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| # Personal info | ||
| name: Christopher Rodell | ||
| title: Ph.D. Canidate in Atmospheric Science | ||
| title: Ph.D. Candidate in Atmospheric Science | ||
| email: [email protected] | ||
| # website: https://github.com/cerodell | ||
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| layout: list # Type of content section (list/text) | ||
| content: | ||
| - layout: top-middle | ||
| - title: University of British Columbia Vancouver | ||
| title: University of British Columbia Vancouver | ||
| caption: 2019 - Present <br> <b><i>David Bates Scholarship 2019 <br> W.H. Mathews Scholarship 2020 <br> 7th International Fire Behavior and Fuels Conference Scholarship 2024 </i></b> | ||
| sub_title: Ph.D. Atmospheric Sciences | ||
| caption: 2019 - Present | ||
| description: > | ||
| - David Bates Scholarship 2019 | ||
| - W.H. Mathews Scholarship 2020 | ||
| - 7th International Fire Behavior and Fuels Conference Scholarship 2024 | ||
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| - layout: top-middle | ||
| title: University of Colorado Boulder | ||
| caption: 2017 - 2018 <br> 2008 - 2013 <br> <b><i>Dean’s list Fall 2017/Spring 2018 <br> Undergraduate Research Fellow; Characterizing Thunderstorm <br> Outflow Boundaries in Complex Terrain</i></b> | ||
| sub_title: B.A. Atmospheric and Oceanic Sciences <br> B.A. Physical Geography | ||
| # quote: > | ||
| # description: | # this will include new lines to allow paragraphs | ||
| # Research Assistant in the Department of Earth, Ocean and Atmospheric Sciences | ||
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| - layout: top-middle | ||
| title: Pennsylvania State University | ||
| caption: 2015 -2016 | ||
| sub_title: Certificate in Weather Forecasting | ||
| # quote: > | ||
| # description: | # this will include new lines to allow paragraphs | ||
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| - title: Research Experience # Title for the section | ||
| layout: list # Type of content section (list/text) | ||
| content: | ||
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| sub_title: Graduate Research Assistant | ||
| caption: 2019 - Present | ||
| # quote: > | ||
| description: | | ||
| - Developing a Numerical Weather Prediction derived Fire Weather Forecast Model to assess the moisture content within varied layers of the forest fuels (vegetation) for daily use by operational wildland firefighters. | ||
| - This hourly forest fuel moisture forecast is being integrated into a fire growth and fuel emissions model to aid in smoke forecast predictions in the Bluesky Canada smoke forecast system. | ||
| - A webpage was created for displaying the Fire Weather Forecast products, associated meteorology, and current wildfire locations on a zoomable map with popup point forecast functionality. For more information, visit the Fire Weather Forecast website. | ||
| - Constructed low-cost, in situ instruments to observe and profile the vertical concentration of PM2.5 in wildfire smoke plumes. These disposable Particulate Matter Sensors, calibrated against an industry-standard GRIMM OPC, provide a low-cost way to collect data to better understand wildfire smoke dynamics and forecasting. The sensors, built with off-the-shelf components, cost approximately $100 to build. For more information, visit the Fire Sensors website. | ||
| - Co-creator and Instructor (with Dr. Stull) of a new fourth-year Synoptic Fire Weather Forecasting Course, which includes the following topics: | ||
| - Analyze and interpret weather-observation data, | ||
| - Interpret numerical weather prediction models, | ||
| - Apply meteorological principles to fire behavior, | ||
| - Compare alternative fire spread/danger outcomes given weather forecast uncertainty, | ||
| - Develop fire response plan of the day materials (as if they were professional fire-weather forecasters). | ||
| - Each Friday, a graduate or fourth-year undergraduate student in the Atmospheric Science Department is required to do a weekend weather forecast. I am considered the Graduate Student Subject Matter Expert and assist the student in developing their one-hour forecast. | ||
| - Teacher Assistant for Dr. Stull's Weather Instruments Course | ||
| - Assist with developing grant proposals that fund various research projects within the department. | ||
| - Notable Coursework: | ||
| - Data Analysis in Atmospheric, Earth, and Ocean Sciences | ||
| - Boundary-Layer Meteorology | ||
| - Numerical Weather Prediction (NWP) | ||
| - Numerical Techniques for Ocean, Atmosphere, and Earth Scientists | ||
| description: | | ||
