ISSN 1671-3710
CN 11-4766/R
主办:中国科学院心理研究所
出版:科学出版社

心理科学进展 ›› 2026, Vol. 34 ›› Issue (10): 1779-1794.doi: 10.3724/SP.J.1042.2026.1779 cstr: 32111.14.2026.1779

• 元分析 • 上一篇    下一篇

大学生AI素养与自我效能关系的贝叶斯元分析

万千一1,2, 温斯情1, 马早明1,3, 胡波1   

  1. 1澳门科技大学国际学院, 澳门 999078;
    2四川文理学院党委办公室校办公室, 达州 635000;
    3华南师范大学国家港澳台教材建设重点研究基地, 广州 510000
  • 收稿日期:2025-12-02 出版日期:2026-10-15 发布日期:2026-07-20

A Bayesian meta-analysis of the association between AI literacy and self-efficacy

WAN Qianyi1,2, WEN Siqing1, MA Zaoming3, HU Bo1   

  1. 1University International College, Macau University of Science and Technology, Macau 999078, China;
    2Office of the CPC Committee and President’s Office, Sichuan University of Arts and Science, Dazhou 635000, China;
    3Hong Kong, Macao and Taiwan Textbook Integrated Research Base, South China Normal University, Guangzhou 510631, China
  • Received:2025-12-02 Online:2026-10-15 Published:2026-07-20

摘要: 为系统整合AI素养与大学生自我效能关系特征并识别其异质性来源, 本研究最终纳入36项独立研究(N = 25, 251), 采用贝叶斯随机效应模型进行元分析并检验调节效应。结果发现, AI素养与大学生自我效能呈显著正相关(贝叶斯r = 0.495, 95% CrI [0.420, 0.570])。调节分析显示, 效应大小受自我效能类型、AI素养测量方式和学生类别的显著影响: 其中, AI素养与创造性自我效能、创业自我效能的关联强于AI自我效能和一般学业自我效能; 自编或整合式自陈量表的效应高于直接AI素养量表、代理指标和客观测量; 教育、传媒、语言类学生的关联相对较强。理工、计算机和商管类相对较弱。研究表明, AI素养与大学生自我效能存在正向关联, 其作用强度受测量方式、效能类型和专业差异影响。高校应结合不同教学情境与能力目标开展差异化AI素养教育, 以促进学生创造性、职业发展等高阶自我效能的提升。

关键词: AI素养, 自我效能, 大学生, 贝叶斯元分析, 国际比较, 生成式人工智能

Abstract: Objective: Previous studies on the relationship between AI literacy and self-efficacy have reported inconsistent findings because of varied conceptualization, measurement approaches and sample contexts. Importantly, the relationship is theoretically complex. Students with stronger AI literacy may experience an enhanced sense of control and competence, while those with greater awareness of AI’s capabilities may potentially erode confidence in their competence. To address this issue, the present study used a Bayesian meta-analysis to systematically synthesize the available evidence and identify the moderating conditions under which the association varies.
Method: This study followed PRISMA 2020 guidelines and systematically searched Web of Science (SCI/SSCI), Scopus, and CNKI through November 2025. A total of 36 independent studies involving 25,251 university students were included. A Bayesian random-effects model with weakly informative priors [Normal (0,1) for the pooled effect; Half-Normal (0.5) for heterogeneity] was used as the primary analytical framework. Model convergence was evaluated through MCMC sampling with R-hat and ESS convergence checks. Prior sensitivity analyses (Half-Normal (1.0)) confirmed robustness. Frequentist random-effects models were also conducted for robustness checks. Moderator analyses covered self-efficacy type, AI literacy measurement approach, student discipline, country/region, and study design. Publication bias was evaluated via funnel plot inspection and Egger's regression. Methodological quality was assessed using the Newcastle-Ottawa Scale (inter-rater ICC = 0.938).
Results: The Bayesian model yielded a robust positive overall association (posterior median r = 0.495, 95% CrI [0.420, 0.570]; frequentist r = 0.518), with substantial heterogeneity ( = 91.73%, τ = 0.32). Publication bias was negligible (Egger's p = .358), and leave-one-out sensitivity analyses confirmed stability (r range: 0.50-0.53). Four significant moderators emerged (all Qb p < .05); country/region was not significant (Qb = 0.76). Self-efficacy type was the strongest moderator: associations were highest for creative self-efficacy (r = 0.71) and entrepreneurial self-efficacy (r = 0.61), exceeding those for AI-specific self-efficacy (r = 0.53) and general academic self-efficacy (r = 0.37). Studies using self-developed or integrated self-report scales yielded larger effects (r = 0.71) than those using objective AI literacy tests (r = 0.14). Students in education, media, and language disciplines showed stronger associations (r = 0.60) than those in engineering/computer science (r = 0.45) or business (r = 0.41). Within-region heterogeneity was equally high in East Asian ( = 78.22%) and Western samples ( = 77.52%), indicating that meaningful variation resides within rather than between geographic regions.
Contributions: This study makes three major contributions. First, it adopts a Bayesian meta-analytic framework. Compared with traditional frequentist approaches, it more effectively captures both effect and heterogeneity parameters. Second, the moderation pattern challenges domain-matching intuitions: AI literacy's strongest links are not with AI-specific self-efficacy nor with technically oriented students (engineering and computer science), but with creative and entrepreneurial efficacy beliefs and with students from humanities-adjacent disciplines. This counterintuitive result suggests AI literacy operates less as a narrow technical competency reinforcing task-specific confidence than as a transferable psychological resource activating higher-order efficacy beliefs around creativity, career adaptation, and future agency. In the generative AI era, this reframes AI literacy as a form of human capital with broad motivational transfer rather than a domain-bound skill. Third, although no significant cross-national differences were found, substantial within-region heterogeneity remained. This suggests that micro-level instructional factors, such as curriculum design, Al integration strategies, and teacher support, may play a more important role than broader cultural or policy contexts.
Conclusions:Overall, AI literacy is positively associated with university students’ self-efficacy, although the effect strengths depend substantially on self-efficacy type, measurement approach and disciplinary context. These findings suggest that AI literacy education should move beyond technical training alone and place greater emphasis on creativity, adaptability and higher-order efficacy beliefs. Higher education institutions should develop differentiated AI literacy curricula based on students’ disciplinary backgrounds and developmental needs. Future research should emphasize longitudinal and experimental design, as well as more standardized measurement approaches, in order to better identify the causal mechanism underlying the relationship between AI literacy and self-efficacy.

Key words: AI literacy, self-efficacy, university students, Bayesian meta-analysis, international comparison, generative AI

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