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加强近岸沿海水域的水文流行病学建模,通过源接收连接性研究

Man Yue Lam¹, Reza Ahmadian¹

¹School Of Engineering, Cardiff University, Cardiff, Uk.

Environmental pollution (Barking, Essex : 1987)

|February 1, 2024

概括

这项研究表明,包括水密度和两相衰变模型在内,可以显著改善预测沿海水域便指标生物 (FIO) 运输的情况. 连接测试有效地确定了影响游泳水域的FIO来源.

科学领域:

环境科学环境科学
水质建模水质建模
公共卫生公共卫生

背景情况:

沿海水域的体指标生物 (FIO) 构成公共卫生风险和经济挑战.
精确的FIO运输和腐蚀建模对于管理水质至关重要.

研究的目的:

提高FIO运输和衰变过程的建模.
通过来源分配来确定影响敏感沿海受体的主要FIO来源.
调查风,密度和微生物衰变模型对FIO运输的影响.

主要方法:

在英国斯旺西湾进行了一项三维数值源接收器连接性研究.
模型模拟与微生物追踪剂现场研究进行了比较.
控制系统理论中的冲动响应函数 (IRF) 首次在FIO浴水建模中应用.

主要成果:

经常被忽视的水密度效应对于准确建模近岸FIO运输至关重要.
双相衰变模型表明,测量和建模的微生物度之间有更好的一致性.
通过IRF方法,成功地预测了FIO度,并验证了源识别的连接测试.

结论:

结合密度效应和两相衰变模型可以提高水-流行病学建模的准确性.
连接性研究是识别沿海环境中关键FIO来源的有效工具.
这些发现有利于水质建模者,监管机构和资源管理者.

关键词:

便指标生物便指标生物冲动响应功能是指冲动响应的功能.微生物衰变模型的模型源接收器连接的连接方式斯旺西湾是斯旺西湾的一个.水质建模水质建模

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