{"title":"在不损失精确度的情况下恢复未知数据:大型模型引导的开放世界物体检测的有效解决方案","authors":"Yulin He;Wei Chen;Siqi Wang;Tianrui Liu;Meng Wang","doi":"10.1109/TIP.2024.3459589","DOIUrl":null,"url":null,"abstract":"Open World Object Detection (OWOD) aims to adapt object detection to an open-world environment, so as to detect unknown objects and learn knowledge incrementally. Existing OWOD methods typically leverage training sets with a relatively small number of known objects. Due to the absence of generic object knowledge, they fail to comprehensively perceive objects beyond the scope of training sets. Recent advancements in large vision models (LVMs), trained on extensive large-scale data, offer a promising opportunity to harness rich generic knowledge for the fundamental advancement of OWOD. Motivated by Segment Anything Model (SAM), a prominent LVM lauded for its exceptional ability to segment generic objects, we first demonstrate the possibility to employ SAM for OWOD and establish the very first SAM-Guided OWOD baseline solution. Subsequently, we identify and address two fundamental challenges in SAM-Guided OWOD and propose a pioneering SAM-Guided Robust Open-world Detector (SGROD) method, which can significantly improve the recall of unknown objects without losing the precision on known objects. Specifically, the two challenges in SAM-Guided OWOD include: 1) Noisy labels caused by the class-agnostic nature of SAM; 2) Precision degradation on known objects when more unknown objects are recalled. For the first problem, we propose a dynamic label assignment (DLA) method that adaptively selects confident labels from SAM during training, evidently reducing the noise impact. For the second problem, we introduce cross-layer learning (CLL) and SAM-based negative sampling (SNS), which enable SGROD to avoid precision loss by learning robust decision boundaries of objectness and classification. Experiments on public datasets show that SGROD not only improves the recall of unknown objects by a large margin (~20%), but also preserves highly-competitive precision on known objects. The program codes are available at <uri>https://github.com/harrylin-hyl/SGROD</uri>.","PeriodicalId":94032,"journal":{"name":"IEEE transactions on image processing : a publication of the IEEE Signal Processing Society","volume":"34 ","pages":"729-742"},"PeriodicalIF":13.7000,"publicationDate":"2024-09-18","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":"{\"title\":\"Recalling Unknowns Without Losing Precision: An Effective Solution to Large Model-Guided Open World Object Detection\",\"authors\":\"Yulin He;Wei Chen;Siqi Wang;Tianrui Liu;Meng Wang\",\"doi\":\"10.1109/TIP.2024.3459589\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"Open World Object Detection (OWOD) aims to adapt object detection to an open-world environment, so as to detect unknown objects and learn knowledge incrementally. Existing OWOD methods typically leverage training sets with a relatively small number of known objects. Due to the absence of generic object knowledge, they fail to comprehensively perceive objects beyond the scope of training sets. Recent advancements in large vision models (LVMs), trained on extensive large-scale data, offer a promising opportunity to harness rich generic knowledge for the fundamental advancement of OWOD. Motivated by Segment Anything Model (SAM), a prominent LVM lauded for its exceptional ability to segment generic objects, we first demonstrate the possibility to employ SAM for OWOD and establish the very first SAM-Guided OWOD baseline solution. Subsequently, we identify and address two fundamental challenges in SAM-Guided OWOD and propose a pioneering SAM-Guided Robust Open-world Detector (SGROD) method, which can significantly improve the recall of unknown objects without losing the precision on known objects. Specifically, the two challenges in SAM-Guided OWOD include: 1) Noisy labels caused by the class-agnostic nature of SAM; 2) Precision degradation on known objects when more unknown objects are recalled. For the first problem, we propose a dynamic label assignment (DLA) method that adaptively selects confident labels from SAM during training, evidently reducing the noise impact. For the second problem, we introduce cross-layer learning (CLL) and SAM-based negative sampling (SNS), which enable SGROD to avoid precision loss by learning robust decision boundaries of objectness and classification. Experiments on public datasets show that SGROD not only improves the recall of unknown objects by a large margin (~20%), but also preserves highly-competitive precision on known objects. 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引用次数: 0
摘要
开放世界目标检测(Open World Object Detection, OWOD)旨在使目标检测适应开放世界环境,从而检测未知目标并逐步学习知识。现有的OWOD方法通常利用具有相对少量已知对象的训练集。由于缺乏通用的对象知识,它们无法全面感知训练集范围之外的对象。大型视觉模型(large vision models, lvm)的最新进展是在广泛的大规模数据上进行训练的,为利用丰富的通用知识为OWOD的基础进步提供了一个有希望的机会。分段任意模型(SAM)是一种杰出的LVM,因其对通用对象进行分段的特殊能力而受到称赞,我们首先展示了将SAM用于OWOD的可能性,并建立了第一个SAM引导的OWOD基线解决方案。随后,我们识别并解决了sam制导开放世界检测器中存在的两个基本问题,并提出了一种开创性的sam制导鲁棒开放世界检测器(SGROD)方法,该方法可以在不损失已知目标精度的情况下显著提高未知目标的召回率。具体来说,SAM制导OWOD面临的两个挑战包括:1)SAM的类别不可知特性导致的噪声标签;2)当更多的未知对象被召回时,已知对象的精度下降。针对第一个问题,我们提出了一种动态标签分配(DLA)方法,该方法在训练过程中自适应地从SAM中选择自信标签,明显降低了噪声的影响。对于第二个问题,我们引入了跨层学习(CLL)和基于sam的负采样(SNS),使SGROD通过学习目标和分类的鲁棒决策边界来避免精度损失。在公共数据集上的实验表明,SGROD不仅将未知对象的召回率提高了约20%,而且在已知对象上保持了较高的竞争精度。程序代码可在https://github.com/harrylin-hyl/SGROD上获得。
Recalling Unknowns Without Losing Precision: An Effective Solution to Large Model-Guided Open World Object Detection
Open World Object Detection (OWOD) aims to adapt object detection to an open-world environment, so as to detect unknown objects and learn knowledge incrementally. Existing OWOD methods typically leverage training sets with a relatively small number of known objects. Due to the absence of generic object knowledge, they fail to comprehensively perceive objects beyond the scope of training sets. Recent advancements in large vision models (LVMs), trained on extensive large-scale data, offer a promising opportunity to harness rich generic knowledge for the fundamental advancement of OWOD. Motivated by Segment Anything Model (SAM), a prominent LVM lauded for its exceptional ability to segment generic objects, we first demonstrate the possibility to employ SAM for OWOD and establish the very first SAM-Guided OWOD baseline solution. Subsequently, we identify and address two fundamental challenges in SAM-Guided OWOD and propose a pioneering SAM-Guided Robust Open-world Detector (SGROD) method, which can significantly improve the recall of unknown objects without losing the precision on known objects. Specifically, the two challenges in SAM-Guided OWOD include: 1) Noisy labels caused by the class-agnostic nature of SAM; 2) Precision degradation on known objects when more unknown objects are recalled. For the first problem, we propose a dynamic label assignment (DLA) method that adaptively selects confident labels from SAM during training, evidently reducing the noise impact. For the second problem, we introduce cross-layer learning (CLL) and SAM-based negative sampling (SNS), which enable SGROD to avoid precision loss by learning robust decision boundaries of objectness and classification. Experiments on public datasets show that SGROD not only improves the recall of unknown objects by a large margin (~20%), but also preserves highly-competitive precision on known objects. The program codes are available at https://github.com/harrylin-hyl/SGROD.