Authors :
Srusti S. Deshmukh; Dr. B. R. Mohan
Volume/Issue :
Volume 11 - 2026, Issue 8 - August
Google Scholar :
https://tinyurl.com/pca7bu8p
Scribd :
https://tinyurl.com/2rpaazxh
DOI :
https://doi.org/10.38124/ijisrt/26aug610
Note : A published paper may take 4-5
working days from the publication date to appear in PlumX Metrics, Semantic Scholar, and
ResearchGate.
Abstract :
Modern educational assessment faces critical challenges in capturing fine-grained student proficiency through
static, fixed-form testing methods that impose uniform burdens and overlook dynamic learning trajectories. To address
these limitations, artificial intelligence has emerged as a transformative paradigm, shifting traditional static testing toward
intelligent, real-time adaptive ecosystems capable of continuous student modeling and personalized evaluation. This paper
presents a systematic survey of artificial intelligence-driven adaptive assessment systems, synthesized through a rigorous
PRISMA-based review methodology. The study systematically examines both foundational psychometric milestones and
recent technological advances across peer-reviewed literature. A novel end-to-end taxonomy is introduced, categorizing the
literature into five core pillars: measurement models spanning classical test theory to neural cognitive diagnosis, adaptive
item selection algorithms leveraging psychometric information and reinforcement learning, automated item generation
driven by transformer models and large language models, automated scoring mechanisms utilizing contextual embeddings,
and underlying system architectures paired with learning analytics. Furthermore, this survey provides a comparative
analysis of existing methods, identifies critical open research challenges regarding algorithmic bias and model
interpretability, and outlines a comprehensive future research roadmap. Ultimately, this work highlights the critical
significance of developing trustworthy, explainable, and intelligent adaptive assessment systems for modern education.
Keywords :
Artificial Intelligence, Adaptive Assessment, Computerized Adaptive Testing, Item Response Theory, Knowledge Tracing, Neural Cognitive Diagnosis, Educational Data Mining, Large Language Models.
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Modern educational assessment faces critical challenges in capturing fine-grained student proficiency through
static, fixed-form testing methods that impose uniform burdens and overlook dynamic learning trajectories. To address
these limitations, artificial intelligence has emerged as a transformative paradigm, shifting traditional static testing toward
intelligent, real-time adaptive ecosystems capable of continuous student modeling and personalized evaluation. This paper
presents a systematic survey of artificial intelligence-driven adaptive assessment systems, synthesized through a rigorous
PRISMA-based review methodology. The study systematically examines both foundational psychometric milestones and
recent technological advances across peer-reviewed literature. A novel end-to-end taxonomy is introduced, categorizing the
literature into five core pillars: measurement models spanning classical test theory to neural cognitive diagnosis, adaptive
item selection algorithms leveraging psychometric information and reinforcement learning, automated item generation
driven by transformer models and large language models, automated scoring mechanisms utilizing contextual embeddings,
and underlying system architectures paired with learning analytics. Furthermore, this survey provides a comparative
analysis of existing methods, identifies critical open research challenges regarding algorithmic bias and model
interpretability, and outlines a comprehensive future research roadmap. Ultimately, this work highlights the critical
significance of developing trustworthy, explainable, and intelligent adaptive assessment systems for modern education.
Keywords :
Artificial Intelligence, Adaptive Assessment, Computerized Adaptive Testing, Item Response Theory, Knowledge Tracing, Neural Cognitive Diagnosis, Educational Data Mining, Large Language Models.