零镜头学习的目标检测和分割技术

Zongzhi Lou, Linlin Chen, Tian Guo, Zhizhong Wang, Yuxuan Qiu, Jinyang Liang
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摘要

计算机视觉领域的零点学习(Zero-shot learning,ZSL)是指使模型能够识别和理解在训练阶段未曾遇到的类别。它对于物体检测和分割任务尤为重要,因为这些任务要求模型对未知类别具有良好的泛化能力。物体检测要求模型确定物体的位置,而分割则进一步要求精确划分物体的边界。在 ZSL 研究中,知识表示和传递是核心问题。研究人员尝试使用语义属性作为知识桥梁,将训练阶段看到的类别与测试阶段未看到的类别连接起来。这些属性可以是颜色、形状等,但这种方法需要准确的属性注释,而这在实践中往往不容易实现。因此,研究人员开始探索使用知识图谱和文本描述等非视觉信息来丰富模型的识别能力,但这也带来了信息整合和对齐的挑战。目前,ZSL 在目标检测和分割任务方面取得了一定的进展,但与传统的监督学习相比仍有很大差距。这主要是由于 ZSL 模型对新类别的泛化能力有限。为此,研究人员开始探索将 ZSL 与生成式对抗网络 (GAN) 和强化学习等其他技术相结合,以增强模型对新类别的检测和分割能力。未来的研究需要关注几个方面。首先是如何设计更有效的知识表示和转移机制,使模型能更好地利用现有知识。第二步是开发新的算法,以提高 ZSL 在复杂环境中的性能。此外,研究重点应放在如何降低对计算资源的依赖上,从而使 ZSL 方法能在资源有限的环境中有效运行。总之,零镜头学习的目标检测和分割技术研究是计算机视觉领域的前沿课题。尽管存在挑战,但随着研究的深入,我们期待这些技术能为提高计算机视觉系统的泛化能力和智能化水平做出贡献。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Target Detection and Segmentation Technology for Zero-shot Learning
Zero-shot learning (ZSL) in the field of computer vision refers to enabling the model to recognize and understand categories that have not been encountered during the training phase. It is particularly critical for object detection and segmentation tasks, because these tasks require the model to have good generalization capabilities to unknown categories. Object detection requires the model to determine the location of the object, while segmentation further requires the precise demarcation of the object's boundaries. In ZSL research, knowledge representation and transfer are core issues. Researchers have tried to use semantic attributes as a knowledge bridge to connect categories seen during the training phase and categories not seen during the testing phase. These attributes may be color, shape, etc., but this method requires accurate attribute annotation, which is often not easy to achieve in practice. Therefore, researchers have begun to explore the use of non-visual information such as knowledge maps and text descriptions to enrich the recognition capabilities of models, but this also introduces the challenge of information integration and alignment. At present, ZSL has made certain progress in target detection and segmentation tasks, but there is still a significant gap compared with traditional supervised learning. This is mainly due to the limited ability of ZSL models to generalize to new categories. To this end, researchers have begun to explore combining ZSL with other technologies, such as generative adversarial networks (GANs) and reinforcement learning, to enhance the model's detection and segmentation capabilities for new categories. Future research needs to focus on several aspects. The first is how to design a more effective knowledge representation and transfer mechanism so that the model can better utilize existing knowledge. The second step is to develop new algorithms to improve the performance of ZSL in complex environments. In addition, research should focus on how to reduce the dependence on computing resources so that the ZSL method can run effectively in resource-limited environments. In summary, the research on target detection and segmentation technology of zero-shot learning is a cutting-edge topic in the field of computer vision. Despite the challenges, with the deepening of research, we expect these technologies to contribute to improving the generalization ability and intelligence level of computer vision systems.
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