Applied Mechanics and Materials
Vols. 496-500
Vols. 496-500
Applied Mechanics and Materials
Vols. 494-495
Vols. 494-495
Applied Mechanics and Materials
Vol. 493
Vol. 493
Applied Mechanics and Materials
Vol. 492
Vol. 492
Applied Mechanics and Materials
Vols. 490-491
Vols. 490-491
Applied Mechanics and Materials
Vols. 488-489
Vols. 488-489
Applied Mechanics and Materials
Vol. 487
Vol. 487
Applied Mechanics and Materials
Vol. 486
Vol. 486
Applied Mechanics and Materials
Vols. 484-485
Vols. 484-485
Applied Mechanics and Materials
Vol. 483
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Applied Mechanics and Materials
Vol. 482
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Applied Mechanics and Materials
Vol. 481
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Applied Mechanics and Materials
Vols. 479-480
Vols. 479-480
Applied Mechanics and Materials Vol. 487
Paper Title Page
Abstract: It is the status quo that the data from different earthquake emergency software applications cannot be exchanged and shared. The diverse business applications were constructed and operated in different earthquake departments. The construction scheme of the software framework based on WebService data exchange technology was proposed in this paper. To realize the system integration, several software design patterns, such as the observer pattern and the factory pattern, and the WebService technology was used. The earthquake emergency response system based on this architecture could make use of the data from other heterogeneous systems efficiently and automatically. As a result, the process of the earthquake emergency response and the decision-making would be more cooperative, scientific and comprehensive.
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