Arrow Research search

Author name cluster

Wenlong He

Possible papers associated with this exact author name in Arrow. This page groups case-insensitive exact name matches and is not a full identity disambiguation profile.

3 papers
1 author row

Possible papers

3

AAAI Conference 2026 Conference Paper

Bridging Vision and Language for Robust Context-Aware Surgical Point Tracking: The VL-SurgPT Dataset and Benchmark

  • Rulin Zhou
  • Wenlong He
  • An Wang
  • Jianhang Zhang
  • Xuanhui Zeng
  • Xi Zhang
  • Chaowei Zhu
  • Haijun Hu

Accurate point tracking in surgical environments remains challenging due to complex visual conditions, including smoke occlusion, specular reflections, and tissue deformation. While existing surgical tracking datasets provide coordinate information, they lack the semantic context necessary to understand tracking failure mechanisms. We introduce VL-SurgPT, the first large-scale multimodal dataset that bridges visual tracking with textual descriptions of point status in surgical scenes. The dataset comprises 908 in vivo video clips, including 754 for tissue tracking (17,171 annotated points across five challenging scenarios) and 154 for instrument tracking (covering seven instrument types with detailed keypoint annotations). We establish comprehensive benchmarks using eight state-of-the-art tracking methods and propose TG-SurgPT, a text-guided tracking approach that leverages semantic descriptions to improve robustness in visually challenging conditions. Experimental results demonstrate that incorporating point status information significantly improves tracking accuracy and reliability, particularly in adverse visual scenarios where conventional vision-only methods struggle. By bridging visual and linguistic modalities, VL-SurgPT enables the development of context-aware tracking systems crucial for advancing computer-assisted surgery applications that can maintain performance even under challenging intraoperative conditions.

EAAI Journal 2025 Journal Article

Design of an intelligent grading system for Chinese water chestnuts utilizing advanced artificial intelligence methods

  • Yinping Zhang
  • Joon Huang Chuah
  • Anis Salwa Mohd Khairuddin
  • Dongyang Chen
  • Xuewei Zhao
  • Junwei Huang
  • Chenyang Xia
  • Jingjing Li

This study aims to overcome limitations in Chinese water chestnut production and processing by developing an innovative grading system that integrated advanced artificial intelligence and engineering design. The artificial intelligence component features an improved convolutional neural network architecture, specifically an enhanced version of the MobileNetV2 architecture combined with a Squeeze-and-Excitation module, which is referred to as MobileSeNet. Compared to the baseline MobileNetV2 model, MobileSeNet achieved superior performance not only in grading accuracy (97. 25 %) but also in convergence stability and model generalization, benefiting from enhanced gradient flow and feature recalibration. The engineering component involved a purpose-built hardware platform that evaluated Chinese water chestnuts based on external visual traits using advanced image acquisition, preprocessing, segmentation, edge detection, and ellipse fitting for diameter estimation. A user-friendly host computer interface was incorporated to support real-time monitoring and user interaction. The system introduced in this study offered a low-cost and scalable solution, making it well-suited for implementation in real agricultural scenarios. Overall, this research advances global smart agriculture by delivering a robust and efficient grading solution underpinned by artificial intelligence, with strong adaptability to diverse agricultural products.

AAAI Conference 2023 Conference Paper

Acceleration of Large Transformer Model Training by Sensitivity-Based Layer Dropping

  • Yujie Zeng
  • Wenlong He
  • Ihor Vasyltsov
  • Jiali Pang
  • Lin Chen

Transformer models are widely used in AI applications such as Natural Language Processing (NLP), Computer Vision (CV), etc. However, enormous computation workload be-comes an obstacle to train large transformer models efficiently. Recently, some methods focus on reducing the computation workload during the training by skipping some layers. How-ever, these methods use simple probability distribution and coarse-grained probability calculation, which significantly affect the model accuracy. To address the issue, in this paper we propose a novel method to accelerate training—Sensitivity-Based Layer Dropping (SBLD). SBLD uses lay-er-wise sensitivity data to switch on/off transformer layers in proper order to keep high accuracy. Besides, we adjust the probability of skipping transformer layers with a scheduler to accelerate training speed and get faster convergence. Our results show that SBLD solves the accuracy drop issue com-pared with prior layer dropping methods. Our SBLD method can decrease end-to-end training time by 19.67% during training of GPT-3 Medium model, the same time increasing the accuracy by 1.65% w.r.t. baseline. Furthermore, for SwinV2-L model the obtained Top-1 and Top-5 accuracies are also higher vs. the baseline. Thus, the proposed method is efficient and practical to improve the large transformer model training.

v2026.09.13