| - Developing a Numerical Weather Prediction derived Fire Weather Forecast Model to assess the moisture content within varied layers of the forest fuels (vegetation) for daily use by operational wildland firefighters. | ||
| - This hourly forest fuel moisture forecast is being integrated into a fire growth and fuel emissions model to aid in smoke forecast predictions in the Bluesky Canada smoke forecast system. | ||
| - A webpage was created for displaying the Fire Weather Forecast products, associated meteorology, and current wildfire locations on a zoomable map with popup point forecast functionality. For more information, visit the Fire Weather Forecast website. | ||
| - Constructed low-cost, in situ instruments to observe and profile the vertical concentration of PM2.5 in wildfire smoke plumes. These disposable Particulate Matter Sensors, calibrated against an industry-standard GRIMM OPC, provide a low-cost way to collect data to better understand wildfire smoke dynamics and forecasting. The sensors, built with off-the-shelf components, cost approximately $100 to build. For more information, visit the Fire Sensors website. | ||
| - Co-creator and Instructor (with Dr. Stull) of a new fourth-year Synoptic Fire Weather Forecasting Course, which includes the following topics: | ||
| - Analyze and interpret weather-observation data, | ||
| - Interpret numerical weather prediction models, | ||
| - Apply meteorological principles to fire behavior, | ||
| - Compare alternative fire spread/danger outcomes given weather forecast uncertainty, | ||
| - Develop fire response plan of the day materials (as if they were professional fire-weather forecasters). | ||
| - Each Friday, a graduate or fourth-year undergraduate student in the Atmospheric Science Department is required to do a weekend weather forecast. I am considered the Graduate Student Subject Matter Expert and assist the student in developing their one-hour forecast. | ||
| - Teacher Assistant for Dr. Stull's Weather Instruments Course | ||
| - Assist with developing grant proposals that fund various research projects within the department. | ||
| - Notable Coursework: | ||
| - Data Analysis in Atmospheric, Earth, and Ocean Sciences | ||
| - Boundary-Layer Meteorology | ||
| - Numerical Weather Prediction (NWP) | ||
| - Numerical Techniques for Ocean, Atmosphere, and Earth Scientists | ||
| - layout: left | ||
| title: University of Colorado | ||
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| caption: Sept. 2017 - Feb. 2019 | ||
| # quote: > | ||
| description: | # this will include new lines to allow paragraphs | ||
| - Assisting Dr. Katja Friedrich and Nicholas Luchetti (Ph.D. student) in evaluating thunderstorm outflow boundaries in WRF-Fire. | ||
| - My tasks included detecting and analyzing 26 observed outflow boundaries in the Colorado Front Range to validate WRF’s ability to accurately model gust fronts. | ||
| - Analyzed the characteristics of each individual outflow boundary using a variety of remote sensing and in-situ instruments. | ||
| Depth, length, propagation speed/direction, temperature/pressure change, turbulence, and maximum velocity throughout the boundary layer were quantified and categorized depending on the thunderstorm type, terrain, and ambient atmospheric conditions. | ||
| - <a target="_blank" href="http://clouds.colorado.edu/fire/">For more information</a> | ||
| - Assisted Dr. Katja Friedrich and Nicholas Luchetti (Ph.D. student) in evaluating thunderstorm outflow boundaries in WRF-Fire. | ||
| - Tasks included | ||
| - Detecting and analyzing 26 observed outflow boundaries in the Colorado Front Range to validate WRF's ability to accurately model gust fronts. | ||
| - Analyzing the characteristics of each individual outflow boundary using a variety of remote sensing and in-situ instruments. Depth, length, propagation speed/direction, temperature/pressure change, turbulence, and maximum velocity throughout the boundary layer was quantified and categorized depending on the thunderstorm type, terrain, and ambient atmospheric conditions. | ||
| - <a target="_blank" href="http://clouds.colorado.edu/fire/">For more information</a> | ||
| - Notable Coursework: | ||
| - Scientific Computing in Atmospheric Science | ||
| - Atmospheric Radiative Transfer and Remote Sensing | ||
| - Atmospheric Dynamics | ||
| - Numerical Methods and Modeling in Atmospheric Science | ||
| - Atmospheric Dynamics | ||
| - Atmospheric Physics | ||
| - Synoptic Meteorology | ||
| - Applied Mathematics (Differential and Partial Differential Equations) | ||
| - title: Professional Experience # Title for the section | ||
| layout: list # Type of content section (list/text) | ||
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