Scanning and deep processing of information in hypertext: an eye tracking and cued retrospective think‐aloud study
Abstract
When students solve problems on the Internet, they have to find a balance between quickly scanning large sections of information in web pages and deeply processing those that are relevant for the task. We studied how high school students articulate scanning and deeper processing of information while answering questions using a Wikipedia document, and how their reading comprehension skills and the question type interact with these processes. By analyzing retrospective think‐aloud protocols and eye‐tracking measures, we found that scanning of information led to poor hypertext comprehension, while deep processing of information produced better performance, especially in location questions. This relationship between scanning, deep processing, and performance was qualified by reading comprehension skills in an unexpected way: Scanning led to lower performance especially for good comprehenders, while the positive effect of deep processing was independent of reading comprehension skills. We discussed the results in light of our current knowledge of Internet problem solving.
Lay Description
What is already known about this topic:topic:
- Students with good reading comprehension skills can identify and deeply process hypertext sections relevant for their goal more efficiently than poor comprehenders.
- Poor comprehenders tend to quickly scan hypertext sections without noticing the relevant information they encounter.
What this paper adds:
- Scanning relevant hypertext sections is related to lower performance, especially for good comprehenders.
- Deep processing of relevant hypertext sections is positively related to better performance, independent of reading comprehension skills.
Implications for practice and/or policy:
- All students, independent of their reading comprehension skills, must be taught not to overuse scanning of hypertext sections.
- Another beneficial strategy is to use contextual cues (e.g., section headings) to predict relevance of a hypertext section.
Number of times cited: 10
- Hope Jinean Hartman, Synthesizing What Was Learned, Marginalia in Modern Learning Contexts, 10.4018/978-1-5225-7183-4.ch005, (99-132)
- Ladislao Salmerón, Arantxa García and Eduardo Vidal-Abarca, The development of adolescents' comprehension-based Internet reading activities, Learning and Individual Differences, 61, (31), (2018).
- Ladislao Salmerón and Ana Llorens, Instruction of Digital Reading Strategies Based on Eye-Movements Modeling Examples, Journal of Educational Computing Research, (073563311775160), (2018).
- Reinhard Beyer and Rebekka Gerlach, Denken, Sprache und Denken, 10.1007/978-3-658-17488-0_3, (83-204), (2017).
- Carolin Hahnel, Frank Goldhammer, Ulf Kröhne and Johannes Naumann, The role of reading skills in the evaluation of online information gathered from search engine environments, Computers in Human Behavior, 78, (223), (2018).
- Alexandra List and Patricia A. Alexander, Cognitive Affective Engagement Model of Multiple Source Use, Educational Psychologist, 52, 3, (182), (2017).
- Eliane Segers, Children’s hypertext comprehension, Developmental Perspectives in Written Language and Literacy, 10.1075/z.206.10seg, (2017).
- Alexandra List and Patricia A. Alexander, Text navigation in multiple source use, Computers in Human Behavior, 75, (364), (2017).
- Sabine S. Fesel, Eliane Segers, Linda de Leeuw and Ludo Verhoeven, Strategy training and mind-mapping facilitates children’s hypertext comprehension, Written Language & Literacy, 19, 2, (131), (2016).
- Alexandra List and Patricia A. Alexander, Toward an Integrated Framework of Multiple Text Use, Educational Psychologist, 10.1080/00461520.2018.1505514, (1-20), (2018).




