Multi-Concept Learning for Scene Graph Generation

Xinyu Lyu;Lianli Gao;Junlin Xie;Pengpeng Zeng;Yulu Tian;Jie Shao;Heng Tao Shen
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Abstract

Existing Unbiased Scene Graph Generation (USGG) methods only focus on addressing the predicate-level imbalance that high-frequency classes dominate predictions of rare ones, while overlooking the concept-level imbalance. Actually, even if predicates themselves are balanced, there is still a significant concept-imbalance within them due to the long-tailed distribution of contexts (i.e., subject-object combinations). This concept-level imbalance poses a more pervasive and challenging issue compared to the predicate-level imbalance since subject-object pairs are inherently complex in combinations. To address the issue, we propose Multi-Concept Learning (MCL), a novel concept-level balanced learning framework orthogonal to existing SGG methods. MCL first quantifies the concept-level imbalance across predicates in terms of different amounts of concepts, representing as multiple concept-prototypes within the same class. Then, to achieve balanced learning across different concepts (i.e., concept-prototypes), we introduce the Concept-based Balanced Memory (CBM), which guides SGG models in generating balanced representations for concept-prototypes. Furthermore, the Concept Regularization (CR) technique is proposed to effectively help models in aligning relation features to their corresponding concept-prototypes, thereby generating concept-level compact and predicate-level distinctive representations for robust relation recognition. Finally, we introduce a novel metric, mean Context Recall (mCR@K), as a complement to mean Recall (mR@K), to evaluate the model’s performance across concepts (determined by contexts) within the same predicate. Extensive experiments demonstrate the remarkable efficacy of our model-agnostic strategy in enhancing the performance of benchmark models on both VG-SGG and OI-SGG datasets, leading to new state-of-the-art achievements in two key aspects: predicate-level unbiased relation recognition and concept-level compositional generability. Code is available at https://github.com/XinyuLyu/G-USGG.
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场景图生成的多概念学习
现有的无偏场景图生成(USGG)方法只关注于解决高频类主导稀有类预测的谓词级不平衡,而忽略了概念级的不平衡。实际上,即使谓词本身是平衡的,但由于上下文的长尾分布(即主客体组合),谓词内部仍然存在显著的概念不平衡。与谓词级别的不平衡相比,这种概念级别的不平衡带来了一个更普遍和更具挑战性的问题,因为主客体对在组合中本质上是复杂的。为了解决这个问题,我们提出了多概念学习(MCL),这是一种新的概念级平衡学习框架,与现有的SGG方法正交。MCL首先根据不同数量的概念量化谓词之间的概念级不平衡,表示为同一类中的多个概念原型。然后,为了实现跨不同概念(即概念原型)的平衡学习,我们引入了基于概念的平衡记忆(CBM),它指导SGG模型为概念原型生成平衡表征。此外,提出了概念正则化(CR)技术,有效地帮助模型将关系特征与其对应的概念原型对齐,从而生成概念级的紧凑和谓词级的独特表示,用于鲁棒关系识别。最后,我们引入了一个新的度量,平均上下文召回(mCR@K),作为平均召回(mR@K)的补充,以评估同一谓词内跨概念(由上下文决定)的模型性能。大量的实验表明,我们的模型不可知策略在提高VG-SGG和OI-SGG数据集上基准模型的性能方面具有显著的功效,并在两个关键方面取得了最新的成就:谓词级无偏关系识别和概念级组合可泛化。代码可从https://github.com/XinyuLyu/G-USGG获得。
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