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The following
lessons are available online and in print as part of the OCS Weather
Series. Most materials are aimed at the middle school grade level,
but many can be modified by the teacher to be more or less difficult,
as desired. The lessons typically require environmental data and
many can be used with recent or real time data. The lessons contain
a list of prerequisites for the activity, suggested grade levels,
an overview of the lesson content, ideas for the teacher to apply
the lesson, the experiment, and several questions.
Icons are used
to indicate appropriate grade level, subject matter, activity time,
and computer, data, and telecommunications requirements. A list
of the icons used can be found here.
For data interpretation classroom activities go here. |
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| Lessons marked with this icon include data
within the lesson. |
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Meteorological
Variables
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Relative
Humidity & Dew Point
In this activity, relative humidity and dewpoint temperature
are compared to study why one of these variables may be more
useful than the other in weather forecasting. |
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Moisture Advection
The movement of moisture from one location to
another by the wind is an essential process for the development
of clouds in locations separated from large bodies of water. Students
will observe how the moisture changes during a day and make conclusions
regarding why the moisture changed in different parts of Oklahoma. |
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Diurnal Temperature Changes
and Water Vapor Content
In this lesson, students will examine the greenhouse effect, as
they determine how moisture in the air affects the diurnal temperature
range. Their investigation will help them to understand different
climatological regimes of both the Southern Great Plains and the
world. |
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The
Earth-Atmosphere System |
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Sunrise
and Sunset
This activity helps students to use a graph of daily solar
radiation to determine the times of sunrise and sunset.
Students also compare how sunrise, sunset, and the length
of the day changes with latitude and longitude. |
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The
Seasons
If students think that the seasons are caused by Earth being closer to or farther from the sun during certain times of the year, then this activity is a must for any teacher. This activity helps to solidify in the students' minds the reason for the seasons. |
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Length of the Day & the Seasons
As a follow-up to "The Seasons", this lesson requires the student to use solar radiation measurements to determine the season of the year. |
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Clouds |
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Clouds
and Solar Radiation
Most people are aware that clouds impact the amount of solar energy that is received at the ground. This lesson examines qualitative and quantitative aspects of how clouds affect incoming solar radiation. |
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How Do Clouds Affect Radiative Energy?
In this activity, students will calculate the amount of radiative energy reaching the ground on a clear day, a day with cirrus overcast, and a day with significant cumulus convection. Comparisons will be made to begin to determine how clouds affect the solar radiation received at Earth's surface. |
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Mid-Latitude
Weather Systems |
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Air
Masses
The type of air mass that covers an area will impact its weather significantly. In this lesson, students will classify the air masses over Oklahoma by examining the temperature and moisture content of the air across the state. |
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Air
Masses & Fronts
This lesson extends the "Air Masses" activity by examining weather fronts, which are boundaries between two air masses. |
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Warm,
Cold, and Stationary Fronts |
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Cold
Front Characteristics
In this activity, students will study the weather conditions before, during, and after cold front passage. Two cold front examples are provided so that comparisons can be made. |
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Thunderstorms |
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Dryline
Characteristics
The dryline is a significant atmospheric feature in the U.S. Southern Plains,
especially during the spring storm season. In this activity, students will
learn how to recognize the dryline from a set of maps. |
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Thunderstorm
Outflow I
Most students are familiar with the cool gust of air from a thunderstorm before and during rainfall. This region of cool air is the "thunderstorm outflow" and it results from the thunderstorm's downdraft. In this activity, the students will examine how the thunderstorm outflow can be measured by the Oklahoma Mesonet. |
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Climatology |
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The
Accuracy of Climate Data
Sometimes students do not think about how data values are measured and reported. This habit can lead to misinterpretation of the data, at best, influencing a student's grade in class and, at worst, influencing public policy and government spending. This activity reminds students that data are simply measurements, for better or worse, and that a knowledge of how the data were measured and processed is necessary for proper interpretation of the information. |
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