11-002-PolarizedLight

<p>In this scenario we look at polarized light. Polarization is a property of light that is not as obvious as color but is, nonetheless, all around us. You can't observe polarized light without some equipment. We will use cheap polarizing filters, like the ones found in polarizing sunglasses or the slide-mounted linear polarizing filter. (The slide-mounted linear polarizing filters are labeled ``Linear Polarized Filter.''). If you're a student your teacher will provide several slide-mounted linear polarizing filters.</p> <p>This unit begins with observations, experiments and explorations -- looking for polarized light and seeing how it is affected by linear polarizing filters. Then we discuss a very rough model, inspired by the blocking model for colored gels, for one way that linear polarizing filters might interact with polarized light. Next, you will be asked to construct a competing model, inspired by the painting model for colored gels, for one way that linear polarizing filters might interact with polarized light. Then you are asked to devise an experiment that will enable you to choose between the two models, carry out that experiment and challenge your chosen model with new experiments and observations. As we discussed earlier, you will be left with more questions than answers and at the end of this unit you will be asked to discuss your questions and how you might go about learning more about polarized light and linear polarizing filters.</p> <p>This unit begins with observations, experiments and explorations -- looking for polarized light and seeing how it is affected by linear polarizing filters. Then we discuss a very rough model, inspired by the blocking model for colored gels, for one way that linear polarizing filters might interact with polarized light. Next, you will be asked to construct a competing model, inspired by the painting model for colored gels, for one way that linear polarizing filters might interact with polarized light. Then you are asked to devise an experiment that will enable you to choose between the two models, carry out that experiment and challenge your chosen model with new experiments and observations. As we discussed earlier, you will be left with more questions than answers and at the end of this unit you will be asked to discuss your questions and how you might go about learning more about polarized light and linear polarizing filters.</p>

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Publication Details

Journal
QUBES
Published
2026-02-05
DOI
https://doi.org/10.25334/vn8v-c608
Primary Topic
Optical Polarization and Ellipsometry
Type
article
Field-Weighted Citation Impact
0.00
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article

11-002-PolarizedLight

Frank Wattenberg
QUBES
Optical Polarization and Ellipsometry
article

11-002-PolarizedLight

Frank Wattenberg
article en

Abstract

<p>In this scenario we look at polarized light. Polarization is a property of light that is not as obvious as color but is, nonetheless, all around us. You can't observe polarized light without some equipment. We will use cheap polarizing filters, like the ones found in polarizing sunglasses or the slide-mounted linear polarizing filter. (The slide-mounted linear polarizing filters are labeled ``Linear Polarized Filter.''). If you're a student your teacher will provide several slide-mounted linear polarizing filters.</p> <p>This unit begins with observations, experiments and explorations -- looking for polarized light and seeing how it is affected by linear polarizing filters. Then we discuss a very rough model, inspired by the blocking model for colored gels, for one way that linear polarizing filters might interact with polarized light. Next, you will be asked to construct a competing model, inspired by the painting model for colored gels, for one way that linear polarizing filters might interact with polarized light. Then you are asked to devise an experiment that will enable you to choose between the two models, carry out that experiment and challenge your chosen model with new experiments and observations. As we discussed earlier, you will be left with more questions than answers and at the end of this unit you will be asked to discuss your questions and how you might go about learning more about polarized light and linear polarizing filters.</p> <p>This unit begins with observations, experiments and explorations -- looking for polarized light and seeing how it is affected by linear polarizing filters. Then we discuss a very rough model, inspired by the blocking model for colored gels, for one way that linear polarizing filters might interact with polarized light. Next, you will be asked to construct a competing model, inspired by the painting model for colored gels, for one way that linear polarizing filters might interact with polarized light. Then you are asked to devise an experiment that will enable you to choose between the two models, carry out that experiment and challenge your chosen model with new experiments and observations. As we discussed earlier, you will be left with more questions than answers and at the end of this unit you will be asked to discuss your questions and how you might go about learning more about polarized light and linear polarizing filters.</p>

QUBES
Military Medical Academy (RS)
Openalex Percentile: Top 66%
Optical Polarization and Ellipsometry
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