Atmospheric Interactions with Complex Terrain

大气与复杂地形的相互作用

• 批准号: RGPIN-2017-05784
• 负责人: Jackson, Peter
• 金额: $ 2.84万
• 依托单位: University of Northern British Columbia
• 依托单位国家: 加拿大
• 项目类别: Discovery Grants Program - Individual
• 财政年份: 2022
• 资助国家: 加拿大
• 起止时间: 2022-01-01 至 2023-12-31
• 项目状态: 已结题
• 来源: https://www.nserc-crsng.gc.ca/ase-oro/Details-Detailles_eng.asp?id=753251
• 关键词: Atmospheric; Interactions; Complex; Terrain

I am a meteorologist who studies the interaction between the atmosphere and complex terrain such as mountains, valleys and coastlines. I am interested in the fundamental dynamical and climatological interactions, as well as environmental applications of this work such as the movement of airborne biota and the transport of air pollutants. This proposal is to continue and extend current work on the following themes: Airflow Dynamics to assess offshore wind power production potential along Canada's west coast (with PhD student Bakri) using synthetic aperture radar (SAR) data, buoys and models. Air Quality to determine the contribution of air pollution sources to the air we breathe in a multi-pronged approach. Working with PhD student Tereshchak, we will test recently developed low-cost continuous air quality sensors in Canadian field conditions and integrate these into a multi-pollutant mobile monitoring platform that will be deployed at multiple fixed locations as well as on a vehicle and an Unmanned Aerial Vehicle to map air quality across an area. Using state-of-the-art air quality models, with PhD student Onwukwe, we will work to understand current and future threats to air quality in northwest BC due to future development of the Liquified Natural Gas industry. With PhD student Islam, using satellite remote sensing of methane and a global chemical transport model, we will obtain an independent top-down estimate of methane emissions from the oil and gas development regions of western Canada. As methane is an important and potent greenhouse gas, this will contribute to understanding Canada's greenhouse gas emissions and to meeting the targeted 40-45% reductions in the gas, arising from the recent Canada-US agreement. Movement of Aerial Biota by the Wind to predict the movement of Mountain Pine Beetles from one year to the next by understanding the meteorology that controls when they emerge and the winds that carry them (with collaborator Chen). This will result in a model to predict the movement of the epidemic from one year to the next. Meteorological Drivers of Glacier Mass Balance to understand how winter snow and its transformation and redistribution acts to nourish glaciers in the Columbia basin (with co-supervised PhD student Mortezapour and collaborator Menounos). This will contribute to modelling the fate of alpine glaciers due to a changing climate.

我是一名气象学家，研究大气与山脉、山谷和海岸线等复杂地形之间的相互作用。我对这项工作的基本动力学和气候学相互作用以及环境应用感兴趣，例如空气中生物群的移动和空气污染物的传输。这项提议将继续和扩展目前在以下主题上的工作：空气流动动力学，以评估加拿大西海岸的海上风力发电潜力(与博士生Bakri一起)，使用合成孔径雷达(SAR)数据、浮标和模型。通过多管齐下的方法来确定空气污染源对我们呼吸的空气的贡献。我们将与博士生Tereshchak合作，在加拿大的野外条件下测试最近开发的低成本连续空气质量传感器，并将这些传感器集成到一个多污染物移动监测平台中，该平台将部署在多个固定地点以及车辆和无人机上，以绘制整个地区的空气质量地图。使用最先进的空气质量模型，与博士生Onwukwe一起，我们将致力于了解由于液化天然气行业的未来发展而对卑诗省西北部空气质量的当前和未来威胁。与博士生伊斯拉姆一起，使用甲烷卫星遥感和全球化学运输模型，我们将获得加拿大西部石油和天然气开发区甲烷排放量的独立自上而下估计。由于甲烷是一种重要且强有力的温室气体，这将有助于了解加拿大的温室气体排放，并实现最近加拿大-美国协议规定的减少40%-45%的目标。通过了解控制山松甲虫出现时间和携带它们的风的气象学，预测山松甲虫从一年到下一年的移动(与陈合作者)。这将产生一个模型来预测疫情从一年到下一年的移动。冰川质量平衡的气象驱动因素，以了解冬季积雪及其转化和重新分配如何滋养哥伦比亚盆地的冰川(与共同指导的博士生Mortezapour和合作者Menounos)。这将有助于模拟由于气候变化而导致的高山冰川的命运。