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TABLE OF CONTENTS - Lindbergh School District

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Strand 6: Composition and Structure of the Universe and the Motion of the Objects within It<br />

2. Regular and predictable motions of objects in the universe can be described and explained<br />

as the result of gravitational forces<br />

Major Objectives IS Suggested Activities<br />

These samples activities offer ideas and are<br />

not meant to limit teacher or student<br />

Concept A: The positions of the Sun and other<br />

stars, as seen from Earth, appear to change in<br />

observable patterns<br />

Scope and Sequence – Objects and their Motion<br />

in the Solar System<br />

resourcefulness.<br />

Suggested Assessments<br />

These samples assessments offer ideas and are<br />

not meant to limit teacher or student<br />

resourcefulness<br />

a. Relate the apparent east-to-west changes in<br />

the positions of the Sun, other stars, and<br />

planets in the sky over the course of a day to<br />

Earth’s counterclockwise rotation about its<br />

axis<br />

T<br />

a. Students will use a planetarium program<br />

to demonstrate the apparent movement of<br />

the stars across the night sky. They will<br />

compare this movement with the apparent<br />

movement of the sun across the day sky.<br />

(1.4; 1.6)<br />

a. Students will predict the motion of the<br />

Sun/stars and planets from their current<br />

positions in the might sky to what they<br />

might expect to see in the next few hours<br />

or days.<br />

b. Describe the pattern that can be observed in<br />

the changes in number of hours of visible<br />

sunlight, and the time and location of sunrise<br />

and sunset, throughout the year<br />

T<br />

b. Students will use technology (Internet,<br />

software such as GeoClock) to<br />

demonstrate the apparent movement of the<br />

sun from northern hemisphere to southern<br />

hemisphere and back. (1.4; 1.6)<br />

b. Students will track the sun across the sky<br />

for several weeks and plot the sun’s<br />

position at the same time each day.<br />

c. Recognize that in the Northern Hemisphere,<br />

the Sun appears lower in the sky during the<br />

winter and higher in the sky during the<br />

summer<br />

c. Students will model the position of the sun<br />

relative to points on the globe using a<br />

classroom globe and flashlight. (1.5; 1;8;<br />

3.5)<br />

c. Students will explain why the sun is never<br />

directly overhead at any time of the year<br />

in Missouri.<br />

d. Recognize that in winter, the Sun appears to<br />

rise in the Southeast and set in the Southwest,<br />

accounting for a relatively short day length,<br />

and that in summer, the Sun appears to rise in<br />

the Northeast and set in the Northwest,<br />

accounting for a relatively long day length<br />

d. Students will model the position of the sun<br />

relative to points on the globe using a<br />

classroom globe and flashlight. (1.5; 1;8;<br />

3.5)<br />

d. Students will describe the meaning of the<br />

Arctic/Antarctic circles and the tropics of<br />

Cancer/Capricorn on a globe.<br />

e. Recognize that the Sun is never directly<br />

overhead when observed from North America<br />

e. Students will model the position of the sun<br />

relative to points on the globe using a<br />

classroom globe and flashlight. (1.5; 1;8;<br />

e. Students will explain the significance of<br />

the Solstice and the Equinox. Relate these<br />

to the apparent motion of the Sun.<br />

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