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Case ReportPublished systematic reviewDec. 23, 2023
AAB-CASE-2025-RV-020

Systematic review of research on artificial intelligence in K-12 education (2017–2022)

PRISMA-guided systematic review (Web of Science + six EBSCO-indexed databases) synthesizing 66 K-12 AI studies (2017–2022): themes include prediction of performance/behavior, AI curriculum, cross-subject integration, evaluation, learning environments/operations, ethics, and equity/safety; methods grouped as supervised, unsupervised, and reinforcement learning; applications include ML builders, tutors, chatbots, games, robots, and VR; summarizes teacher vs student use patterns and implications for practice and research gaps.

This page documents an AI literacy or AI education case for registry purposes. It is descriptive and does not imply AAB endorsement of any specific tool, provider, or intervention.
01

Implementation

US university education / learning technology research

02

Learning context

In-school (K–12)

03

AI role

Tutor

04

Outcome signal

Engagement

Registry Facets

0
Education Level
  • K-12
Subject Area
  • AI in education
  • Learning analytics
  • Curriculum
Use Case Type
  • Systematic review
Stakeholder Group
  • Teachers
  • Students
  • Researchers
AI Capability Type
  • ML
  • Intelligent tutoring
  • Chatbots
  • Robotics
Implementation Model
  • Classroom-level
  • School operations
Evidence Type
  • Systematic review
Outcomes Domain
  • Engagement
  • Achievement prediction
  • Ethics and equity

Implementing Organization

1
Organization Type

US university education / learning technology research

Location

North Carolina, USA

Primary Facilitator Role

Research team systematic search, screening, and coding

Learning Context

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Setting Type
  • In-school (K–12)
Session Format

Database search with PRISMA screening and thematic coding

Duration

Publication window 2017–2022 in included corpus

Group Size

66 included studies

Devices

Spans tutors, chatbots, ML model tools, games, robots, VR as reported in primary studies

Constraints
  • Database scope excludes some venues
  • Rapid post-2022 GenAI shift may date some application categories
  • Heterogeneity limits meta-analytic effect pooling
  • Equity and safety need ongoing primary research

Learner Profile

3
Age Range

K-12 (corpus-wide)

Prior AI Exposure Assumed

Varies widely by grade and community

Prior Programming Background Assumed

Varies; many studies target introductory ML or tool use

Educational Intent

4
Primary Learning Goals
  • Map publication trends and research themes for AI in compulsory schooling
  • Classify AI methods and technology modalities used in K-12
  • Contrast typical teacher-facing vs student-facing uses
Secondary Learning Goals
  • Surface ethics, equity, and safety as persistent themes
  • Guide practitioners selecting evidence-informed implementations
What This Was Not
  • Not a meta-analysis of standardized effect sizes across all tools
  • Not limited to teaching-AI-only (includes AI for learning and operations)

AI Tool Description

5
Tool Type

Heterogeneous: ML builders, ITS, chatbots, games, robots, VR

AI Role
  • Tutor
  • Automation tool
  • Evaluator
Languages

English-language review; primary studies multilingual

User Interaction Model
  • Teachers demonstrate models and predict performance/behavior in many studies
  • Students engage in discovery learning and data-informed decisions in others
Safeguards
  • Student data sensitivity with predictive analytics
  • Bias auditing when models inform decisions
  • Transparency to parents when AI supports instruction or discipline signals

Activity Design

6
Activity Flow
  • Define databases and screening criteria
  • PRISMA flow from initial hits to full-text inclusion
  • Code themes, methods, and application types
  • Synthesize implications for K-12 personnel and researchers
Human Vs AI Responsibilities
  • Review maps how humans delegate prediction/tutoring to AI in schools
  • Primary studies retain local IRB and policy constraints
Scaffolding Strategies
  • Varies by included study; review highlights diversity rather than one best design

Observed Challenges

7
Educators Reported
  • Ethics, equity, and safety recur as concerns alongside innovation
  • Teacher uses often emphasize demonstration and prediction
  • Student uses emphasize experience and inquiry—implementation quality varies

Design Adaptations

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Adaptations
  • K-12-specific scope versus broader AIEd reviews
  • Explicit taxonomy of ML paradigms and technology modalities

Reported Outcomes

9
Engagement
  • Shows multifaceted uptake of AI across teaching, learning, and operations
Learning Signals
  • Documents diverse intended outcomes from performance prediction to engagement
Educators Reflection

Concludes with implications for practitioners implementing AI and for researchers addressing corpus gaps.

Ethical & Privacy Considerations

10
Privacy
  • Sensitive student data in predictive models require governance
  • Equitable access to AI-enhanced learning environments
  • Safety and oversight for chatbots and immersive tech with minors
  • Algorithmic bias and transparency obligations for schools

Evidence Type

11
Evidence
  • Activity documentation
  • Practitioner observation

Relevance to Research

12
Potential Research Use
  • Longitudinal studies on equity impacts of school AI predictors
  • Design-based research linking ML demos to durable conceptual understanding
Relevant Research Domains
  • AI in K-12
  • Learning analytics ethics
  • Educational technology implementation science

Case Status

13
Case Status
  • Completed

AAB Classification Tags

14
Age

K-12

Setting

Schools (multi-use)

AI Function

Teach AI / learn with AI / operations

Pedagogy

Corpus-dependent

Risk Level

Medium–High (prediction, data)

Data Sensitivity

High in many primary studies

Registry Metadata

15
Case ID
AAB-CASE-2025-RV-020
Publication Status
Published systematic review
Tags
caseK-12North Carolina, USAClassroom-levelMLAI in educationLearning analyticsCurriculumSystematic review