吉林大学学报(工学版) ›› 2026, Vol. 56 ›› Issue (9): 2456-2466.doi: 10.13229/j.cnki.jdxbgxb.20250233

• 计算机科学与技术 • 上一篇    

基于真伪三连体神经网络的传感器本体匹配方法

卢家伟(),剡昌锋()   

  1. 兰州理工大学 机电工程学院,兰州 730050
  • 收稿日期:2025-03-20 出版日期:2026-09-01 发布日期:2026-09-07
  • 通讯作者: 剡昌锋 E-mail:18816200508@163.com;changf_yan@163.com
  • 作者简介:卢家伟(1994-),男,博士研究生.研究方向:智能信息处理技术.E-mail: 18816200508@163.com
  • 基金资助:
    国家自然科学基金项目(51165018);甘肃省优秀研究生“创新之星”项目(2022CXZX-407)

Sensor ontology matching method based on genuine⁃pseudo triplet neural network

Jia-wei LU(),Chang-feng YAN()   

  1. School of Mechanical and Electrical Engineering,Lanzhou University of Technology,Lanzhou 730050,China
  • Received:2025-03-20 Online:2026-09-01 Published:2026-09-07
  • Contact: Chang-feng YAN E-mail:18816200508@163.com;changf_yan@163.com

摘要:

针对物联网系统中传感器本体交互所面临的异质性问题,提出了一种基于真-伪三连体神经网络(GP-TNN)的传感器本体匹配方法。首先,根据实体的出度入度提取核心实体,进而提升训练样本的质量;然后,通过设计确定性的混合相似度度量方法,用于生成高置信度的锚点匹配对,以此避免训练过程中对参考对齐的依赖;最后,结合孪生网络和伪孪生网络对同类及异类标注属性的表征能力,构建GP-TNN增强深层次语义特征挖掘能力。评估实验分别在本体对齐评测计划(OAEI)中Benchmark数据集以及3个真实的传感器本体上进行,实验结果表明,本文方法较对比方法能够更加有效地提高匹配结果的质量,为物联网中传感器本体匹配任务提供了可靠的理论支持。

关键词: 计算机应用, 深度学习, 真?伪三连体网络, 传感器本体匹配, 本体对齐评测计划

Abstract:

To address the heterogeneity problems in sensor ontology interaction within Internet of Things (IoT) systems, this paper proposes a sensor ontology matching method based on a Genuine-Pseudo Triplet Neural Network(GP-TNN). Firstly, core entities are extracted by analyzing the in-degree and out-degree of entities to enhance the quality of training samples. Secondly, a deterministic hybrid similarity measurement method is designed to generate high-confidence anchor matching pairs, thereby reducing the dependence on reference alignments during training. Finally, by leveraging the representation capabilities of Siamese and pseudo-Siamese networks for homogeneous and heterogeneous annotation attributes, the GP-TNN is constructed to enhance the extraction of deep semantic features. Evaluation experiments are conducted on the Benchmark dataset from the Ontology Alignment Evaluation Initiative(OAEI) and three real-world sensor ontologies. Experimental results show that the proposed method can more effectively improve the quality of matching results than the comparative methods, and provides reliable theoretical support for the sensor ontology matching task in the Internet of Things.

Key words: computer application, deep learning, genuine-pseudo triplet neural network, sensor ontology matching, ontology alignment evaluation initiative

中图分类号: 

  • TP391

图1

基于GP-TNN的传感器本体匹配框架"

图2

SSN本体中核心类及其关系"

表1

Benchmark测试集中不同案例的简要描述"

案例异质类型

实体

数量

对齐数量
总计8 3476 586
101源本体10997
201-202不同的词汇和语言特征1 090970
221-247不同的结构特征1 5381 194
248-262不同的词汇、语言和结构特征5 6104 325

图3

本文方法在Benchmark案例集上的评价结果"

图4

本文方法与传统匹配方法在F-measure上的比较"

表2

本文方法与OAEI中经典方法在Benchmark数据集上的Precision比较"

