Software Architecture for Next-Generation AI Planning Systems

Abstract

Artificial Intelligence (AI) planning is a flourishing research and development discipline that provides powerful tools for searching a course of action that achieves some user goal. While these planning tools show excellent performance on benchmark planning problems, they represent challenging software systems when it comes to their use and integration in real-world applications. In fact, even in-depth understanding of their internal mechanisms does not guarantee that one can successfully set up, use and manipulate existing planning tools. We contribute toward alleviating this situation by proposing a service-oriented planning architecture to be at the core of the ability to design, develop and use next-generation AI planning systems. We collect and classify common planning capabilities to form the building blocks of the planning architecture. We incorporate software design principles and patterns into the architecture to allow for usability, interoperability and reusability of the planning capabilities. Our prototype planning system demonstrates the potential of our approach for rapid prototyping and flexibility of system composition. Finally, we provide insight into the qualitative advantages of our approach when compared to a typical planning tool.

Software Architecture for Quantum Computing Systems -- A Systematic Review

“…Software developers and architects have successfully used architectural descriptions and specifications to design, develop, validate, and evolve software-intensive system at higher-level of abstractions while maintaining system functionality and quality [28] [29]. Architectural models have been exploited to design, develop, and validate emerging generations of software-intensive systems including but not limited to the internet of things [30,31], blockchain applications [32,33], and artificially intelligent systems [34]. Quantum Software Architecture (QSA), as a new genre of Software Architectures (SA), can provide architectural descriptions (i.e., components, connectors, and configurations) to design and develop quantum software, while abstracting complex and implementation specific tasks [26,35].…”