TRV-2026-2745Version 1 · Published

Saved · see the current record

Why this version exists

Certified into the record

The exact text we saved

This is the version exactly as it was saved, character for character. The SHA-256 hash below is a 64-character code worked out from that text. Run the same text through SHA-256 and you get the same code; change a single letter and the code comes out completely different. Each version also stores the previous version’s hash, which chains them together so no version can be swapped out quietly.

TRUVACE RECORD VERSION
record: TRV-2026-2745
version: 1
kind: certified
reason: Certified into the record
timestamp: 2026-11-12T17:18:01.714372Z
status: published
lens: g_space
sector: education
headline: Influence of interactive, AI empowered learning tools on students’ higher-order thinking: evidence from a meta-analysis
dek: This study aimed to determine the impact of artificial intelligence (AI) tools on students’ problem-solving, creative thinking, and critical thinking skills, since the role of AI in educational settings became increasingly important. The meta-analysis was used to quantitatively synthesize relevant research findings. The first question aimed to determine the impact of AI tools on students’ problem-solving, creative thinking, and critical thinking skills, classified as HOT skills. The results, based on 29 papers p…
gain_title: A meta-analysis of 29 papers (37 effect sizes, 2000–2025) found AI learning tools were linked to a moderate gain in students' problem-solving, creative and critical thinking over traditional methods (mean Hedges' g 0.628, 95% CI 0.463 to 0.793).
problem_title: (none)
trace_subject: (none)
gain_reading: A meta-analysis of 29 papers (37 effect sizes, 2000–2025) found AI learning tools were linked to a moderate gain in students' problem-solving, creative and critical thinking over traditional methods (mean Hedges' g 0.628, 95% CI 0.463 to 0.793).
gain_evidence: The calculated mean effect size value is Mean ES=0.628 | AI-supported methods were more effective than traditional methods in developing students’ higher-order thinking skills
problem_reading: (none)
problem_evidence: (none)
quick_read: A meta-analysis by Asil Derin of Kafkas University pooled 29 papers published between 2000 and 2025, yielding 37 effect sizes, to test whether AI learning tools improve students' higher-order thinking. The mean effect was moderate and positive (Hedges' g 0.628, 95% CI 0.463 to 0.793), in favour of AI-supported methods over traditional teaching.

Results varied widely between studies (I2 about 76%). The prediction interval reaches into negative territory (-0.246), so some AI applications performed worse than conventional teaching. The author attributes this to the quality of instructional design, not to AI use alone.

Effects differed significantly by country and by specific tool, but not by education level, type of thinking skill or AI branch. Problem-solving was by far the most studied skill (33 of 37 effect sizes), so evidence on creative and critical thinking is thin.
limitation: Only 29 published papers were included, with books, theses and conference proceedings excluded. Most studies involved undergraduates, and creative and critical thinking had very few studies; results varied widely between studies.
tag: Evidence-backed gain
key_points: Pooled evidence came from 29 papers and 37 effect sizes, searched in Web of Science, Scopus and ERIC through May 2025. | The random-effects mean effect size was 0.628 (95% CI 0.463 to 0.793), described as a medium effect. | Heterogeneity was high (Q = 151.51, I2 about 76%), and the prediction interval extends to -0.246. | Country moderated results: Malaysia had the largest mean effect (2.005, 2 effect sizes) and the USA, with 14, had 0.346. | Tool-level results ranged from 2.005 for the Flowchart-Based Intelligent Tutoring System to -0.292 for the ubiquitous learning management system. | Problem-solving accounted for 33 of 37 effect sizes; creative thinking and critical thinking had two each. | Higher education supplied 20 effect sizes, versus 5 for elementary school and 5 for high school. | Publication-bias tests (Egger p = .18, Begg p = .15, trim-and-fill) found no sign of bias.
rundown: The study followed PRISMA reporting and the six-step meta-analytic process of Field and Gillett. Searches covered Web of Science, Scopus and ERIC with keywords spanning AI, chatbots, intelligent tutors, creativity and critical thinking. Non-peer-reviewed reports, books and non-empirical studies were excluded, and three doctoral-level researchers coded studies independently and resolved discrepancies.

Effect sizes were converted to Hedges' g and combined under a random-effects model, with dependent effect sizes aggregated by the Borenstein method. The mean effect was 0.628 with a confidence interval of 0.463 to 0.793. Between-study variation was high, and the prediction interval reached -0.246.

Subgroup analyses showed that country and the specific AI tool or agent significantly moderated effect sizes. Intelligent tutors or agents (27 effect sizes) averaged 0.693 and personalised learning systems (7) averaged 0.401, a difference that was not significant. Middle school (7 effect sizes) averaged 0.308 against 0.691 for higher education, also not significant.

The author notes that most research involved undergraduates and calls for more work at K-12 level and on creative and critical thinking. Several included tools, such as Animal Watch (-0.093) and SIMALE (-0.097), showed no benefit or a slightly negative effect.
sources:
- peer_reviewed | Interpersona An International Journal on Personal Relationships | https://doi.org/10.54899/iij.v20i1.1796 | 2026-10-13
prev: 0000000000000000000000000000000000000000000000000000000000000000
SHA-256 hash
3502c0b3df30aa0645560b95130085b2cf7bc96c91d857694b349b981a9927ae
Previous version’s hash
0000000000000000000000000000000000000000000000000000000000000000
Check this record hasn’t been altered
How to check it yourself, without trusting this page

Download any version from /api/record/TRV-2026-2745 and hash its canonical field yourself, for example with shasum -a 256. You should get its content_hash. Each version’s text also ends with prev:and the hash of the version before it (version 1 points to 64 zeros). If anyone had changed a single character of any version after it was saved, those hashes wouldn’t line up.