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Jing Du

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5

AAAI Conference 2026 Conference Paper

SGS-3D: High-Fidelity 3D Instance Segmentation via Reliable Semantic Mask Splitting and Growing

  • Chaolei Wang
  • Yang Luo
  • Jing Du
  • Siyu Chen
  • Yiping Chen
  • Ting Han

Accurate 3D instance segmentation is crucial for high-quality scene understanding in the 3D vision domain. However, 3D instance segmentation based on 2D-to-3D lifting approaches struggle to produce precise instance-level segmentation, due to accumulated errors introduced during the lifting process from ambiguous semantic guidance and insufficient depth constraints. To tackle these challenges, we propose Splitting and Growing reliable Semantic mask for high-fidelity 3D instance segmentation (SGS-3D), a novel "split-then-grow" framework that first purifies and splits ambiguous lifted masks using geometric primitives, and then grows them into complete instances within the scene. Unlike existing approaches that directly rely on raw lifted masks and sacrifice segmentation accuracy, SGS-3D serves as a training-free refinement method that jointly fuses semantic and geometric information, enabling effective cooperation between the two levels of representation. Specifically, for semantic guidance, we introduce a mask filtering strategy that leverages the co-occurrence of 3D geometry primitives to identify and remove ambiguous masks, thereby ensuring more reliable semantic consistency with the 3D object instances. For the geometric refinement, we construct fine-grained object instances by exploiting both spatial continuity and high-level features, particularly in the case of semantic ambiguity between distinct objects. Experimental results on ScanNet200, ScanNet++, and KITTI-360 demonstrate that SGS-3D substantially improves segmentation accuracy and robustness against inaccurate masks from pre-trained models, yielding high-fidelity object instances while maintaining strong generalization across diverse indoor and outdoor environments.

EAAI Journal 2025 Journal Article

Knowledge extraction and alignment for mine ventilation: A knowledge graph construction framework based on large language models

  • Jinyang Dong
  • Junqiao Li
  • Yucheng Li
  • Wei Zhang
  • Zhitao Zhang
  • Chenyang Guo
  • Yu Dang
  • Mei Chen

Mine ventilation corpora contain fragmented entities, attributes, and rule-based knowledge, marked by heterogeneous expressions, implicit structures, and ambiguous terminology. These characteristics hinder systematic modeling and intelligent utilization. To address these challenges, we propose an automated extraction and semantic alignment method based on large language models (LLMs), aiming to construct a high-quality knowledge graph (KG) tailored for mine ventilation. We design an ontology-driven extraction framework for three textual sources — regulations, books, and websites — using prompt engineering and few-shot strategies to extract information, domain knowledge, entity attributes, and rule-based relations in a unified way. For entity alignment, we develop a dual-filtering mechanism that integrates semantic similarity and structural adjacency, and leverage large language models (LLMs) for verification, enabling high-confidence alignment of entities and predicates. We propose a rule-path modeling strategy using the structure “subject entity (with condition) - predicate - object entity (with condition), ” integrating multi-source triples into conditional rule chains. These are mapped into a graph database to support structured knowledge representation. Under few-shot conditions, the extraction accuracy of entity attributes and rule-based relations reached 94% and 99%, respectively. The final alignment of entities and predicates, manually verified, achieved 100% precision. The resulting knowledge graph (KG) comprises 58, 358 entities and 63, 630 edges, demonstrating strong semantic consistency and structural integrity. It provides structured knowledge support for risk warning, question answering (QA), and intelligent decision-making in mine ventilation systems as part of intelligent mining applications.

YNIMG Journal 2021 Journal Article

Difference in distribution functions: A new diffusion weighted imaging metric for estimating white matter integrity

  • Jing Du
  • Forrest C. Koch
  • Aihua Xia
  • Jiyang Jiang
  • John D. Crawford
  • Ben C.P. Lam
  • Anbupalam Thalamuthu
  • Teresa Lee

