This chapter examines the AI and emerging technologies reshaping teaching-focused higher education and develops the mechanism framework that gives those technologies strategic meaning. This chapter opens by tracing an AI capability spectrum, moving from established machine learning applications to generative AI to experimental agentic architectures. It then surveys complementary technology clusters, including immersive reality, blockchain, IoT, learning analytics, and educational robotics. A maturity assessment classifies these technologies into three readiness bands with corresponding strategic postures. This chapter then develops five mechanisms, defined as causal pathways through which technologies produce institutional effects: automation, augmentation, systemic substitution, architectural reconfiguration, and value innovation. Each mechanism is examined through its definition, higher-education applications, implications for the three domains of the institutional core (value proposition, operating model, and capability set), theoretical grounding, and constraints. This chapter maps specific technologies to their primary and secondary mechanisms and proposes a four-phase transformation trajectory that illustrates how institutional mechanism portfolios may shift over time. Framework limitations and boundary conditions are acknowledged.
The method, ECCOLA, is presented, which aims at making the high-level AI ethics principles more practical, making it possible for developers to more easily implement them in practice.
Ville Vakkuri, Kai-Kristian Kemell, P. Abrahamsson· EUROMICRO Conference on Soft...· 64 citations· ⚡6
The goal is to not only refine the accuracy of the LLM-based tool but also to underscore its potential in streamlining the software development lifecycle through proactive code improvement and education.
Z. Rasheed, Malik Abdul Sami, Muhammad Waseem et al.· arXiv.org· 62 citations· ⚡3
A comprehensive overview of how enhanced sampling methods are reshaping the field, with a particular focus on the data-driven construction of collective variables, is provided.
Kai Zhu, Enrico Trizio, Jintu Zhang et al.· Chemical Reviews· 58 citations
The use of large language models to automatically improve the user story quality in Austrian Post Group IT agile teams is explored, with a reference model for an Autonomous LLM-based Agent System developed and implemented at the company.
Zheying Zhang, M. Rayhan, Tomas Herda et al.· International Conference on...· 48 citations· ⚡4
This paper introduces a novel multi-AI-agent system designed to fully automate SLRs, and demonstrates how it substantially reduces the time and effort traditionally required for SLRs while maintaining comprehensiveness and precision.
Abdul Malik Sami, Z. Rasheed, Kai-Kristian Kemell et al.· arXiv.org· 44 citations· ⚡2
The proposed LLM-based multi-agent system automates qualitative data analysis process, creating opportunities for researchers and practitioners, and future improvements focus on enhancing multilingual performance and integrating continuous expert feedback.
Z. Rasheed, Muhammad Waseem, Aakash Ahmad et al.· arXiv.org· 41 citations
AI is making software generation faster, but speed does not remove the need for expertise. As more work is delegated to AI, tacit knowledge may become one of the most important human advantages in software engineering. The post Beyond Prompt Engineering: The Role of Tacit Knowledge in Software Engineering appeared first on GPT-Lab.
MIT News · Artificial Intelligence· news.mit.eduSep 16, 2026