MOON: Multi-Objective Optimization-Driven Object-Goal Navigation Using a Variable-Horizon Set-Orienteering Planner
Daigo Nakajima, Kanji Tanaka, Daiki Iwata, Kouki Terashima

TL;DR
This paper introduces MOON, a multi-objective optimization framework for object-goal navigation in complex indoor environments, combining landmark encoding, scalable planning, and a neural planner for efficient, strategic exploration and exploitation.
Contribution
It formulates object-goal navigation as a multi-objective optimization problem with a variable-horizon set-orienteering approach, integrating landmark encoding, scalable planning, and a neural planner.
Findings
Reduces decision latency by nearly 10 times with a neural planner.
Balances exploration and exploitation effectively in large-scale environments.
Provides a theoretical foundation for scalable, budget-constrained planning.
Abstract
This paper proposes MOON (Multi-Objective Optimization-driven Object-goal Navigation), a novel framework designed for efficient navigation in large-scale, complex indoor environments. While existing methods often rely on local heuristics, they frequently fail to address the strategic trade-offs between competing objectives in vast areas. To overcome this, we formulate the task as a multi-objective optimization problem (MOO) that balances frontier-based exploration with the exploitation of observed landmarks. Our prototype integrates three key pillars: (1) QOM [IROS05] for discriminative landmark encoding; (2) StructNav [RSS23] to enhance the navigation pipeline; and (3) a variable-horizon Set Orienteering Problem (SOP) formulation for globally coherent planning. To further support the framework's scalability, we provide a detailed theoretical foundation for the budget-constrained SOP…
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Taxonomy
TopicsMultimodal Machine Learning Applications · Robotic Path Planning Algorithms · Robotics and Sensor-Based Localization
