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This deck focuses on Periodic Waves, giving you a quick way to review the definitions, rules, and examples that matter most for AP Physics 2.
Study Periodic Waves in AP Physics 2 with focused flashcards that help you recognize the idea, recall the key rule, and apply it in practice-style prompts.
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What is the unit of wave speed?
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Meters per second (m/s). Standard SI unit for velocity measurements.
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This deck focuses on Periodic Waves, giving you a quick way to review the definitions, rules, and examples that matter most for AP Physics 2.
Work through these flashcards in short sessions. Try to answer each prompt before flipping the card, then revisit any cards you miss until the explanation feels automatic.
Answer: Meters per second (m/s). Standard SI unit for velocity measurements.
Answer: T=f1. Period is the reciprocal of frequency.
Answer: f=T1. Frequency is the reciprocal of period.
Answer: ν=5 m. Using λ=fv=210=5 m.
Answer: The maximum displacement from the equilibrium position. Amplitude measures the strength of oscillation.
Answer: ν=5 m. Using λ=fv=420=5 m.
Answer: I=AP. Intensity is power per unit area.
Answer: Waves add their amplitudes when they overlap. Fundamental principle of wave interference.
Answer: f=4 Hz. Using f=T1=0.251=4 Hz.
Answer: Number of cycles per second. Measures how often the wave pattern repeats.
Answer: Wave with oscillations parallel to wave direction. Particle motion is along the direction of wave travel.
Answer: Intensity is proportional to amplitude squared. Energy carried by wave depends on amplitude squared.
Answer: When two waves meet and their amplitudes add up. Waves combine to create larger amplitude.
Answer: Waves cancel each other out, reducing amplitude. Occurs when waves are out of phase.
Answer: P=I×A. Power equals intensity times area.
Answer: Frequency is halved, assuming constant speed. From v=fλ, if λ doubles and v constant, f halves.
Answer: When two waves meet and their amplitudes add up. Waves combine to create larger amplitude.
Answer: Meters (m). Amplitude is a distance measurement.
Answer: Approximately 343 m/s. Standard reference value for sound wave calculations.
Answer: They are reciprocals: T=f1. Frequency and period are inverse quantities.
Answer: Wave with oscillations parallel to wave direction. Particle motion is along the direction of wave travel.
Answer: The distance between consecutive crests or troughs. One complete cycle of the wave pattern.
Answer: f=2 Hz. Using f=T1=0.51=2 Hz.
Answer: f=4 Hz. Using f=T1=0.251=4 Hz.
Answer: Change in frequency due to relative motion of source and observer. Apparent frequency shift due to motion.
Answer: Wave with oscillations perpendicular to wave direction. Particle motion is at right angles to wave propagation.
Answer: Meters (m). Standard SI unit for distance measurements.
Answer: P=I×A. Power equals intensity times area.
Answer: v=15 m/s. Using v=f×λ=5×3=15 m/s.
Answer: T=4 s. Using T=f1=0.251=4 s.
Answer: Hertz (Hz). Named after Heinrich Hertz, represents cycles per second.
Answer: The maximum displacement from the equilibrium position. Amplitude measures the strength of oscillation.
Answer: v=6 m/s. Using v=f×λ=3×2=6 m/s.
Answer: A point of maximum amplitude in a standing wave. Location of constructive interference in standing waves.
Answer: Multiples of 2π radians. Waves are in phase for maximum reinforcement.
Answer: I=AP. Intensity is power per unit area.
Answer: A point of zero amplitude. Location of destructive interference in standing waves.
Answer: They are reciprocals: T=f1. Frequency and period are inverse quantities.
Answer: T=0.2 s. Using T=f1=51=0.2 s.
Answer: Intensity is proportional to amplitude squared. Energy carried by wave depends on amplitude squared.
Answer: Meters (m). Standard SI unit for distance measurements.
Answer: T=f1. Period is the reciprocal of frequency.
Answer: f=2 Hz. Using f=T1=0.51=2 Hz.
Answer: Odd multiples of π radians. Waves are out of phase for cancellation.
Answer: Meters per second (m/s). Standard SI unit for velocity measurements.
Answer: Wave with oscillations perpendicular to wave direction. Particle motion is at right angles to wave propagation.
Answer: A surface over which an oscillation has a constant phase. Represents points of equal phase in wave propagation.
Answer: Approximately 343 m/s. Standard reference value for sound wave calculations.
Answer: Multiples of 2π radians. Waves are in phase for maximum reinforcement.
Answer: v=8 m/s. Using v=Tλ=0.54=8 m/s.
Answer: v=6 m/s. Using v=f×λ=3×2=6 m/s.
Answer: v=15 m/s. Using v=f×λ=5×3=15 m/s.
Answer: ν=5 m. Using λ=fv=210=5 m.
Answer: Odd multiples of π radians. Waves are out of phase for cancellation.
Answer: A point of maximum amplitude in a standing wave. Location of constructive interference in standing waves.
Answer: T=0.2 s. Using T=f1=51=0.2 s.
Answer: v=8 m/s. Using v=Tλ=0.54=8 m/s.
Answer: T=4 s. Using T=f1=0.251=4 s.
Answer: f=T1. Frequency is the reciprocal of period.
Answer: Number of cycles per second. Measures how often the wave pattern repeats.
Answer: A point of zero amplitude. Location of destructive interference in standing waves.
Answer: Change in frequency due to relative motion of source and observer. Apparent frequency shift due to motion.
Answer: Frequency is halved, assuming constant speed. From v=fλ, if λ doubles and v constant, f halves.
Answer: ν=5 m. Using λ=fv=420=5 m.
Answer: Waves cancel each other out, reducing amplitude. Occurs when waves are out of phase.
Answer: Meters (m). Amplitude is a distance measurement.
Answer: The distance between consecutive crests or troughs. One complete cycle of the wave pattern.
Answer: A surface over which an oscillation has a constant phase. Represents points of equal phase in wave propagation.
Answer: Waves add their amplitudes when they overlap. Fundamental principle of wave interference.