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Aphantasia Logo
Back to all research
Aphantasia Logo

Building awareness and understanding of aphantasia through research, education, and community support.

About

  • What is Aphantasia?
  • What is Hyperphantasia?
  • Take Assessment
  • Getting Started
  • Newsletter
  • About Us
  • Contact

Community

  • Premium Membership
  • Find support
  • Discussions
  • Events
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  • Pricing & Bundles

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  • Articles & Stories
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Ask AI About This Paper
Ask AI About This Paper

‘Seeing’ chemistry: investigating the contribution of mental imagery strength on students’ thinking in relation to visuospatial problem solving in chemistry

DOI: 10.1039/d4rp00234b
Tags:
Measurement & Assessment
Baade, L., Kartsonaki, E., Khosravi, H., & Lawrie, G. A. (n.d.). ‘seeing’ chemistry: investigating the contribution of mental imagery strength on students’ thinking in relation to visuospatial problem solving in chemistry. Chemistry Education Research and Practice, 26(1), 65–87. doi:10.1039/D4RP00234B

Abstract

Effective learning in chemistry education requires students to understand visual representations across multiple conceptual levels. Essential to this process are visuospatial skills which enable students to interpret and manipulate these representations effectively. These abilities allow students to construct mental models that support problem solving and decision making, improving their understanding of complex concepts, for example chemical structures and reactions. The impact of individual differences in mental imagery, such as aphantasia and hyperphantasia, on chemistry students’ spatial thinking when engaging with visual representations is not well understood. This paper presents two exploratory studies that examine how the vividness of mental imagery is related to student outcomes in chemistry-related visuospatial problem solving. The first study quantitatively assessed the performance of first-year university students in tasks requiring complex visual and spatial reasoning within a chemistry context. The second study, involving the same participants, used qualitative interview data to investigate their cognitive strategies with a focus on how their mental imagery impacts their problem-solving approaches. Preliminary results suggest that the vividness of students’ visual mental imagery did not significantly impact their ability to spatially reason with visual representations in chemistry. Our findings also indicate that students with aphantasia may employ alternative strategies that mitigate their lack of visual mental imagery. This paper highlights the need for further research into the diversity of cognitive mechanisms employed by chemistry students of varying mental imagery capabilities.

Authors

  • Lauren Baade1
  • Effie Kartsonaki1
  • Hassan Khosravi1
  • Gwendolyn A. Lawrie1

‘Seeing’ chemistry: investigating the contribution of mental imagery strength on students’ thinking in relation to visuospatial problem solving in chemistry

DOI: 10.1039/d4rp00234b
Tags:
Measurement & Assessment
Baade, L., Kartsonaki, E., Khosravi, H., & Lawrie, G. A. (n.d.). ‘seeing’ chemistry: investigating the contribution of mental imagery strength on students’ thinking in relation to visuospatial problem solving in chemistry. Chemistry Education Research and Practice, 26(1), 65–87. doi:10.1039/D4RP00234B

Abstract

Effective learning in chemistry education requires students to understand visual representations across multiple conceptual levels. Essential to this process are visuospatial skills which enable students to interpret and manipulate these representations effectively. These abilities allow students to construct mental models that support problem solving and decision making, improving their understanding of complex concepts, for example chemical structures and reactions. The impact of individual differences in mental imagery, such as aphantasia and hyperphantasia, on chemistry students’ spatial thinking when engaging with visual representations is not well understood. This paper presents two exploratory studies that examine how the vividness of mental imagery is related to student outcomes in chemistry-related visuospatial problem solving. The first study quantitatively assessed the performance of first-year university students in tasks requiring complex visual and spatial reasoning within a chemistry context. The second study, involving the same participants, used qualitative interview data to investigate their cognitive strategies with a focus on how their mental imagery impacts their problem-solving approaches. Preliminary results suggest that the vividness of students’ visual mental imagery did not significantly impact their ability to spatially reason with visual representations in chemistry. Our findings also indicate that students with aphantasia may employ alternative strategies that mitigate their lack of visual mental imagery. This paper highlights the need for further research into the diversity of cognitive mechanisms employed by chemistry students of varying mental imagery capabilities.

Authors

  • Lauren Baade1
  • Effie Kartsonaki1
  • Hassan Khosravi1
  • Gwendolyn A. Lawrie1
Aphantasia Logo

What This Study Is About

This study explores whether a student's ability to "see" images in their mind affects how well they solve chemistry problems. Researchers wanted to know if students with aphantasia—the inability to create mental images—perform differently in chemistry compared to those with very vivid mental imagery.

How They Studied It

The researchers conducted two connected studies with first-year university chemistry students. In the first part, 145 students completed a questionnaire to measure the vividness of their mental imagery (the "mind's eye") and then took a chemistry test that required rotating and manipulating 3D molecular structures. In the second part, the researchers interviewed a smaller group of students, including those with aphantasia, to hear exactly how they solved these problems step-by-step.

What They Found

The study found that the vividness of a student's mental imagery did not significantly impact their scores on chemistry problems. Students with aphantasia were just as accurate as their peers who could see vivid mental pictures. However, the interviews revealed that they used different "workarounds." While some students "watched" a molecule rotate in their heads, those with aphantasia used logical rules, such as identifying specific patterns or using "if-then" reasoning to figure out where atoms would end up.

What This Might Mean

These findings suggest that there is no single "right way" to think about science. While chemistry is often taught using visual tools, students who cannot visualize are not at a disadvantage because they naturally develop alternative logical and spatial strategies. This suggests that educators should provide multiple ways to solve problems to support different types of thinkers. However, because this was a small study of university students, more research is needed to see if these findings apply to younger students just starting to learn science.

One Interesting Detail

Despite having no "visual" experience, some students with aphantasia reported that they could still "feel" the spatial relationships of the molecules, using a sense of space and movement rather than a mental picture to solve the puzzles.
This summary was generated by AI and may contain errors. Always refer to the original paper for accuracy.
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