2026· Revista Internacional de Métodos Numéricos para Cálculo y Diseño en Ingeniería· Vol 42· 0 citations
TL;DR
CAM-YOLO, an enhanced architecture based on YOLOv8 that designs a Contextual Association Module (CAM) that explicitly models long-range spatial dependencies, and integrates a Dual-Branch Attention Mechanism to refine the feature processing flow, thereby strengthening the contextual feature representations crucial for detecting non-salient instances.
Abstract
Real-time object detection requires identifying objects in video streams or consecutive images with minimal latency, yet it continues to struggle with non-salient objects—those that are small, occluded, or otherwise inconspicuous. To address this limitation, this paper proposes CAM-YOLO, an enhanced architecture based on YOLOv8. First, to mitigate the baseline model’s limited representational capacity for non-salient targets, we introduce a Multi-Scale Aggregation Module (MSAM) into the feature fusion process, enabling the backbone network to extract more discriminative fine-grained features. Second, to better capture global contextual relationships associated with such objects, we design a Contextual Association Module (CAM) that explicitly models long-range spatial dependencies. Furthermore, we integrate a Dual-Branch Attention Mechanism (DBAM) to refine the feature processing flow, thereby strengthening the contextual feature representations crucial for detecting non-salient instances. Extensive experiments on two large-scale public benchmarks, Microsoft Common Objects in Context 2017 (MS COCO 2017) and PASCAL Visual Object Classes (PASCAL VOC), demonstrate that CAM-YOLO achieves highly competitive performance compared to several widely-adopted realtime detectors.OPEN ACCESS Received: 19/11/2025 Accepted: 15/01/2026 Published: 21/07/2026
A lightweight object detection framework, termed MDCF-YOLO, which achieves a superior accuracy-efficiency trade-off compared to state-of-the-art lightweight object detectors and exhibits similarly competitive performance on the AI-TOD dataset, further validating its effectiveness and generalization capability in UAV remote sensing scenarios.
Peng-Fei Dai, Liang Chen, Ting Fan et al.· Cluster Computing· 1 citation
An Adaptive and Scalable YOLO model named AS-YOLOR (Adaptive and Scalable YOLO for Rotated object detection), based on the YOLOv8 baseline is proposed, providing a solution with strong practical potential for achieving efficient and high-precision detection of small, rotated objects.
Jin Huang, Juntao Shen, Min Wang et al.· Applied Sciences· 0 citations
Salient Object Detection (SOD) remains a fundamental task in computer vision and visual computing, supporting applications ranging from image understanding to human-computer interaction. Existing methods still face two coupled challenges: insufficient modeling of multi-scale salient structures and imbalanced fusion between global semantic information and local details, which often lead to incomplete salient regions and blurred boundaries. To address these issues, this study proposes MSGAN, a multi-scale global-local collaborative learning framework that integrates multi-scale mixed convolution and adaptive global-local attention to enhance feature representation. Extensive experiments on the HKU-IS, ECSSD, PASCAL-S, and DUT-OMRON datasets demonstrate that our method achieves significant improvements in F-measure, MAE, and Em metrics, outperforming state-of-the-art approaches. Ablation studies validate the effectiveness of each core component. This work advances robust SOD for complex real-world scenarios and provides insights into attention-guided visual perception.
Real-time object detection needs to strike a balance between accuracy, speed, and reliability. However,many YOLO-based models struggle with two main issues: weakened feature quality in deeper backbonelayers and inefficient multiscale fusion in the detection neck. To overcome these challenges, we presentEnYOLO-World — a refined detection framework that combines the YOLOv9 GELAN backbone withProgrammable Gradient Information (PGI) to retain detailed spatial features and ensure smoother gradi-ent flow. We also introduce a FiLM-Driven Path Aggregation Network (FiLM-PAN), which adaptivelyfuses multiscale features using channel-wise affine transformations, achieving efficient performance withlinear complexity. Tests on the COCO dataset show that EnYOLO-World offers a better trade-off betweenaccuracy and speed compared to existing real-time detectors, demonstrating the value of optimizing bothbackbone feature retention and neck-level fusion strategies.