Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: Large repositories of 3D shapes provide valuable input for data-driven analysis and modeling tools. They are especially porful once annotated with semantic information such as salient regions and functional parts.  propose a novel active learning method capable of enriching  massive  geometric datasets with  accurate  semantic region annotations. Given a shape collection and a user-specified region label our goal is to correctly demarcate the corresponding regions with minimal manual work. Our active framework achieves this goal by cycling beten manually annotating the regions, automatically propagating these annotations across the rest of the shapes, manually verifying both human and automatic annotations, and learning from the verification results to improve the automatic propagation algorithm.  use a unified utility function that explicitly models the time cost of human input across all steps of our method. This allows us to jointly optimize for the set of models to annotate and for the set of models to verify based on the predicted impact of these actions on the human efficiency.  demonstrate that incorporating verification of all produced labelings within this unified objective improves both accuracy and efficiency of the active learning procedure.  automatically propagate human labels across a dynamic shape network using a conditional random field (CRF) framework, taking advantage of global shape-to-shape similarities, local feature similarities, and point-to-point correspondences. By combining these diverse cues  achieve higher accuracy than existing alternatives.  validate our framework on existing benchmarks demonstrating it to be significantly more efficient at using human input compared to previous techniques.  further validate its efficiency and robustness by annotating a massive shape dataset, labeling over 93,000 shape parts, across multiple model classes, and providing a labeled part collection more than  one order of magnitude  larger than existing ones.
['Li Yi', 'Vladimir G. Kim', 'Duygu Ceylan', 'I-Chao Shen', 'Mengyan Yan', 'Hao Su', 'Cewu Lu', 'Qi-Xing Huang', 'Alla Sheffer', 'Leonidas J. Guibas']
I am writing a research paper on a idea A scalable active framework for region annotation in 3D shape collections
[{"from": "human", "value": "I am writing a research paper on a idea A scalable active framework for region annotation in 3D shape collections"}, {"from": "gpt", "value": "Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: Large repositories of 3D shapes provide valuable input for data-driven analysis and modeling tools. They are especially porful once annotated with semantic information such as salient regions and functional parts.  propose a novel active learning method capable of enriching  massive  geometric datasets with  accurate  semantic region annotations. Given a shape collection and a user-specified region label our goal is to correctly demarcate the corresponding regions with minimal manual work. Our active framework achieves this goal by cycling beten manually annotating the regions, automatically propagating these annotations across the rest of the shapes, manually verifying both human and automatic annotations, and learning from the verification results to improve the automatic propagation algorithm.  use a unified utility function that explicitly models the time cost of human input across all steps of our method. This allows us to jointly optimize for the set of models to annotate and for the set of models to verify based on the predicted impact of these actions on the human efficiency.  demonstrate that incorporating verification of all produced labelings within this unified objective improves both accuracy and efficiency of the active learning procedure.  automatically propagate human labels across a dynamic shape network using a conditional random field (CRF) framework, taking advantage of global shape-to-shape similarities, local feature similarities, and point-to-point correspondences. By combining these diverse cues  achieve higher accuracy than existing alternatives.  validate our framework on existing benchmarks demonstrating it to be significantly more efficient at using human input compared to previous techniques.  further validate its efficiency and robustness by annotating a massive shape dataset, labeling over 93,000 shape parts, across multiple model classes, and providing a labeled part collection more than  one order of magnitude  larger than existing ones."}]