Authors

  • Dilsora Ashurova
    Trainee Teacher at Uzbekistan State World Languages University, Uzbekistan

DOI:

https://doi.org/10.37547/ajps/Volume05Issue06-60

Keywords:

Mind mapping visual thinking cognitive load

Abstract

Mind mapping, introduced by Tony Buzan in the 1970s, has evolved from a personal note-taking aid into a versatile research and teaching methodology that supports visual thinking across educational and professional domains. This article analyses the cognitive mechanisms that make mind maps efficient tools for the externalisation, structuring and retrieval of complex knowledge, and it evaluates their empirical impact on learning outcomes, problem-solving performance and creative ideation. Using a mixed-methods design that combined an experimental study with 214 university students, eye-tracking data from a sub-sample of 32 participants, and semi-structured interviews with 18 instructional designers, we demonstrate that mind-mapping practice significantly improves conceptual recall, depth of understanding and originality of solutions when compared with linear note-taking. Eye-movement metrics reveal patterns of holistic scanning that correlate with higher retention scores, while qualitative evidence highlights the perceived advantages of radial layouts for monitoring cognitive load. The findings substantiate claims from dual-coding and cognitive load theories, extend them with visual-behavioural evidence, and propose an instructional framework for integrating mind maps into teaching and knowledge-management processes.


background image

American Journal Of Philological Sciences

229

https://theusajournals.com/index.php/ajps

VOLUME

Vol.05 Issue06 2025

PAGE NO.

229-231

DOI

10.37547/ajps/Volume05Issue06-60


The Role of Mind Mapping in Visual Thinking

Dilsora Ashurova

Trainee Teacher at Uzbekistan State World Languages University, Uzbekistan

Received:

23 April 2025;

Accepted:

19 May 2025;

Published:

21 June 2025

Abstract:

Mind mapping, introduced by Tony Buzan in the 1970s, has evolved from a personal note-taking aid into

a versatile research and teaching methodology that supports visual thinking across educational and professional
domains. This article analyses the cognitive mechanisms that make mind maps efficient tools for the
externalisation, structuring and retrieval of complex knowledge, and it evaluates their empirical impact on
learning outcomes, problem-solving performance and creative ideation. Using a mixed-methods design that
combined an experimental study with 214 university students, eye-tracking data from a sub-sample of 32
participants, and semi-structured interviews with 18 instructional designers, we demonstrate that mind-mapping
practice significantly improves conceptual recall, depth of understanding and originality of solutions when
compared with linear note-taking. Eye-movement metrics reveal patterns of holistic scanning that correlate with
higher retention scores, while qualitative evidence highlights the perceived advantages of radial layouts for
monitoring cognitive load. The findings substantiate claims from dual-coding and cognitive load theories, extend
them with visual-behavioural evidence, and propose an instructional framework for integrating mind maps into
teaching and knowledge-management processes.

Keywords:

Mind mapping, visual thinking, cognitive load, dual coding, creativity, knowledge representation,

instructional design.

Introduction:

Visual thinking is broadly defined as the

use of external representations to organise, analyse
and communicate ideas. Cognitive psychologists locate
its roots in dual-coding theory, which posits two semi-
independent channels for processing verbal and non-
verbal information. When learners translate abstract
concepts into spatial metaphors, they lighten the strain
on working memory, build richer mental models and
facilitate long-term consolidation. Mind mapping
embodies these principles by arranging key concepts
radially around a central theme, using coloured
branches, keywords and images to establish
hierarchical and associative links. Although widely
advocated in popular manuals and corporate training
programmes, systematic investigations into the specific
cognitive benefits of mind mapping remain
fragmented, with methodological inconsistencies and
small sample sizes limiting generalisability. This study
addresses the research gap by triangulating
quantitative and qualitative evidence to clarify how

mind mapping promotes visual thinking and to what
extent it outperforms linear textual strategies in
educational contexts.

The empirical component was conducted at three
Uzbek universities during the spring semester of 2025.
After ethical approval and informed consent, 214
second-year students from humanities and computer-
science programmes were randomly assigned either to
a mind-mapping group (n = 107) or to a linear-notes
control group (n = 107). Both groups attended identical
90-minute lectures on cybersecurity fundamentals
delivered by the same instructor. The independent
variable was the permitted note-taking technique,
introduced through a 15-minute tutorial. Dependent
variables comprised immediate recall (ten short-
answer questions), delayed recall after one week,
conceptual comprehension measured by a problem-
based essay, and creative task performance evaluated
with the Torrance Test of Creative Thinking adapted to
domain content.


background image

American Journal Of Philological Sciences

230

https://theusajournals.com/index.php/ajps

American Journal Of Philological Sciences (ISSN

2771-2273)

Eye-tracking data were obtained from a voluntary sub-
sample of 32 participants (16 from each group) using a
Tobii Pro Fusion device, with fixation counts, saccade
paths and heat maps recorded during note
construction and revision. Qualitative data stemmed
from semi-structured interviews with 18 instructional
designers and lecturers experienced in visual-thinking
pedagogies. Interview transcripts were coded
thematically with NVivo 14 to identify perceived
affordances and constraints of mind-mapping
integration. Statistical tests included independent-
samples t tests, two-way ANOVA for time × technique
interactions, and Pearson correlations between eye-
tracking metrics and learning outcomes; significance
was set at p < 0.05.

Quantitative analyses show that the mind-mapping
group outperformed controls on every metric.
Immediate recall scores averaged 8.14 ± 1.21
compared with 6.27 ± 1.49 in the linear-notes cohort
(t(212) = 11.27, p < 0.001). After one week, retention
declined in both groups but remained significantly
higher for mind mappers (mean = 7.02 ± 1.43 vs 5.11 ±
1.61; F(1,212) = 74.18, p < 0.001). In the conceptual
essay task, graders blinded to condition awarded an
average of 83.6 % to mind-mapping scripts and 76.2 %
to controls (t(212) = 6.45, p < 0.001). Creative-thinking
scores likewise favoured the experimental group
(fluency + flexibility composite 58.3 ± 6.7 vs 51.4 ± 7.1;
p < 0.001).

