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Systematic ReviewPeer-Reviewed · 50 papers synthesized

The Paradox of AI in Educational Frameworks: Enhancing Student Autonomy While Risking Dependency

Muhammad Ahmad Taufiq Api Gadi, Yunita Sofia Seja, Muhammad Husain Hasan, Ayu Fitriani, Muhammad Hilal Sudarbi, Amzar Ayub Syarif, Chelsia Shanen Panekenan, Delvianus Kaesmetan, & Heri Septian Adi Nugroho 29 Apr 2026AFIRMASI Journal of AI & Education Research
Artificial Intelligence Self-Regulated Learning (SRL) Student Autonomy Cognitive Dependency Metacognitive Laziness Educational Technology

Abstract

This systematic review investigates the dual nature of Artificial Intelligence (AI) integration within the SCORE and Self-Regulated Learning (SRL) frameworks. Synthesizing data from 50 high-impact studies, it reveals that while AI can significantly enhance student autonomy—by supporting goal-setting, targeted reflection, and personalized learning pathways—it simultaneously poses a tangible risk of increasing cognitive dependency. Over-reliance on AI tools may inadvertently undermine self-efficacy, degrade critical thinking, and foster 'metacognitive laziness'. The findings underscore the necessity of intentional, pedagogically balanced AI deployment.

1. Introduction

The integration of artificial intelligence (AI) into educational frameworks such as SCORE (often aligned with self-regulated learning, SRL) is profoundly reshaping how students govern their educational trajectories. Recent systematic reviews and empirical studies indicate that AI tools—ranging from conversational agents to adaptive feedback platforms and generative models—can facilitate the core phases of SRL: forethought (planning), performance (strategy utilization), and reflection (self-assessment). Consequentially, these technologies hold significant promise in supporting student autonomy and intrinsic motivation.

However, these benefits are heavily nuanced by growing concerns regarding over-reliance on automated systems. Extensive deployment without adequate pedagogical scaffolding may inadvertently reduce learners' initiative, blunt critical thinking, and dampen self-efficacy. Current literature exposes a critical paradox: while AI empowers students to assume greater control over their learning vis-à-vis personalization and immediate feedback, it also cultivates vulnerability to dependency if learners outsource substantial cognitive effort to the technology. This review synthesizes findings from recent high-impact research to elucidate how AI-SCORE integration alters the delicate balance between student autonomy and dependency across diverse educational landscapes.

2. Methods

78
Identified
65
Screened
55
Eligible
50
Included

A rigorous and comprehensive systematic search was conducted across multiple major scientific databases, including Semantic Scholar and PubMed. The initial retrieval yielded a vast corpus of potential records. After applying relevance filtering and removing duplicates, 161 manuscripts were retained for eligibility screening based on predefined inclusion criteria. Ultimately, 50 peer-reviewed studies were included in the final synthesis.

Six unique search strategies were employed targeting: (1) SCORE/SRL frameworks, (2) AI integration effects on autonomy versus dependency, (3) adjacent theoretical models (e.g., self-determination theory), (4) critical evaluations of technological over-reliance, (5) foundational works on learner agency, and (6) experimental findings on AI-driven metacognition.

3. Results

**Positive Impacts: Fostering Autonomy & Motivation** AI tools augment SRL by structurally enhancing goal-setting, strategic planning, task engagement, and reflective practices. Adaptive systems provide personalized feedback that assists students in intuitively monitoring their academic progress and modulating their learning strategies. Empirical evidence establishes that when thoughtfully integrated—particularly under active teacher mediation—AI bolsters digital efficacy, intrinsic motivation, and a sustained willingness for autonomous learning.

**Risks: Dependency & Over-Reliance** Conversely, excessive reliance on AI for planning or automated feedback undermines learner autonomy by offloading necessary cognitive exertion. Over-dependence reliably diminishes a student's confidence in independent problem-solving and engenders "metacognitive laziness," a state wherein students passively defer to automated suggestions rather than critically engaging with the academic material.

**Nuanced Outcomes: Ambivalence & Contextual Factors** Learners frequently report epistemic ambivalence—simultaneously operating as independent agents while leaning heavily on AI for efficiency and assessment tasks. Contextual variables are highly disruptive: higher education students generally extract more autonomy-related benefits from AI than younger cohorts, while direct teacher involvement serves as a potent moderator, often increasing motivation while occasionally compressing perceived autonomous space. Furthermore, affective states, such as positive emotional valence during AI usage, significantly mediate a learner's willingness to engage autonomously.

