, they can also undergo transformations (intrinsic changes) due to the non-uniform, non-rigid nature of their constituent material. The behaviour of unfamiliar mechanical systems can therefore be much easier to predict than that of unfamiliar biological systems. This theoretical paper argues that learners may have more difficulty in processing animations of biological systems because of their relative dynamic indeterminacy. It suggests that instead of presenting the animated subject matter in its entirety, key aspects could be dealt with incrementally and cumulatively.
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spelling curtin-20.500.11937-98352023-02-02T07:57:37Z Addressing Challenges of Biological Animations Lowe, Richard Boucheix, J. Erica de Vries Katharina Scheiter biological and mechanical systems animation relation sets transformations Much research on learning with animations has used mechanical rather than biological subject matter. Interactions in mechanical systems tend to involve components acting as coherent wholes (i.e., extrinsic changes such as translations). In contrast, when parts of a biological system interact, they can also undergo transformations (intrinsic changes) due to the non-uniform, non-rigid nature of their constituent material. The behaviour of unfamiliar mechanical systems can therefore be much easier to predict than that of unfamiliar biological systems. This theoretical paper argues that learners may have more difficulty in processing animations of biological systems because of their relative dynamic indeterminacy. It suggests that instead of presenting the animated subject matter in its entirety, key aspects could be dealt with incrementally and cumulatively. 2012 Conference Paper http://hdl.handle.net/20.500.11937/9835 http://earlisig2-2012.upmf-grenoble.fr/UserFiles/EARLI_SIG2_Proceedings_2012.pdf Universite Pierre-Mendes-France restricted
spellingShingle biological and mechanical systems
animation
relation sets
transformations
Lowe, Richard
Boucheix, J.
Addressing Challenges of Biological Animations
title Addressing Challenges of Biological Animations
title_full Addressing Challenges of Biological Animations
title_fullStr Addressing Challenges of Biological Animations
title_full_unstemmed Addressing Challenges of Biological Animations
title_short Addressing Challenges of Biological Animations
title_sort addressing challenges of biological animations
topic biological and mechanical systems
animation
relation sets
transformations
url http://earlisig2-2012.upmf-grenoble.fr/UserFiles/EARLI_SIG2_Proceedings_2012.pdf
http://hdl.handle.net/20.500.11937/9835