Foundations and Architectures of Artificial Intelligence for Motor Insurance
Teerapong Panboonyuen

TL;DR
This paper systematically explores AI architectures for motor insurance, integrating perception, reasoning, and production systems to automate vehicle damage analysis and claims processing in large-scale, real-world settings.
Contribution
It introduces a unified AI framework with domain-adapted transformer models for structured visual understanding and multimodal document analysis tailored for motor insurance applications.
Findings
Developed scalable AI pipeline for vehicle damage assessment
Achieved end-to-end automation of claims processing
Established principles for deploying reliable AI in industrial insurance environments
Abstract
This handbook presents a systematic treatment of the foundations and architectures of artificial intelligence for motor insurance, grounded in large-scale real-world deployment. It formalizes a vertically integrated AI paradigm that unifies perception, multimodal reasoning, and production infrastructure into a cohesive intelligence stack for automotive risk assessment and claims processing. At its core, the handbook develops domain-adapted transformer architectures for structured visual understanding, relational vehicle representation learning, and multimodal document intelligence, enabling end-to-end automation of vehicle damage analysis, claims evaluation, and underwriting workflows. These components are composed into a scalable pipeline operating under practical constraints observed in nationwide motor insurance systems in Thailand. Beyond model design, the handbook emphasizes the…
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Taxonomy
TopicsExplainable Artificial Intelligence (XAI) · Artificial Intelligence in Law · Adversarial Robustness in Machine Learning
