Sensor Web service integration for pandemic disease spread simulation

Genong Yu, L. Di, J. Smith, Bei Zhang, Peichuan Li, Hulin Wang, Min Min
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引用次数: 5

Abstract

Pandemic diseases, such as avian influenza, can be deadly and disastrous although they do not happen frequently. Simulation is called for to control the spread of such diseases in preparing for the outbreaks. The spread of pandemic diseases can be affected by many factors, including virus vectors (such as migratory birds), climatic changes, and environment en route of virus vector migration. Many datasets and observations need to be assimilated into the simulation systems. The data and observations can be grouped into three types, i.e. satellite remotely sensed observations, in-situ data, and simulated model outputs. Satellite observations provide a timely large-scale coverage of environment changes and weather conditions. In situ data gives detailed ecological observations of birds at different stations and sites for simulation model construction and validation. Global climate models provide predictions of climate/weather changes, especially useful for filling the gaps when actual observations are not available. In this study, the Self-adaptive Earth Predictive System (SEPS), a general framework of Sensor Web service coordination and integration, was used as the basic framework to develop the observation and data assimilation services for the simulation of avian influenza. With the framework, these three types of data and observations are served through three different Web services. Remotely sensed observations are served through either Sensor Observation Service or Web Coverage Service. Climate models and simulation models are wrapped as Web Processing Services. In-situ bird observations are extracted online and populated as Web Feature Services. The integration of these services is managed using the central piece of SEPS, Coordinate and Event Notification Service (CENS). Internally, a Business Process Execution Language (BPEL) engine is used to actually execute the service integration.
用于流行病传播模拟的传感器Web服务集成
大流行性疾病,如禽流感,虽然不经常发生,但可能是致命和灾难性的。在为疫情爆发做准备时,需要进行模拟以控制这类疾病的传播。大流行性疾病的传播可受到许多因素的影响,包括病毒载体(如候鸟)、气候变化和病毒载体迁移途中的环境。许多数据集和观测需要被吸收到模拟系统中。数据和观测可分为三类,即卫星遥感观测、原位数据和模拟模式输出。卫星观测提供了对环境变化和天气状况的及时、大范围的覆盖。实地数据提供了鸟类在不同站点和地点的详细生态观测,用于模拟模型的构建和验证。全球气候模式提供气候/天气变化的预测,在没有实际观测资料时特别有用。本研究以自适应地球预测系统(Self-adaptive Earth Predictive System, SEPS)这一传感器Web服务协调与集成的通用框架为基础框架,开发了模拟禽流感的观测和数据同化服务。使用该框架,这三种类型的数据和观察结果通过三个不同的Web服务提供。遥感观测通过传感器观测服务或网络覆盖服务提供。气候模型和模拟模型被包装为Web处理服务。在线提取现场鸟类观测数据,并将其填充为Web Feature Services。这些服务的集成使用SEPS的中心部分,协调和事件通知服务(CENS)进行管理。在内部,使用业务流程执行语言(BPEL)引擎实际执行服务集成。
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