Aeros(CASP): Advancing Certification and Safety Through Commonsense Reasoning-Based Constraint Answer Set Programming

The grounding of the Boeing 737 Max underscores an urgent need for faster, more reliable, and scalable quality assurance processes in aerospace engineering. This paper introduces Aeros(CASP), a novel logic-based artificial intelligence framework designed to revolutionize automated airworthiness certification by ensuring formal correctness, reliability, and compliance throughout the certification process. Built on the Prolog-based non-monotonic reasoner s(CASP), Aeros(CASP) leverages constraint answer set programming to deliver deterministic, real-time validation of Federal Aviation Administration (FAA) standards. By encoding and verifying immutable regulatory rules with precision, Aeros(CASP) ensures rigorous alignment with federal requirements, significantly reducing the risks of human oversight and the inconsistencies of existing automated approaches. Unlike traditional certification methods or generative AI models prone to inaccuracies and ambiguities, Aeros(CASP) integrates rule-based reasoning with real-time compliance checks, offering a transparent and formally verifiable solution. Preliminary validation of the framework has demonstrated its ability to evaluate FAA compliance cases with clarity and consistency, addressing bottlenecks in traditional certification processes and setting a foundation for future scalability. Developed in alignment with DARPA’s Automated Rapid Certification of Software (ARCOS) initiative, Aeros(CASP) expands automation capabilities beyond software to encompass hardware systems, bridging a critical gap in modern aerospace certification. This paper outlines the technical architecture of Aeros(CASP), including its constraint-solving methodology, integration with existing regulatory workflows, and approaches to mitigating the challenges of applying formal logic systems to dynamic and complex aerospace requirements. By preserving human-centric control while enhancing safety and efficiency, Aeros(CASP) represents a transformative step forward in automated certification. Future research will explore its scalability to high-stakes domains such as autonomous vehicles and medical devices, highlighting its broader potential to redefine quality assurance in safety-critical industries.

Authors

Publication Details

Published
2025-01-01
DOI
https://doi.org/10.2514/6.2025-98357
Primary Topic
Logic, Reasoning, and Knowledge
Type
article
Field-Weighted Citation Impact
0.00
Controls
|||
ALL TIME
JAN
FEB
MAR
APR
MAY
JUN
JUL
AUG
SEP
OCT
article

Aeros(CASP): Advancing Certification and Safety Through Commonsense Reasoning-Based Constraint Answer Set Programming

William T. Doan
Logic, Reasoning, and Knowledge
article

Aeros(CASP): Advancing Certification and Safety Through Commonsense Reasoning-Based Constraint Answer Set Programming

William T. Doan
article en

Abstract

The grounding of the Boeing 737 Max underscores an urgent need for faster, more reliable, and scalable quality assurance processes in aerospace engineering. This paper introduces Aeros(CASP), a novel logic-based artificial intelligence framework designed to revolutionize automated airworthiness certification by ensuring formal correctness, reliability, and compliance throughout the certification process. Built on the Prolog-based non-monotonic reasoner s(CASP), Aeros(CASP) leverages constraint answer set programming to deliver deterministic, real-time validation of Federal Aviation Administration (FAA) standards. By encoding and verifying immutable regulatory rules with precision, Aeros(CASP) ensures rigorous alignment with federal requirements, significantly reducing the risks of human oversight and the inconsistencies of existing automated approaches. Unlike traditional certification methods or generative AI models prone to inaccuracies and ambiguities, Aeros(CASP) integrates rule-based reasoning with real-time compliance checks, offering a transparent and formally verifiable solution. Preliminary validation of the framework has demonstrated its ability to evaluate FAA compliance cases with clarity and consistency, addressing bottlenecks in traditional certification processes and setting a foundation for future scalability. Developed in alignment with DARPA’s Automated Rapid Certification of Software (ARCOS) initiative, Aeros(CASP) expands automation capabilities beyond software to encompass hardware systems, bridging a critical gap in modern aerospace certification. This paper outlines the technical architecture of Aeros(CASP), including its constraint-solving methodology, integration with existing regulatory workflows, and approaches to mitigating the challenges of applying formal logic systems to dynamic and complex aerospace requirements. By preserving human-centric control while enhancing safety and efficiency, Aeros(CASP) represents a transformative step forward in automated certification. Future research will explore its scalability to high-stakes domains such as autonomous vehicles and medical devices, highlighting its broader potential to redefine quality assurance in safety-critical industries.

Openalex Percentile: Top 89%
Logic, Reasoning, and Knowledge
AI Navigator

Ask Laika to Summarize, Analyze, and Connect papers live on the map.

Summarize Papers & Methodologies

Extract key findings, datasets, and comparative methods across publications.

Benchmark Rankings & Visual Analytics

Rank top research institutions, authors, funders, topics, and journals by Field-Weighted Citation Impact (FWCI) and paper volume with instant charts.

Connect Distant Disciplines

Bridge topological clusters on the map to find hidden collaborative intersections.