Neurocognitive Profile of Creativity in Improving Academic Performance—A Scoping Review
Abstract
:1. Introduction
2. Literature Review
2.1. Neurocognitive Aspects of Creativity in Academic Performance
2.2. Neurocognitive Profile Differentiation of Creative and Non-Creative Students
2.3. Promotion of Creativity in the Classroom
2.4. Creativity and Cognition Interaction
3. Materials and Methods
4. Results
5. Discussion
6. Conclusions
Author Contributions
Funding
Institutional Review Board Statement
Informed Consent Statement
Data Availability Statement
Conflicts of Interest
References
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Authors | Population | Purpose | Tools | Results |
---|---|---|---|---|
Bezerra et al., 2022 [69] | 75 children (7–9 years old) | Characterizing creativity, intelligence, phonological awareness, and reading decoding and verifying potential relationships between creativity and these skills | Brazilian Figural Creativity Test (TCFI) Wechsler Abbreviated Scale of Intelligence (WASI) Phonological Awareness—Sequential Assessment Tool (CONFIAS) Reading Assessment of Words and Pseudowords Isolated (LPI) | Correlations between creativity with intelligence and reading skills were found for all three grades, with Year 3 having the strongest correlations. |
Bayley, 2022 [70] | 306 children (7–11 years old) | Exploration of cognitive flexibility based on adaptive skills such as problem-solving and creativity | Dimension Change Card Sort (DCCS) Flexible Item Selection Task (FIST) Object-based Pattern Reasoning Assessment (OPRA) | Cognitive flexibility predicts nonverbal reasoning, and there is limited evidence of a relationship between cognitive flexibility and reading abilities. |
Rubenstein et al., 2022 [71] | 141 children (5–6 years old) | Examining the relationship between learning and creativity in first graders using static and developmental achievement scores in reading and mathematics | Torrance Tests of Creative Thinking-Figural (TTCT-F) Northwest Evaluation Association-Measure of Academic Progress-Growth (NWEA-MAP-Growth) | Significant positive relationships were found between student creativity and static academic achievement scores in both reading and mathematics. |
Sur & Ates, 2022 [72] | 380 children (11 years old) | Determining the relationship between reading, listening comprehension and creative thinking levels of 7th grade students | Reading Comprehension Achievement Test Listening Comprehension AchievementTest Torrance Creative Thinking Test Verbal A Form | A positive, statistically significant relationship was found between listening comprehension and reading comprehension scores with creative thinking ability. |
Toivainen et al., 2021 [73] | 1306 children (9–16 years old) | An investigation of creativity in children’s written work at the age of 9 and its association with educational achievement | Consensual Assessment Technique (CAT) WISC-III Cognitive Abilities Test 3 | Creative expressiveness, as a measure of creativity, explained variance in English scores independently of children’s intelligence and motivation over time. |
Zhang et al., 2020 [74] | 1082 children (8–15 years old) | Exploring gender differences in the relationship between creativity and academic achievement | Torrance Test of Creative Thinking Figural Form A Self-reported personal data | Creativity and academic achievement and gender differences in which aspects of creativity were related to academic achievement. |
Mourgues et al., 2016 [75] | 1165 children (10–16 years old) | Assessing the specific contribution of creativity to future academic performance | Key Stage 2 (KS2) test Aurora General Certificate Secondary education | The general form of creativity was found to contribute to future academic performance independently of other academic skills. |
Lamichhane et al., 2020 [76] | Undergraduate and graduate students from engineering, management, and science backgrounds at Kathmandu University, Nepal in Finland and Nepal | Fostering creativity in the classroom is possible through lab-based teaching-learning methods that focus on problem-solving and design thinking. [RQ4] | A lab-based teaching-learning method focused on problem-solving and design thinking was used as an intervention | Results validated the efficacy of lab-based teaching-learning in addressing the need for critical and creative thinking skills among learners. |
Bollimbala et al., 2020 [77] | 92 MBA students | [RQ4] [RQ2] | A 20-min Hatha yoga intervention session was administered as a short case study | Hatha yoga improves divergent thinking, but the control group worsens it. No effect on convergent thinking. These findings support the executive function hypothesis. The study also finds that encouraging creativity in a routine academic task may not improve it. |