Diffusion weighted imaging (DWI) is a widely recognized neuroimaging technique to evaluate the microstructure of brain white matter. The objective of this study is to establish an improved automated DWI marker for estimating white matter integrity and investigating ageing related cognitive decline. The concept of Wasserstein distance was introduced to help establish a new measure: difference in distribution functions (DDF), which captures the difference of reshaping one's mean diffusivity (MD) distribution to a reference MD distribution. This new DWI measure was developed using a population-based cohort (n=19,369) from the UK Biobank. Validation was conducted using the data drawn from two independent cohorts: the Sydney Memory and Ageing Study, a community-dwelling sample (n=402), and the Renji Cerebral Small Vessel Disease Cohort Study (RCCS), which consisted of cerebral small vessel disease (CSVD) patients (n=171) and cognitively normal controls (NC) (n=43). DDF was associated with age across all three samples and better explained the variance of changes than other established DWI measures, such as fractional anisotropy, mean diffusivity and peak width of skeletonized mean diffusivity (PSMD). Significant correlations between DDF and cognition were found in the UK Biobank cohort and the MAS cohort. Binary logistic analysis and receiver operator characteristic curve analysis of RCCS demonstrated that DDF had higher sensitivity in distinguishing CSVD patients from NC than the other DWI measures. To demonstrate the flexibility of DDF, we calculated regional DDF which also showed significant correlation with age and cognition. DDF can be used as a marker for monitoring the white matter microstructural changes and ageing related cognitive decline in the elderly.

JBHI Journal 2020 Journal Article

Bayesian Inference of Lymph Node Ratio Estimation and Survival Prognosis for Breast Cancer Patients

  • Jing Teng
  • Assem Abdygametova
  • Jing Du
  • Bian Ma
  • Rong Zhou
  • Yu Shyr
  • Fei Ye

Objective: We evaluated the prognostic value of lymph node ratio (LNR) for the survival of breast cancer patients using Bayesian inference. Methods: Data on 5, 279 women with infiltrating duct and lobular carcinoma breast cancer, diagnosed from 2006-2010, was obtained from the NCI SEER Cancer Registry. A prognostic modeling framework was proposed using Bayesian inference to estimate the impact of LNR in breast cancer survival. Based on the proposed model, we then developed a web application for estimating LNR and predicting overall survival. Results: The final survival model with LNR outperformed the other models considered (C-statistic 0. 71). Compared to directly measured LNR, estimated LNR slightly increased the accuracy of the prognostic model. Model diagnostics and predictive performance confirmed the effectiveness of Bayesian modeling and the prognostic value of the LNR in predicting breast cancer survival. Conclusion: The estimated LNR was found to have a significant predictive value for the overall survival of breast cancer patients. Significance: We used Bayesian inference to estimate LNR which was then used to predict overall survival. The models were developed from a large population-based cancer registry. We also built a user-friendly web application for individual patient survival prognosis. The diagnostic value of the LNR and the effectiveness of the proposed model were evaluated by comparisons with existing prediction models.

YNICL Journal 2019 Journal Article

Structural brain network measures are superior to vascular burden scores in predicting early cognitive impairment in post stroke patients with small vessel disease

  • Jing Du
  • Yao Wang
  • Nan Zhi
  • Jieli Geng
  • Wenwei Cao
  • Ling Yu
  • Jianhua Mi
  • Yan Zhou

OBJECTIVES: In this cross-sectional study, we aimed to explore the mechanisms of early cognitive impairment in a post stroke non-dementia cerebral small vessel disease (SVD) cohort by comparing the SVD score with the structural brain network measures. METHOD: 127 SVD patients were recruited consecutively from a stroke clinic, comprising 76 individuals with mild cognitive impairment (MCI) and 51 with no cognitive impairment (NCI). Detailed neuropsychological assessments and multimodal MRI were performed. SVD scores were calculated on a standard scale, and structural brain network measures were analyzed by diffusion tensor imaging (DTI). Between-group differences were analyzed, and logistic regression was applied to determine the predictive value of SVD and network measures for cognitive status. Mediation analysis with structural equation modeling (SEM) was used to better understand the interactions of SVD burden, brain networks and cognitive deficits. RESULTS: ) was significantly related to cognitive state (p < .01) but not the SVD score. Mediation analysis showed that the standardized total effect (p = .013) and the standardized indirect effect (p = .016) of SVD score on cognition was significant, but the direct effect was not. CONCLUSIONS: Brain network measures, but not the SVD score, are significantly correlated with cognition in post-stroke SVD patients. Mediation analysis showed that the cerebral vascular lesions produce cognitive dysfunction by interfering with the structural brain network in SVD patients. The brain network measures may be regarded as direct and independent surrogate markers of cognitive impairment in SVD.

v2026.09.13