Stochastic Planning and Lifted Inference
Roni Khardon, Scott Sanner

TL;DR
This paper reviews and unifies lifted probabilistic inference and lifted stochastic planning, highlighting their complementary innovations and proposing a generalized framework to bridge these research areas for future advancements.
Contribution
It provides an overview connecting lifted inference and stochastic planning, introducing the concept of Generalized Lifted Inference to unify these fields and identify open research problems.
Findings
Identifies strong connections between lifted inference and stochastic planning.
Proposes the paradigm of Generalized Lifted Inference to unify the two areas.
Highlights open problems for future research in lifted probabilistic reasoning.
Abstract
Lifted probabilistic inference (Poole, 2003) and symbolic dynamic programming for lifted stochastic planning (Boutilier et al, 2001) were introduced around the same time as algorithmic efforts to use abstraction in stochastic systems. Over the years, these ideas evolved into two distinct lines of research, each supported by a rich literature. Lifted probabilistic inference focused on efficient arithmetic operations on template-based graphical models under a finite domain assumption while symbolic dynamic programming focused on supporting sequential decision-making in rich quantified logical action models and on open domain reasoning. Given their common motivation but different focal points, both lines of research have yielded highly complementary innovations. In this chapter, we aim to help close the gap between these two research areas by providing an overview of lifted stochastic…
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Taxonomy
TopicsBayesian Modeling and Causal Inference · AI-based Problem Solving and Planning · Machine Learning and Algorithms
