Student Research Reports
An Analysis of Autumn Cloud, Land, and Water Measurements at a Campus in Southeastern Michigan
Organization(s):Crestwood High School
            Country:United States of America
            Student(s):Fadl El Fadl, Elissa Hadla, Renee Harp
            Grade Level:Secondary School (grades 9-12, ages 14-18)
            
            
                GLOBE Educator(s):Diana Rae Johns
            
            Contributors:
            Report Type(s):International Virtual Science Symposium Report
            Protocols:Air Temperature, Barometric Pressure, Clouds, Relative Humidity, Surface Temperature, Water Temperature
                    
                        Presentation Poster:
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                Language(s):English
            
            
                Date Submitted:2025-03-05
            
        
            In this research, the researchers examined the relationship between surface temperature, water
temperature, cloud coverage, and other atmospheric parameters in Dearborn Heights,
Michigan. Researchers collected daily surface temperature measurements at two school
3 campus sites using an infrared thermometer. In addition, water temperature was recorded in
a courtyard pond using a Vernier temperature probe. Furthermore, parameters such as air
temperature, barometric air pressure, and humidity were gathered using the WeatherBug app.
Over 74 days, trends indicated a steady decrease in surface and water temperatures as the season shifted from late summer to winter. Surface temperature and water temperature showed a direct correlation with water cooling at a slower rate due to its higher heat capacity. A strong
relationship was also found between surface temperature and ambient air temperature.
However, no significant correlation was observed between cloud coverage and surface
temperature, suggesting other environmental factors play a more dominant role in comparing
these parameters. Humidity and cloud coverage demonstrated a complex relationship, with high
cloud coverage generally corresponding to increased humidity, but varying patterns when cloud
coverage was low. Potential errors in data collection included environmental variability, sensor
placement, and occasional gaps in daily measurements. This data leads to understanding seasonal climate variations on a local scale and highlights the need for further research to refine methods and expand study periods. The researchers suggest to add more parameters such as UV, particulate matter, or wind speed in order to fully capture the capacity of the changing environment.