Agentic AI for Zero-Touch Customer Experience: A Governance-Constrained Framework for Autonomous Service Systems
DOI:
https://doi.org/10.63282/3117-5481/AIJCST-V7I2P108Keywords:
Agentic AI, Autonomous Agents, Zero-Touch Remediation, Autonomous Service Systems, Cognitive Service Routing, Self-Healing Systems, Multi-Agent Orchestration, Governance-Constrained AI, Autonomous Customer ExperienceAbstract
Agentic Artificial Intelligence (Agentic AI) is transforming customer service by enabling autonomous AI agents to make contextual decisions, orchestrate workflows, and collaborate intelligently with humans. Organizations across banking, healthcare, retail, telecommunications, and cloud-native enterprises are increasingly adopting Zero-Touch Customer Experience (ZTCX) systems to improve scalability, reduce operational delays, and enhance customer satisfaction. However, autonomous service systems introduce major challenges related to governance, compliance, explainability, cybersecurity, accountability, and ethical AI decision-making. Existing AI-powered customer engagement solutions largely lack structured governance mechanisms to control autonomous agent behavior within enterprise and regulatory boundaries. This study proposes a Governance-Constrained Agentic AI Framework (GCAAF) for trustworthy Zero-Touch Customer Experience systems. The framework integrates multi-agent orchestration, policy-aware decision engines, adaptive governance layers, explainable AI modules, real-time observability pipelines, and autonomous workflow optimization mechanisms. The architecture supports full service autonomy while maintaining accountability, regulatory compliance, transparency, and data governance. The proposed framework consists of four major components: autonomous service intelligence, governance enforcement, adaptive orchestration, and continuous compliance monitoring. It incorporates customer intent prediction, contextual reasoning, behavioral analytics, adaptive personalization, ethical AI policies, audit trails, semantic validation, anomaly detection, and risk-scoring mechanisms. Distributed AI agents operate within governance constraints using hierarchical orchestration and reinforcement learning models to optimize customer interactions dynamically. Experimental evaluation demonstrates significant improvements over traditional AI-based customer service systems, including 38% higher operational efficiency, 41% reduction in service escalations, 32% improvement in customer satisfaction, and 57% fewer compliance violations. The framework also enhances observability accuracy, service continuity, adaptive transparency, and enterprise resilience in multi-cloud environments. The study concludes that sustainable Zero-Touch Customer Experience systems must balance autonomy, governance, explainability, resilience, and human oversight to ensure trustworthy and regulation-compliant autonomous enterprise services.
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