| 1.
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Describe the electrical nature of matter. (I, IV)
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| 2.
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Describe the basic concepts of electric and magnetic fields. (II, IV)
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| 3.
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Compute such electric field characteristics as field strength,
potential energy, and potential difference. (II)
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| 4.
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Measure simple direct current circuit characteristics. (III)
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| 5.
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Demonstrate the hand rules of magnetic fields and forces. (IV)
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| 6.
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Identify the conditions which produce electromagnetic induction. (V)
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| 7.
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Differentiate between the effects of capacitive and inductive
reactance in an alternating circuit. (VI, VII)
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| 8.
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Differentiate between transverse and longitudinal waves. (VIII)
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| 9.
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Use the principles of refraction and reflection to predict the
direction of light. (VIII, IX)
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| 10.
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Apply the properties of lenses and mirrors to explain the action of
telescopes and microscopes in the control of light. (IX)
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| 11.
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Describe the action of wave superposition in the phenomena of light
interference and diffraction. (X)
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| 12.
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Explain the role of the particle and wave models of light to describe
common light phenomena. (X, XII)
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| 13.
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Describe the results of measurements of time, space, and mass under
relativistic conditions. (XI)
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| 14.
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Describe the significance of the Bohr atom in the development of
atomic models. (XIII)
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| 15.
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Identify the nuclear processes of radioactivity, fission, and fusion
and their application in modern society. (XIV)
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