LLM-Driven Adaptive Student Support and Internationalization Strategies in Higher Education: A Reinforcement Learning Approach
Keywords:
large language models; reinforcement learning; student support; higher education internationalization; adaptive systems; educational governanceAbstract
Higher education institutions increasingly operate within complex global environments where student support demands are heterogeneous, culturally shaped, and dynamic. Large language models provide a new substrate for adaptive support systems that can interpret unstructured student needs and produce context-sensitive interventions. However, the design of such systems raises system-level questions beyond model accuracy, includingincluding governance, fairness, scalability, sustainability, and cross-border policy alignment. This paper develops a system-oriented framework for LLM-driven adaptive student support in internationalized higher education. The framework conceptualizes the support environment as a sequential decision process in which an LLM interprets student queries, institutional policies, cultural context, and learning telemetry. Reinforcement learning serves as the optimization layer that adjusts intervention strategies over time according to institutional objectives such as retention, academic progress, satisfaction, and equity. We examine the structural trade-offs between model autonomy and human oversight, the integration of student-facing language capabilities with administrative systems, and the challenges posed by multilingual and cross-cultural student populations. The discussion emphasizes that reinforcement learning is not merely a recommendation algorithm but a governance mechanism for coordinating fluctuating institutional priorities under uncertainty. The paper further analyzes deployment constraints including data governance, auditability, model drift, fairness, and resource sustainability. Case illustrations from student mobility, international student advising, and retention programs are used to illustrate architectural choices. We argue that adaptive support systems must be designed as socio-technical infrastructures rather than isolated prediction tools. The conclusion outlines directions for institutional policy, human-in-the-loop control, and cross-institutional coordination. By integrating reinforcement learning with LLM-based perception and generation, institutions can build support systems that are responsive, equitable, and sustainable across culturally diverse educational contexts.
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