案例AMLLogMapLogMapLtLogMapBioXMap本文方法案例AMLLogMapLogMapLtLogMapBioXMap本文方法
1011.000.940.560.500.941.002411.000.850.670.661.001.00
2011.000.960.510.490.931.002461.000.850.670.661.000.93
2021.000.950.510.500.931.002471.000.850.670.661.000.91
2211.000.940.560.500.941.002481.000.940.510.470.941.00
2221.000.000.570.000.941.002491.000.940.810.500.931.00
2231.000.940.560.500.940.982501.000.900.270.661.001.00
2241.000.940.830.500.941.002511.000.000.510.000.931.00
2251.000.940.560.500.940.992521.000.960.510.510.951.00
2281.000.850.320.661.001.002531.000.970.800.490.931.00
2321.000.940.830.500.941.002541.000.860.270.641.001.00
2331.000.850.320.661.001.002571.000.880.640.641.001.00
2361.000.850.670.661.001.002581.000.000.820.000.931.00
2371.000.000.840.000.941.002591.000.940.810.490.941.00
2381.000.940.830.500.940.982611.000.860.270.641.000.96
2391.000.850.320.661.000.932621.000.870.630.651.001.00
2401.000.850.320.661.000.91平均1.000.790.580.500.960.99

表3

本文方法与OAEI中经典方法在Benchmark数据集上的Recall比较"

案例AMLLogMapLogMapLtLogMapBioXMap本文方法案例AMLLogMapLogMapLtLogMapBioXMap本文方法
1010.000.960.990.561.001.002411.001.001.001.001.001.00
2010.280.760.780.440.640.992461.001.001.001.001.000.97
2020.280.760.780.440.650.702471.001.001.001.001.000.91
2210.340.960.990.561.001.002480.290.740.780.420.680.70
2220.330.000.990.000.671.002490.270.750.790.440.720.70
2230.340.950.990.561.000.972500.830.790.790.790.790.70
2240.340.950.990.561.001.002510.270.000.780.000.450.70
2250.340.960.990.561.000.992520.280.760.790.450.650.70
2281.001.001.001.001.001.002530.270.760.780.440.620.70
2320.340.950.990.561.001.002540.830.790.790.790.790.70
2331.001.001.001.001.001.002570.820.790.790.790.790.70
2361.001.001.001.001.001.002580.280.000.790.000.460.70
2370.330.000.990.000.671.002590.280.750.780.440.710.70
2380.340.960.990.561.000.972610.830.790.790.790.790.70
2391.001.001.001.001.000.972620.830.790.790.790.790.70
2401.001.001.001.001.000.91平均0.560.770.900.610.830.86

表4

本文方法与OAEI中经典方法在Benchmark数据集上的F-measure比较"

案例AMLLogMapLogMapLtLogMapBioXMap本文方法案例AMLLogMapLogMapLtLogMapBioXMap本文方法
1010.000.950.710.520.971.002411.000.920.800.801.001.00
2010.440.850.620.470.760.992461.000.920.800.801.000.95
2020.430.850.620.470.770.822471.000.920.800.801.000.91
2210.510.950.720.520.971.002480.440.820.620.440.790.82
2220.500.000.720.000.781.002490.430.840.800.470.810.82
2230.510.940.720.530.970.972500.910.840.400.710.880.82
2240.510.940.900.530.971.002510.430.000.620.000.610.82
2250.510.950.720.520.970.992520.430.850.620.480.770.82
2281.000.920.480.801.001.002530.430.850.790.470.740.82
2320.510.940.900.530.971.002540.900.820.400.700.880.82
2331.000.920.480.801.001.002570.900.830.700.710.880.82
2361.000.920.800.801.001.002580.440.000.800.000.620.82
2370.500.000.910.000.781.002590.440.840.800.470.810.82
2380.510.950.900.520.970.972610.900.820.400.700.880.81
2391.000.920.480.801.000.952620.900.830.700.710.880.82
2401.000.920.480.801.000.91平均0.660.770.680.540.880.91

图5

与前沿的传感器本体匹配方法在Precision上的比较"

图6

与前沿的传感器本体匹配方法在Recall上的比较"

图7

与前沿的传感器本体匹配方法在F-measure上的比较"

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