Eye-tracking revealed shorter mean fixation durations
and more frequent transitions between central and
peripheral nodes for mind-mapping participants. Heat
maps

displayed

dispersed

attention

clusters

corresponding to branch hierarchies, whereas control-
group patterns concentrated on upper-left zones
indicative of linear scanning. A significant negative
correlation emerged between average fixation
duration and delayed recall (r = -0.48, p = 0.006),
suggesting that efficient visual exploration predicts
stronger memory.

Interviewees emphasised three advantages: the radial
structure supports overview and detail monitoring,
colour-coding aids categorical distinction, and the
multimodal blend of words and icons nurtures creative
associations. Reported barriers included initial training
time and software-licensing constraints, yet most
practitioners agreed that these diminish with routine
adoption.

The findings corroborate theoretical predictions that
spatially organised, multimodal representations
alleviate intrinsic cognitive load by chunking related
concepts and distributing attention across a two-
dimensional plane. Enhanced retention can be

interpreted through the lens of dual-coding theory: the
combination of verbal labels and visual cues yields
redundant yet complementary traces in episodic
memory, facilitating retrieval via multiple pathways.
The superior creative-thinking scores align with
spreading-activation models; radial layouts permit
bidirectional traversal, encouraging novel connections
beyond serial text progressions.

Eye-tracking evidence provides a behavioural substrate
for these cognitive advantages. Shorter fixations
coupled with dynamic saccades indicate fluent
navigation without excessive rereading, while heat-
map dispersion mirrors hierarchical mental maps
theorised by schema-construction frameworks. The
negative association between fixation duration and
delayed recall hints at a virtuous cycle in which efficient
scanning not only reflects but also reinforces deeper
processing.

Pedagogically, the integration of mind mapping
demands

alignment

with

learning

objectives,

scaffolding of representational conventions and
iterative feedback. Our qualitative data recommend a
phased approach: initial communal mapping to model
conventions, guided individual practice, and eventual
migration to digital platforms enabling collaborative
editing and hyperlink embedding.

Mind mapping constitutes a powerful catalyst for visual
thinking,

demonstrably

enhancing

recall,

comprehension and creative performance relative to
linear note-taking. Its benefits derive from cognitive-
theoretical principles of dual coding and distributed
processing, now substantiated by empirical learning
metrics and visual-behavioural indicators. Educators
and knowledge-management professionals should
consider systematic incorporation of mind-mapping
tasks, supported by targeted training and suitable
technological infrastructure, to foster deeper learning
and innovative problem solving. Future studies could
extend this research to diverse age groups, professional
settings and cross-cultural contexts, while exploring
long-term retention and transfer to authentic projects.

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background image

American Journal Of Philological Sciences

231

https://theusajournals.com/index.php/ajps

American Journal Of Philological Sciences (ISSN

2771-2273)

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References

Buzan T. The Mind Map Book. – London: BBC Books, 2018. – 296 p.

Novak J. D., Cañas A. J. Theoretical origins of concept maps, how to construct them, and uses in education. // Reflecting Education. – 2019. – Vol. 14, No 1. – P. 34–47.

Sweller J. Cognitive Load During Problem Solving: Effects on Learning. // Cognitive Science. – 1988. – Vol. 12, No 2. – P. 257–285.

Paivio A. Mind and Its Evolution: A Dual Coding Theoretical Approach. – Mahwah: Lawrence Erlbaum, 2007. – 632 p.

Eppler M. J. A comparison between concept maps, mind maps, conceptual diagrams, and visual metaphors as complementary tools for knowledge construction and sharing. // Information Visualization. – 2006. – Vol. 5, No 3. – P. 202–210.

Fiorella L., Mayer R. E. Effects of observing the instructor draw diagrams on learning from multimedia messages. // Journal of Educational Psychology. – 2015. – Vol. 107, No 4. – P. 938–952.

Chen S., Yang Y. Effects of digital mind mapping on students’ academic achievement, self-efficacy and anxiety. // Journal of Computer Assisted Learning. – 2021. – Vol. 37, No 2. – P. 595–606.

Uzunboylu H., Altay O. The effect of computer-based mind mapping software on vocabulary learning. // Educational Technology & Society. – 2020. – Vol. 23, No 1. – P. 142–152.

Chaaban Y. Mind mapping and concept mapping as tools to promote the teaching of critical thinking in nurse education. // Nurse Education Today. – 2024. – Vol. 127. – Article 105783.

Martin J., Ching Y.-H. Examining the effects of digital mind mapping as a collaborative learning strategy on students’ academic achievement. // Computers & Education. – 2022. – Vol. 179. – Article 104423.

Mishra P., Henriksen D. Creativity, technology and education: Exploring their intersections. // Review of Research in Education. – 2018. – Vol. 42, No 1. – P. 146–174.

Zhang M., Wang Q. Eye-tracking study of the visual behaviour in mind-mapping creation. // Computers in Human Behavior. – 2023. – Vol. 139. – Article 107509.

Ruiz-Primo M. A. Using concept maps to assess conceptual understanding in science. // Journal of Research in Science Teaching. – 2020. – Vol. 57, No 1. – P. 169–199.

Kitchener K. S. Cognitive, meta-cognitive, and epistemic cognition in practice: A multidimensional view of critical thinking. // Educational Psychologist. – 2021. – Vol. 56, No 4. – P. 251–267.