**Design & Implementation Considerations** Effective integration demands a precise equilibrium between providing technological scaffolding and commanding self-reflection and critical engagement. Intentional pedagogical strategies—such as explicit instruction on responsible AI utilization and the cultivation of advanced digital literacy—are mandatory to forestall superficial application. Human-centered agency, anchored by active teacher involvement, remains the critical bulwark against systemic AI dependency.

4. Discussion

The aggregated research forcefully argues that integrating AI within the SCORE/SRL framework offers profound capabilities to elevate student autonomy via hyper-personalized pathways and instantaneous, actionable feedback. Nonetheless, this technological empowerment is highly conditional, heavily reliant on sophisticated pedagogical design. In the absence of deliberate safeguards against passive consumption, AI poses a tangible threat: the erosion of self-efficacy and the atrophy of critical thinking skills.

The dualistic nature of these outcomes underlines the absolute necessity for instructional methodologies that explicitly promote metacognitive awareness in tandem with technological support. While high-quality evidence—derived predominantly from higher education experiments and systematic reviews—substantiates these claims, critical voids persist regarding longitudinal durability and cross-demographic variances. The threat of cognitive outsourcing necessitates a paradigm shift from viewing AI merely as an assistive tool to treating it as a complex cognitive partner that requires rigorous governance.

5. Conclusion

Integrating Artificial Intelligence within the SCORE and self-regulated learning frameworks yields a pronounced double-edged outcome. It possesses the capacity to radically empower students toward heightened autonomy when orchestrated with pedagogical intention, yet it harbors the severe risk of fostering deep-seated cognitive dependency if utilized uncritically. The optimal deployment of AI in education mandates an intricate balance: leveraging advanced technological scaffolding while rigorously preserving the space for human reflection, cognitive friction, and critical independence.

Claims & Evidence

AI-SCORE integration enhances student autonomy via personalized support

Strong (9/10)

Multiple systematic reviews and rigorous experiments confirm improved planning and engagement when AI deployment is balanced with learner agency.

Lan & Zhou, 2025Chang & Sun, 2024Banihashem et al., 2025Mohamed et al., 2024

Over-reliance on AI can severely undermine self-efficacy and critical thinking

Strong (8/10)

Consistent, robust findings across varied experimental scopes directly link excessive AI dependence to reduced initiative, blunted metacognition, and cognitive outsourcing.

Darvishi et al., 2023Zhang & Xu, 2024Zhai et al., 2024Babayev, 2025

Teacher involvement tightly moderates the impact on motivation versus autonomy

Moderate (7/10)

Empirical studies indicate that while mediated teacher support elevates motivation, it can sometimes paradoxically reduce perceived operational autonomy in AI environments.

Jin et al., 2023Chiu et al., 2023

Emotional factors significantly mediate the willingness for autonomous learning

Moderate (7/10)

Survey data and structural equation models highlight positive emotional affective states and digital efficacy as primary drivers for sustained autonomous engagement.

Wang & Li, 2024Wang et al., 2025

Unregulated AI usage introduces the risk of 'metacognitive laziness'

Moderate (6/10)

Quasi-experimental evidence links specific unstructured AI applications to shallow academic engagement and superficial reasoning.

Bermeo et al., 2025Fan et al., 2024Zhai & Nezakatgoo, 2025

The impact of AI on autonomy varies significantly by demographic context

Moderate (5/10)

Preliminary evidence suggests diverse effects across age groups and disciplines, with higher educational cohorts demonstrating greater immediate benefits, though broader generalizability remains constrained.

Wang et al., 2025Chiu et al., 2023

Research Gaps

The matrix below shows where empirical evidence is concentrated and where critical research gaps remain.

Topic / OutcomeHigher EducationSecondary StudentsTeacher InvolvementMotivation Focus
Autonomy15274
Dependency Mitigation10142
Intrinsic Motivation8GAP28
Critical Thinking Resilience7GAP1GAP

Open Research Questions

Q1

How does the longitudinal, multi-year use of AI-SCORE frameworks affect baseline learner agency?

Rigorous longitudinal data spanning developmental stages are critically needed to assess whether initial autonomy gains decay or give way to chronic dependency over time.

Q2

What precise pedagogical designs best balance technological scaffolding with independent cognitive friction?

Identifying and standardizing effective instructional models will allow educators to maximize AI's cognitive benefits while immunizing students against the risks of metacognitive overreliance.

Q3

How do distinct emotional and motivational factors mediate the neuro-cognitive impact of AI-supported SRL?

A comprehensive understanding of these psycho-emotional mediators is required to design interventions that sustain intrinsic academic motivation alongside pervasive technology use.

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