Specifications

Issue: 6
Issue date: December 2012
Publication year: 2012
Pages: 89-95
Language: Chinese
ISSN: 10031243
Document type: Journal article (JA)
Publisher: Tsinghua University Press, Beijing, 100084, China
Abstract: This paper designs and develops a component-based hydrological application
integration platform (CHAIP) of flood control to implement standardization of hydrological
information processing and application integration on this platform, avoiding disadvantages of
the existing system, hard to integrate multi-source information and single mode of
representation in flood control. The platform adopts key techniques of component-based coding,
object-oriented language, framework, and three-dimensional simulation. Its architecture consists
of a data layer, a server layer, an application layer and a client layer; different functional models
at the application layer are designed separately with a modularization idea. Application in a case
study of flood control in Shaanxi province shows that the platform is good in extendibility,
three-dimensional performance and real-time application, and very easy to operate. Thus, CHAIP
provides a support to processing, analysis and decision making in flood control with a good
prospect in applications. © copyright.
Number of references: 12
Main heading: Flood control
Controlled terms: Data processing - Floods - Integration - Modular construction
Uncontrolled terms: Application integration - Application layers - Component
based - Data layer - Design and Development - Existing systems - Functional model
- Information integration - ITS architecture - Key techniques - Modularizations -
Multisources - Object-oriented languages - Real-time application - Single mode -
Three dimensional simulations
Classification code: 405.2 Construction Methods - 454.1 Environmental Engineering,
General - 723.2 Data Processing and Image Processing - 914.1 Accidents and Accident
Prevention - 921.2 Calculus
Database: Compendex
Compilation and indexing terms, © 2013 Elsevier Inc.
5.
Accession number: 20130415918174
Title: Effect of growth gas flow rate on the SiC crystal resistivity
Authors: Lin, Shenghuang1 ; Chen, Zhiming1/林生;陈治明
Author affiliation:
1 Department of Electronic Engineering, Xi'An University of Technology, Xi'an 710048, China
Corresponding author: Lin, S. (shenghuanglin@163.com)
Source title: Journal of Materials Research
Abbreviated source title: J Mater Res
Volume: 28
Issue: 1