Ruiz-Ariza et al., 2017 [78] | 184 participants | Creativity Emotional Intelligence (Measured Through 4 Factors: Well-being, Self Control, Emotionality, And Sociability) [RQ4] [RQ3] [RQ2] | A 12-week cooperative high-intensity interval training (C HIIT) intervention | Teens aged 12–16 showed increased creativity and emotional intelligence (EI) with cooperative high-intensity interval training (C-HIIT). Inactive adolescents in the experimental group (EG) improved more in creativity, well-being, and sociability than the control group (CG). Starting PE classes with 16 min of C-HIIT may be recommended, regardless of other activities. |
Nejad, N.S. (2017) [79] | 60 participants | Effectiveness Of Children’s Educational Model Based On The Criteria Of Creativity [RQ4] | Experimental and Control Groups of preschool children | A clinical trial examined how a child-centered teaching model affected preschoolers’ creativity. Results indicated the model significantly impacts children’s creativity (p < 0.05). This study may affect childhood disorder prevention and treatment |
Sadeghi et al., 2020 [80] | 30 participants | Mental simulation training can boost architecture students’ creativity and academic performance [RQ4] | Teaching mental simulation strategies for 5 sessions of 3 h | Mental stimulation can boost architecture students’ creativity and academic performance |
Colzato et al., 2018 [81] | 80 healthy young volunteers with active tVNS and sham stimulation | Creativity interacts with other cognitive processes to affect academic performance because the vagus nerve is causally involved in creative performance, and GABA (likely to be increased in active tVNS condition) supports the ability to select among competing options in high selection demand (divergent thinking) but not in low selection demand | Transcutaneous vagus nerve stimulation (tVNS) and placebo/sham stimulation | Vagus nerve stimulation (tVNS) boosts divergent thinking. Compared to sham stimulation, active tVNS increased divergent thinking. Results indicated that GABA (likely to be increased in active tVNS condition) aids divergent thinking but not convergent thinking. |
Peña et al., 2022 [82] | 66 people with 3 characteristics | [RQ5] [RQ1] | 20 min of transcranial direct current stimulation (tDCS), transcranial random noise stimulation (tRNS), and sham dose | Divergent and convergent thinking were significantly affected by tDCS and tRNS over the left dorsolateral prefrontal cortex (DLPFC) and left inferior frontal gyrus (IFG). Compared to sham, tRNS performed better in PC fluency and originality. The stimulation groups had no significant effect on cognitive flexibility. |
Bóo et al., 2019 [83] | 6 undergraduate students | [RQ3] [RQ2] | A mindfulness intervention was conducted | All students found mindfulness improved self-awareness and self-regulation of thoughts, feelings, and actions. Students’ psychological distress and study habits may affect the initial impact of mindfulness on academic performance. |
Lifshitz-Ben-Basat, A., and Mashal, N. 2021 [84] | This study was a randomized, double-blind, sham-controlled, crossover study | Transcranial direct current stimulation (tDCS) can alter the left angular gyrus (AG) of the frontotemporal network, motivation traits, and the control network, which are involved in creative thinking. [RQ1] | tDCS (transcranial direct current stimulation) intervention with tDCS (transcranial direct current stimulation) dose | Cathodal tDCS over the left AG significantly increased novel metaphor generation, while anodal stimulation increased conventional metaphors. In the sham condition, higher motivation (behavioral approach system “fun-seeking”) was associated with metaphor creativity, while lower fun-seeking was associated with more conventional metaphors. Motivation traits no longer influenced creative metaphor generation after active stimulation. |
Akpur, U. 2020 [85] | 227 students | Academic Achievement [RQ1] | The Critical Thinking Scale, The Reflective Thinking Scale, and The Marmara Creative Thinking Dispositions Scale were administered | Critical, reflective, and creative thinking were positively and significantly correlated. All three variables significantly predicted academic success. |
Peña et al., 2019 [86] | 30 people divided into an active tRNS group and a sham group | The Remote Associates Test (RAT), the Torrance Tests of Creative Thinking’s Unusual Uses and Picture Completion subtests, and general creativity measure verbal convergent, divergent, and general creativity. No improvement was seen in visual divergent thinking. [RQ1] | A 20-min intervention of transcranial random noise stimulation (tRNS) and sham stimulation | Left tRNS DLPFC improves verbal divergent and convergent thinking. RAT scores, unusual uses fluency and originality, and general creativity differed significantly between the active tRNS and sham groups in mean change scores. No improvement was seen in visual divergent thinking. |
