Describe the characteristics, operation, and applications of basic semiconductor devices.
DefinitionDescription should include
- characteristics of basic semiconductor devices
- operation of basic semiconductor devices (used to switch, amplify, and control direction of current flow)
- diode construction techniques
- transistor construction principles
- real-world applications of integrated circuits using diode and transistor elements.
- What are the electrical characteristics of semiconductor components?
- What are the advantages and disadvantages of semiconductor devices?
- How do the components operate, and what are their applications?
- How are differences in reverse current (IR), peak inverse voltage (PIV), maximum forward current (IF Max), and reverse voltage important when selecting a replacement diode?
- What is implied by different values of forward voltage drop (EF) in diodes?
- How are forward bias and reverse bias similar/different?
- What is the relationship between the depletion region, barrier voltage, and biasing voltage?
- What is the difference between peak-reverse voltage and peak-inverse voltage (PIV)?
- How are collector, emitter, and base similar/different to source, gate, and drain?
- What is the difference between depletion and enhancement mode metal-oxide-semiconductor field-effect transistor (MOSFETs)?
Related Standards of Learning
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- examples from the real world; and
- exploration of the roles and contributions of science and technology.
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- wave properties of matter;
- matter/energy equivalence;
- quantum mechanics and uncertainty;
- nuclear physics;
- solid state physics;
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