AGENTIC ARCHITECTURES AND AUTONOMOUS DECISION-MAKING
Main Article Content
Abstract
Agentic architectures and autonomous decision-making represent the vanguard of contemporary artificial intelligence, constituting computational systems in which intelligent agents perceive their environments, reason over complex objectives, plan multi-step action sequences, invoke external tools and services, and execute decisions with substantially reduced human oversight across sustained operational cycles. This chapter delivers a rigorous, comprehensive scholarly examination of agentic architectures as the foundational infrastructure for autonomous AI systems, investigating the theoretical underpinnings, architectural paradigms, and deployment evidence that collectively characterise this rapidly maturing field. Drawing upon systematic evidence synthesis spanning peer-reviewed literature published between 2019 and 2025, integrated with four original case studies across healthcare diagnostics, financial portfolio management, intelligent manufacturing, and autonomous logistics coordination, the chapter demonstrates that well-engineered agentic architectures consistently outperform conventional supervised automation across critical dimensions including task completion fidelity, adaptive decision quality under uncertainty, operational resilience under environmental disruption, and resource utilisation efficiency—with documented performance improvements ranging from 29 to 64 percent relative to single-agent and rule-based system baselines. The methodological framework synthesises quantitative benchmarking using standardised agentic evaluation protocols, structured comparative case study analysis applying the Agentic Maturity Assessment Model, and qualitative synthesis of practitioner deployment experiences across enterprise, governmental, and scientific application contexts. Alongside the documented performance advantages, the analysis identifies and systematically examines critical challenges confronting the field, encompassing the interpretability deficit inherent to deep neural agentic reasoning, the compounding error propagation risks characteristic of long-horizon autonomous task execution, the misalignment vulnerabilities arising when agent reward structures diverge from human principal intentions, and the governance vacuums created when consequential autonomous decisions resist attribution to identifiable human decision-makers. The chapter concludes by mapping the frontier research trajectories—including constitutional agentic governance frameworks, neurally-grounded tool-use architectures, and self-improving agentic ecosystems with formal safety guarantees—that will define the next generation of autonomous AI systems and shape their integration into critical societal infrastructure over the coming decade.
Article Details
References
Janakiraman, A. (2026). From Generative Intelligence to Agentic Autonomy: Leveraging Large Language Models for Multi-Agent Reasoning, Planning, and Execution. Journal of Integrated Science, AI and Engineering, 2(1).
Janakiraman, A. (2026). Agentic Large Language Models for Autonomous Decision-Making and Adaptive Task Orchestration in Intelligent Systems. International Journal of Sustainable Digital and Computing Systems, 3(1).
Russell, S., & Norvig, P. (2021). Artificial intelligence: A modern approach (4th ed.). Pearson.
Sutton, R. S., & Barto, A. G. (2018). Reinforcement learning: An introduction (2nd ed.). MIT Press.
Wooldridge, M. (2009). An introduction to multiagent systems (2nd ed.). John Wiley & Sons.
Goodfellow, I., Bengio, Y., & Courville, A. (2016). Deep learning. MIT Press.
Konda, P. R. (2026). Cloud-Native AI/ML Analytics Platform for Real-Time Enterprise Data Processing and Optimization. Synergia: A Journal of Multidisciplinary Innovation, 8(8). Retrieved from https://ijcdra.us/index.php/Synergia/article/view/72
Sharma, M., Vangara, Y., Sharma, P., & Konda, P. R. (2025, June). NeuroNav: A Hybrid Deep Learning Framework for Sustainable Autonomous Indoor Robot Localization and Navigation. In International Conference on Sustainable Development through Machine Learning, AI and IoT (pp. 330-349). Cham: Springer Nature Switzerland.