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OmniEVA: Embodied Versatile Planner via Task-Adaptive 3D-Grounded and Embodiment-aware Reasoning
Created by
Haebom
Author
Yuecheng Liu, Dafeng Chi, Shiguang Wu, Zhanguang Zhang, Yuzheng Zhuang, Bowen Yang, He Zhu, Lingfeng Zhang, Pengwei Xie, David Gamaliel Arcos Bravo, Yingxue Zhang, Jianye Hao, Xingyue Quan
Outline
OmniEVA is an active multi-objective planner proposed to address two major gaps in existing MLLM-based implementation systems, namely the geometric adaptability gap and the implementation constraint gap, which are insufficient for tasks with diverse spatial demands. OmniEVA enables advanced implementation inference and task planning through two key innovations: a task-adaptive 3D-based mechanism that enables context-sensitive 3D-based construction, and an implementation-aware inference framework for goal-oriented and feasible planning decisions. Evaluation of the proposed implementation benchmarks, including various basic and complex tasks, confirms the robust multi-objective planning capabilities of OmniEVA.
Takeaways, Limitations
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Takeaways:
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We present a novel approach to effectively address the geometric adaptability gap and implementation constraint gap problems of MLLM-based implementation systems.
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Achieving improved implementation inference and task planning performance through task-adaptive 3D-based mechanisms and an implementation-aware reasoning framework.
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We demonstrate robust and versatile planning capabilities that demonstrate strong adaptability across a variety of sub-scenarios.
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Provides objective performance evaluation through proposed implementation benchmarks.
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Limitations:
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Further validation of the generalizability and universality of the proposed benchmark is needed.
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Further research is needed for extension and application to actual robotic systems.
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Analysis of potential biases for specific types of work or environments is needed.
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Further analysis of computational costs and processing speed is required.