With the rapid development of logistics and manufacturing industries, traditional handling robots can no longer meet practical needs. In response to this, for the rapid handling of diversified products, research first combines deep learning technology to improve the Double Actors Regularized Critics (DARC) algorithm and design a robot path planning method; Then, a Reachability Analysis-based Time Optimal Trajectory Planning (RA-TOP) algorithm is designed to generate the time optimal trajectory from the interpolated robot path, thereby efficiently achieving the task of rapid handling of diversified products by robots. The findings demonstrate that the enhanced DARC algorithm offers notable benefits in terms of path planning, resulting in shorter paths, reduced curvature, enhanced smoothness, a minimum path length of less than 20 meters, and fewer convergence times, surpassing the performance of alternative algorithms. The time trajectory generation algorithm has a shorter motion time, taking about 1.75 seconds under the same displacement, which is better than the comparison algorithm and can effectively avoid robot motion shaking. Compared with the comparative method, the obstacle avoidance trajectory of the research method is closer to the expected value, with an average deviation of about 0.5 m from the expected trajectory. The application results of the example show that under the research method, the success rate of the handling robot task is 94% or above. The above results indicate that robots can stably and dynamically avoid obstacles, generate optimal trajectories, meet the real-time path planning and efficient handling needs of enterprises, and improve production efficiency under the research method.

The aircraft final assembly is a complex system, encompassing various aspects and multidimensional production factors. These numerous factors are interconnected, significantly impacting the efficiency of the final assembly process. To investigate the interrelationships among various production factors, this study introduces a specialized fine-tuning large language model for aircraft final assembly, termed Aircraft Final Assembly ChatGLM (AFA-ChatGLM). This model is designed to automatically extract essential information regarding key production factors from process documentation. Furthermore, the FP-Growth algorithm is employed to uncover association rules between these production factors and the various stages of the final assembly. Experimental results indicate that our method demonstrates outstanding performance in the aircraft final assembly domain. Specifically, for the assembly process documents of the C919 large passenger aircraft, our proposed model achieved a Precision of 82.7%, Recall of 89.1%, and F1 score of 85.4%, representing a substantial improvement over traditional word segmentation methods. leveraging the superior performance of the model, we utilized association rule mining techniques to construct 44,851 high-confidence association rules for the final assembly line of the C919, laying a foundation for subsequent optimization of the production line.

This paper presents a geometric solution framework for a target defense problem, formulated as a variant of the classical Game of Two Cars. The setting considers a Dubins defender that is faster and more maneuverable and aims to intercept a Dubins attacker attempting to reach a convex target set. To address the computational complexity of solving the associated Hamilton-Jacobi-Isaacs (HJI) equations, a geometric approach based on the concept of the Attacker Dominance Region (ADR) is developed. The ADR is constructed piecewise from the boundaries of the players’ reachable sets. The complete solution consists of two components: a Game of Kind, which determines the outcome based on the spatial relationship between the ADR and the target set, and a Game of Degree, which derives optimal strategies that achieve equilibrium. Simulation results demonstrate the effectiveness of the proposed method under realistic motion constraints and indicate its potential applicability to practical target defense scenarios.

Blockchain has achieved widespread application in various fields due to its decentralized nature, data immutability, and transparency. Particularly, its integration with satellite networks provides a more secure and efficient solution for cross-regional, high-speed transmission, and reliable communication. However, challenges such as network fluctuations, performance bottlenecks, and leader election issues arise in this context, primarily due to the uneven computational power distribution of heterogeneous devices in satellite networks, as well as bandwidth limitations, signal delays, and instability. To address these challenges, this paper proposes a Dynamic Scoped Hierarchical Raft algorithm based on the network performance and computational power differences of nodes. The algorithm establishes consensus groups and restricts the pool of eligible leader candidates, thereby enhancing the adaptability of blockchain in satellite networks. Furthermore, by introducing different consensus subgroups, the scalability of the blockchain system is improved. Experimental results show that, compared to the traditional Raft algorithm, the proposed algorithm achieves a 65% increase in average throughput, a 12% reduction in latency, and a 71% reduction in leader election time, with a significantly lower chance of leader node failure when nodes drop out due to network instability.

High-precision 3D perception in autonomous driving remains constrained by dependence on expensive LiDAR sensors and computationally intensive models. These prohibitive requirements effectively limit resource-constrained platforms from accessing advanced perception capabilities, hindering the widespread adoption of autonomous technology. We present T-3MS Fusion, a transformer-based middle-fusion framework that achieves state-of-the-art 3D object detection performance using only a Velodyne VLP-32C LiDAR and a consumer-grade 360° camera, eliminating the need for test-time augmentation while maintaining computational efficiency. In contrast to early-fusion strategies that weaken spatial fidelity and late-fusion methods that lose geometric consistency, T-3MS employs a transformer-based middle-deep fusion architecture. This design leverages hierarchical gated residual transformers and adaptive cross-modal reactivation to preserve LiDAR geometry and camera semantics while enabling effective multi-scale feature integration. Sparse bird’s-eye-view processing and quantization-aware training enable real-time inference on embedded platforms. Validation on the nuScenes benchmark confirms strong performance with 74.9% NDS and 72.8% mAP, while evaluation on a self-collected semi-urban dataset acquired with low-cost and accessible hardware demonstrates resilience under occlusion, adverse illumination, and sparse point-cloud conditions, where even high-resolution LiDAR systems often experience significant performance degradation. These results establish T-3MS Fusion as an effective approach for jointly advancing accuracy, efficiency, and affordability in next-generation autonomous driving perception systems.

We present a modular, production-ready approach that integrates compact Neural Network (NN) into a Kalman-filter-based Multi-Object Tracking (MOT) pipeline. We design three tiny task-specific networks to retain modularity, interpretability and real-time suitability for embedded Automotive Driver Assistance Systems:

Each module has less than 50k trainable parameters. Furthermore, all three can be operated in real-time, are trained from tracking data, and expose modular interfaces so they can be integrated with standard Kalman-filter state updates and track management. This makes them drop-in compatible with many existing trackers. Modularity is ensured, as each network can be trained and evaluated independently of the others. Our evaluation on the KITTI tracking benchmark shows that SPENT reduces prediction RMSE by more than 50% compared to a standard Kalman filter, while SANT and MANTa achieve up to 95% assignment accuracy. These results demonstrate that small, task-specific neural modules can substantially improve tracking accuracy and robustness without sacrificing modularity, interpretability, or the real-time constraints required for automotive deployment.