2006
DOI: 10.1177/0361198106197600101
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Integration of Information and Automation Technologies in Bridge Engineering and Management

Abstract: The current U.S. practice of information transfer during the bridge design, fabrication, construction, and operation processes is fragmented. These processes involve repeated manual transcription of data, which is error prone; approvals (e.g., of shop drawings) that are time-consuming; and formats that beg for standardization to facilitate electronic information transfer. Without such standards, electronic information exchange is impossible. This paper surveys the shortcomings of current piecemeal applications… Show more

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Cited by 26 publications
(9 citation statements)
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“…Chen and Shirolé [17] specified the benefits of using 3D bridge information modelling compared to traditional 2D drafting. These benefits include the fact that tedious time-consuming error-prone manual data re-entry can be avoided, and all product information is located within the same file for easier information sharing during the whole lifecycle of the project.…”
Section: Bim Adoption For Bridge Projectsmentioning
confidence: 99%
“…Chen and Shirolé [17] specified the benefits of using 3D bridge information modelling compared to traditional 2D drafting. These benefits include the fact that tedious time-consuming error-prone manual data re-entry can be avoided, and all product information is located within the same file for easier information sharing during the whole lifecycle of the project.…”
Section: Bim Adoption For Bridge Projectsmentioning
confidence: 99%
“…Data analysis is the processing of data using analysis routines-analytics that produce output-results in terms of reports or summaries to help managers make balanced and well-supported bridge management decisions. As indicated earlier, there are four main phases in the life cycle of a bridge: design, construction, operations (e.g., load rating, permitting, and routing), and bridge program management (e.g., planning, programming, and implementing of maintenance and repair, rehabilitation, and replacement activities) (3)(4)(5)(6). Current BMSs contain mainly the bridge inventory data-information describing the bridge and bridge inspection data-information describing bridge condition.…”
Section: Components Of Bridge Management Systemsmentioning
confidence: 99%
“…The bridge industry is poised to do the same. Recent emergence of a "cradle-to-grave" integrated and holistic approach through BrIM has opened up new horizons for the future of bridge management (3)(4)(5)(6). BrIM adapts advances in automation and communications technologies and deploys them to accommodate integrated management of all phases of the bridge life cycle using a centralized (or distributed and linked together for electronic data transfer) data pool.…”
Section: Integrated Bridge Life-cycle Managementmentioning
confidence: 99%
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“…BIM is widely becoming a competent tool in the construction industry and it's applied to the entire life cycle of buildings [8,9,[10][11][12]. BIM is not only just a geometrical representation of a building but also an intelligent virtual 3D model of the building as it contains all information about every component for its whole life cycle [13,14,15].…”
Section: Bim Application For Bridge -Highway and Infrastructure Projectsmentioning
confidence: 99%