Brown, S. and Kim, E. 2021 [87] | Humans | Creative production is, at least in part, an enhancement of sensorimotor brain areas involved in non-creative production, and the motoric meta-analysis showed that high-level motor areas like the pre-supplementary motor area and inferior frontal gyrus that interface motor planning and executive control were the most concordant. [RQ3] | This study was a meta-analysis | In a meta-analysis of creative production in five domains (verbalizing, music, movement, writing, and drawing), the pre-supplementary motor area and inferior frontal gyrus were activated. The Alternate Uses meta-analysis showed a distinct activation profile, suggesting creative production domain-specificity. Creative production may enhance sensorimotor brain areas involved in non-creative production, according to the activation profiles of the two meta-analyses. |
Sunavsky, A. and Poppenk, J.L. 2020 [88] | Humans | In the inferior frontal gyrus (IFG) and inferior parietal lobe (IPL), creative and non-creative students have different neurocognitive profiles, including local grey matter and white matter predictors, the superior longitudinal fasciculus that connects them, and IFG IPL functional connectivity. The anterior lobe of the cerebellum and parahippocampal gyrus predicted creativity across neuroimaging modalities in exploratory analyses. Creativeness was also predicted by basal ganglia white matter integrity. [RQ3] | This study was a pre-registered conceptual replication and extension study | In the inferior frontal gyrus (IFG) and inferior parietal lobe (IPL), local grey matter and white matter predictors in the IFG, the superior longitudinal fasciculus that connects them, and IFG-IPL functional connectivity predicted greater creativity. Creativeness was also predicted by basal ganglia white matter integrity. Experimental analyses showed that the anterior lobe of the cerebellum and the parahippocampal gyrus predict creativity across neuroimaging modalities. |
Saggar et al., 2019 [89] | 48 children, 26 children | Creative students have higher externalizing behavior, right lateral frontal segregation, and functional specialization, which tracks creative thinking development. [RQ3] | This study was longitudinal cohort sequential experimental design | Data-driven methods showed that middle childhood creative thinking ability varied, with some children declining and others increasing. These trajectories were linked to developmentally relevant constructs like increased externalizing behavior, not intelligence, age, or sex. Increased right lateral frontal segregation or functional specialization accompanied creative thinking development. |
Batey, M. and Hughes, D.J. 2017 [90] | Humans | Cognitive ability measures rarely relate to creative self-perceptions. [RQ3] | This study was a systematic review | Creative self-perceptions rarely correlate with cognitive ability. Openness to Experience and Extraversion positively affect creative self-perceptions. Neuroticism, Agreeableness, and Conscientiousness vary by self-perception, domain, and culture. |
Hay et al., 2019 [91] | 29 professional engineering designers | Creative and innovative design tasks recruit similar brain regions in professional designers, and creative and non-creative students have greater left cingulate and right superior temporal gyrus activity than a design manipulation control task. [RQ3] | This study was fMRI study | Left cingulate and right superior temporal gyrus activity was linked to creative and innovative design performance. Creative and innovative tasks did not differ in pre-frontal brain activity. Professional designers use similar brain regions for creative and innovative design. |
Yang, J. and Zhao, X. 2021 [92] | 2355 students from a high school in China | Academic Performance [RQ2] | This study was observational | Creativity boosts academic performance. Convergent thinking affects academic performance more than divergent thinking. Students’ self-esteem and internal locus of control affect academic performance through creative thinking. |
Doleck et al., 2017 [93] | 104 students | Academic Performance [RQ2] | This study was a structural model employing a partial least squares approach | Except for cooperativity, computational thinking skills did not affect academic performance. Teaching and learning 21st-century skills requires curriculum-mandated higher-order thinking instruction. Successful teaching and learning of 21st-century skills requires curriculum alignment between instructional objectives and evaluation methods. |
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Tzachrista, M.; Gkintoni, E.; Halkiopoulos, C. Neurocognitive Profile of Creativity in Improving Academic Performance—A Scoping Review. Educ. Sci. 2023, 13, 1127. https://doi.org/10.3390/educsci13111127
Tzachrista M, Gkintoni E, Halkiopoulos C. Neurocognitive Profile of Creativity in Improving Academic Performance—A Scoping Review. Education Sciences. 2023; 13(11):1127. https://doi.org/10.3390/educsci13111127
Chicago/Turabian StyleTzachrista, Maria, Evgenia Gkintoni, and Constantinos Halkiopoulos. 2023. "Neurocognitive Profile of Creativity in Improving Academic Performance—A Scoping Review" Education Sciences 13, no. 11: 1127. https://doi.org/10.3390/educsci13111127
APA StyleTzachrista, M., Gkintoni, E., & Halkiopoulos, C. (2023). Neurocognitive Profile of Creativity in Improving Academic Performance—A Scoping Review. Education Sciences, 13(11), 1127. https://doi.org/10.3390/educsci13111127