2022
DOI: 10.3390/rs14030579
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Multi-Stage Feature Enhancement Pyramid Network for Detecting Objects in Optical Remote Sensing Images

Abstract: The intelligent detection of objects in remote sensing images has gradually become a research hotspot for experts from various countries, among which optical remote sensing images are considered to be the most important because of the rich feature information, such as the shape, texture and color, that they contain. Optical remote sensing image target detection is an important method for accomplishing tasks, such as land use, urban planning, traffic guidance, military monitoring and maritime rescue. In this pa… Show more

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Cited by 21 publications
(10 citation statements)
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References 52 publications
(71 reference statements)
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“…Problem solved Optimization Strategies CF2PN [84] Cross-level information exchange Cross-scale fusion module (CSFM) HawkNet [85] Cross-level information exchange Gated context-aware module (G-CAM) FPN-based [86] Cross-level information exchange Receiver field expansion block ABNet [87] Cross-level information exchange Adaptively combining multiscale features MSGN [88] Cross-level information exchange Backward semantic guided filtering (BSGF) MFEPN [89] Cross-level information exchange CAFUS+FEM SCANet [90] Inadequate expression RFEM+SCFM MVNet [91] Inadequate expression MRBs+MRFEM MSFC-Net [92] Inadequate expression Composite Semantic Feature Fusion (CSFF) SRAF-Net [93] Inadequate expression SE-FPN+SADH VSRNet [94] Inadequate expression VRG+SRG mSODANet [95] Inadequate expression Dilation Convolution for multiple scales SGFTHR [96] Channel information loss Structure Guided Feature Transformation (SGFT) MFAF [97] Channel information loss FI+SAW+CSP M2S [98] Channel information loss Improving feature extraction and feature refinement Info-FPN [99] Feature misalignment Feature alignment module (FAM) FDLR-Net [100] Feature misalignment Localization refinement module (LRM) SME-Net [101] Feature misalignment Feature splitting and merging module (FSM) GLNet [102] Feature misalignment MSP+SA HyNet [103] Feature misalignment Learning hyperscale feature representations ASSD [104] Feature misalignment Pseudo-Anchor Proposal Module (PAPM) VistrongerDet [105] Feature misalignment FPN-level, ROI-level, and head-level enhancements HRDNet [106] Feature misalignment MD-IPN+MS-FPN GLGCNet [107] Restricted local information Saliency enhancement modules DCL-Net [108] Restricted local information RFAM+PAM SMSR [109] Restricted local information Aggregating features learned at different depths GLSAN [24] Crowded targets GLDN+SARSA+LSRN GDF-Net [110] Crowded targets Global density model (GDM) GSNet [111] Crowded targets Feat...…”
Section: Methodsmentioning
confidence: 99%
“…Problem solved Optimization Strategies CF2PN [84] Cross-level information exchange Cross-scale fusion module (CSFM) HawkNet [85] Cross-level information exchange Gated context-aware module (G-CAM) FPN-based [86] Cross-level information exchange Receiver field expansion block ABNet [87] Cross-level information exchange Adaptively combining multiscale features MSGN [88] Cross-level information exchange Backward semantic guided filtering (BSGF) MFEPN [89] Cross-level information exchange CAFUS+FEM SCANet [90] Inadequate expression RFEM+SCFM MVNet [91] Inadequate expression MRBs+MRFEM MSFC-Net [92] Inadequate expression Composite Semantic Feature Fusion (CSFF) SRAF-Net [93] Inadequate expression SE-FPN+SADH VSRNet [94] Inadequate expression VRG+SRG mSODANet [95] Inadequate expression Dilation Convolution for multiple scales SGFTHR [96] Channel information loss Structure Guided Feature Transformation (SGFT) MFAF [97] Channel information loss FI+SAW+CSP M2S [98] Channel information loss Improving feature extraction and feature refinement Info-FPN [99] Feature misalignment Feature alignment module (FAM) FDLR-Net [100] Feature misalignment Localization refinement module (LRM) SME-Net [101] Feature misalignment Feature splitting and merging module (FSM) GLNet [102] Feature misalignment MSP+SA HyNet [103] Feature misalignment Learning hyperscale feature representations ASSD [104] Feature misalignment Pseudo-Anchor Proposal Module (PAPM) VistrongerDet [105] Feature misalignment FPN-level, ROI-level, and head-level enhancements HRDNet [106] Feature misalignment MD-IPN+MS-FPN GLGCNet [107] Restricted local information Saliency enhancement modules DCL-Net [108] Restricted local information RFAM+PAM SMSR [109] Restricted local information Aggregating features learned at different depths GLSAN [24] Crowded targets GLDN+SARSA+LSRN GDF-Net [110] Crowded targets Global density model (GDM) GSNet [111] Crowded targets Feat...…”
Section: Methodsmentioning
confidence: 99%
“…The implementation of FEM involves introducing additional attention mechanisms and feature enhancement at speci c layers of the network. Speci cally, FEM enhances the representation capability of the network at certain levels, directing more attention to the crucial features of the targets (Zhang & Shen, 2022). This helps improve the model's ability to identify targets in complex urban environments, such as distinguishing different types of vehicles and capturing pedestrian movements.…”
Section: Built Feature Enhancement Modulementioning
confidence: 99%
“…Han et al [40] designed a multi-scale receptive field enhancement module (MRFEM) for small objects. Zhang et al [41] proposed a multi-stage feature enhancement pyramid network to fuse features at varying scales for small objects with blurry edges. Popular attention mechanisms have also shown significant improvements in remote sensing detection.…”
Section: Remote Sensing Images Object Detectionmentioning
confidence: 99%