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Objective: To identify whether positive, negative, or zero work is being done, to identify the force that is doing the work, and to describe the energy transformation associated with such work.
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Interpret graphs to identify basic relationships between object distance and image distance or image height.
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Use a pattern or a value from one graph to reason towards a conclusion when incorporating it with the other graph.
What affect does the object location have upon the characteristics of the images formed by concave mirrors?
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Use the relationships modeled by the graph to make predictions regarding relative image distances and image heights.
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Object-Image Relationships
Two physics students are conducting an investigation on how the characteristics of the images formed by a concave mirror depend upon the object’s distance from the mirror. They acquire a small concave mirror with a 20.0-cm focal length (f) and mount it on a lab bench. They place a 4.0-cm high light bulb at varying distances from the mirror and project the image of the light bulb onto a note card. They measure the object distance (do) to the mirror, the image distance (di) to the mirror, and the image height (hi). Figure 1 and Figure 2 show a representation of their data.
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Physics-Interactives/Static-Electricity/
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Object-Image Relationships
Two physics students are conducting an investigation on how the characteristics of the images formed by a concave mirror depend upon the object’s distance from the mirror. They acquire a small concave mirror with a 20.0-cm focal length (f) and mount it on a lab bench. They place a 4.0-cm high light bulb at varying distances from the mirror and project the image of the light bulb onto a note card. They measure the object distance (do) to the mirror, the image distance (di) to the mirror, and the image height (hi). Figure 1 and Figure 2 show a representation of their data.