Multimodal Fusion Induced Attention Network for Industrial VOCs Detection

Yu Kang;Kehao Shi;Jifang Tan;Yang Cao;Lijun Zhao;Zhenyi Xu
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Abstract

Industrial volatile organic compounds (VOCs) emissions and leakage have caused serious problems to the environment and public safety. Traditional VOCs monitoring systems require professionals to carry gas sensors into the emission area to collect VOCs, which might cause secondary hazards. VOCs infrared (IR) imaging visual inspection technology is a convenient and low-cost method. However, current visual detection methods with VOCs IR imaging are limited due to blurred imaging and indeterminate gas shapes. Moreover, major works pay attention to only IR modality for VOCs emissions detection, which would neglect semantic expressions of VOCs. To this end, we propose a dual-stream fusion detection framework to deal with visible and IR features of VOCs. Additionally, a multimodal fusion induced attention (MFIA) module is designed to realize feature fusion across modalities. Specifically, MFIA uses the spatial attention fusion module (SAFM) to mine association among modalities in terms of spatial location and generates fused features by spatial location weighting. Then, the modality adapter (MA) and induced attention module (IAM) are proposed to weight latent VOCs regions in IR features, which alleviates the problem of noise interference and degradation of VOCs characterization caused by fusion. Finally, comprehensive experiments are carried out on the challenging VOCs dataset, and the mAP@0.5 and F1-score of the proposed model are 0.527 and 0.601, which outperforms the state-of-the-art methods by 3.3% and 3.4%, respectively.
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工业挥发性有机化合物检测的多模态融合诱导注意网络
工业挥发性有机化合物(VOCs)的排放和泄漏对环境和公共安全造成了严重的问题。传统的VOCs监测系统需要专业人员携带气体传感器进入排放区域收集VOCs,这可能会造成二次危害。VOCs红外成像目视检测技术是一种方便、低成本的检测方法。然而,目前VOCs红外成像的视觉检测方法由于图像模糊和气体形状不确定而受到限制。此外,主要的工作只关注红外模式的VOCs排放检测,忽视了VOCs的语义表达。为此,我们提出了一种双流融合检测框架来处理VOCs的可见光和红外特征。此外,设计了多模态融合诱导注意(MFIA)模块,实现了多模态特征融合。具体来说,MFIA利用空间注意融合模块(SAFM)挖掘模态之间在空间位置上的关联,并通过空间位置加权生成融合特征。然后,提出模态适配器(MA)和诱导注意模块(IAM)对红外特征中的潜在VOCs区域进行加权,缓解了融合引起的噪声干扰和VOCs表征的退化问题。最后,在具有挑战性的VOCs数据集上进行了综合实验,所得模型的mAP@0.5和f1得分分别为0.527和0.601,分别优于现有方法3.3%和3.4%。
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