Semantic web-based BIM model integrity checking approach for power grid projects

doi:10.11996/JG.j.2095-302X.2023051021

Abstract

Abstract:

Ensuring a balance between information supply and information demand among all stakeholders at each project stage is crucial for harnessing the full potential of building information modeling technology in project life cycle management. While many standards have been established at national, local, and corporate levels to standardize delivery requirements, there remains a lack of efficient model integrity checking approach to facilitate participants to deliver project information in a timely and effective manner. Currently, the conventional means of checking model information for each stage of delivery was manual and machine hard-coded. However, they suffered from high labor costs, missed judgments, and limited flexibility for updates. Considering the technical advantages and applications of the semantic web concept and related technologies in knowledge organization and management, and combining the results of existing digital delivery standards for power grid engineering, a semantic web-based BIM model integrity checking approach was proposed. It was composed of three parts: 1) establishing integrity checking ontology and model to-be-checked ontology using SKOS; 2) instantiating knowledge in the delivery standard and actual model information to the knowledge graph; 3) correlating the two through specific relationships and automating integrity checking on this basis through SPARQL. Finally, the validity of this method was demonstrated through case studies, showcasing its applicability in engineering project delivery integrity checking in other fields.

Key words: building information model, model integrity checking, semantic web, industry foundation classes, building information model delivery standard

CLC Number:

TP399

PAN Ze-yu, SHI Jian-yong, JIANG Liu. Semantic web-based BIM model integrity checking approach for power grid projects[J]. Journal of Graphics, 2023, 44(5): 1021-1033.

Figures/Tables 21

References 23

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编码	类型关键字	类别中文	系统分级	类别英文
10-10	TSE	变电站工程	1	Transformer substation engineering
10-10.10	EEG	电气工程	2	Electrical engineering
10-10.10.10	PEL	电气一次	3	Primary electrical engineering
10-10.10.10.10	PEE	一次设备	4	Primary electrical equipment
10-10.10.10.10.01	MTF	变压器	5	Transformer
10-10.10.10.10.01.10	MT	主变压器	6	Main transformer
10-10.10.10.10.01.20	ST	站用变压器	6	Station transformer

编码	类型关键字	类别中文	系统分级	类别英文
10-10	TSE	变电站工程	1	Transformer substation engineering
10-10.10	EEG	电气工程	2	Electrical engineering
10-10.10.10	PEL	电气一次	3	Primary electrical engineering
10-10.10.10.10	PEE	一次设备	4	Primary electrical equipment
10-10.10.10.10.01	MTF	变压器	5	Transformer
10-10.10.10.10.01.10	MT	主变压器	6	Main transformer
10-10.10.10.10.01.20	ST	站用变压器	6	Station transformer

属性需求分组	属性需求	度量类型	度量单位	允许枚举值	必填与否	应录入阶段
设备参数	型号	文本型	-	-	是	施竣
设备参数	相数	列表型	-	单相三相	是	初施竣
设备参数	高压侧额定电压	文本型	kV	-	是	初施竣
设备参数	交流/直流	列表型	-	AC DC	是	初施竣
设备参数	类型	列表型	-	MT ST	是	初施竣
设备参数	声压级	文本型	dB	-	是	初施竣
设备参数	重量	实数型	吨	-	是	施竣

属性需求分组	属性需求	度量类型	度量单位	允许枚举值	必填与否	应录入阶段
设备参数	型号	文本型	-	-	是	施竣
设备参数	相数	列表型	-	单相三相	是	初施竣
设备参数	高压侧额定电压	文本型	kV	-	是	初施竣
设备参数	交流/直流	列表型	-	AC DC	是	初施竣
设备参数	类型	列表型	-	MT ST	是	初施竣
设备参数	声压级	文本型	dB	-	是	初施竣
设备参数	重量	实数型	吨	-	是	施竣

顺序	接地电阻
顺序	命名组分标签	含义
1	类别关键字	GRT
2	电压等级(kV)	电压等级代码
3	设备型号	采用生产厂家型号，型号中所有“_”“/”均采用“-”替代
4	生产厂家	采用设备供应商名称的英文字母大写缩写(不大于4位字母)
示例
接地电阻_35 kV_设备型号_上海思源
GRT_V30_(设备型号英文字母)_SHSY