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This deck focuses on Boundary Behavior Of Waves And Polarization, giving you a quick way to review the definitions, rules, and examples that matter most for AP Physics 2.
Study Boundary Behavior Of Waves And Polarization 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 difference between longitudinal and transverse waves?
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Longitudinal waves oscillate parallel; transverse waves oscillate perpendicular. Describes the relationship between oscillation and propagation directions.
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This deck focuses on Boundary Behavior Of Waves And Polarization, 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: Longitudinal waves oscillate parallel; transverse waves oscillate perpendicular. Describes the relationship between oscillation and propagation directions.
Answer: Vibration occurs in a single direction perpendicular to wave travel. Electric field vector oscillates in one plane only.
Answer: The change in wave speed affects refraction. Speed changes cause direction changes at boundaries.
Answer: Phase difference is odd multiples of π. Waves are out of phase, creating maximum cancellation.
Answer: Amplitude generally decreases in a denser medium. Denser media typically absorb more energy from waves.
Answer: Reflection occurs when wave impedance changes. Impedance mismatch causes partial reflection at interfaces.
Answer: Wave impedance is the resistance a medium offers to wave motion. Characterized by the product of density and wave speed.
Answer: Phase difference is odd multiples of π. Waves are out of phase, creating maximum cancellation.
Answer: θc=sin−1(n1n2). Critical angle depends on the ratio of refractive indices.
Answer: Phase difference is 0 or multiples of 2π. Waves are in phase, creating maximum reinforcement.
Answer: Occurs when the angle of incidence exceeds the critical angle. When θi>θc, all energy reflects and none transmits.
Answer: A point of maximum amplitude in a standing wave. Formed when incident and reflected waves interfere constructively.
Answer: To reduce glare and enhance contrast. Removes unwanted reflections and improves image clarity.
Answer: A point of zero amplitude in a standing wave. Formed when incident and reflected waves interfere destructively.
Answer: Wave reflection is when a wave bounces back after hitting a boundary. Energy cannot pass through the boundary, so it returns to the original medium.
Answer: Wave's electric field rotates in a circle around the direction of travel. Electric field vector traces circular path perpendicular to propagation.
Answer: The change in wave speed affects refraction. Speed changes cause direction changes at boundaries.
Answer: Refraction is the change in wave direction at a boundary. Speed changes cause waves to bend when entering new media.
Answer: When waves overlap to produce a smaller amplitude. Wave crests align with troughs, creating cancellation.
Answer: Diffraction is the bending of waves around obstacles. Wave spreading occurs when encountering edges or apertures.
Answer: Wave speed changes depending on the medium. Different media have different wave propagation speeds.
Answer: tan(θB)=n1n2. Derived from the condition that reflected and refracted rays are perpendicular.
Answer: The amplitude decreases. Wave peaks and troughs align to cancel displacement.
Answer: Wave speed decreases with increased medium density. Inverse relationship between medium density and wave speed.
Answer: n1×sin(θ1)=n2×sin(θ2). Relates incident and refracted angles through refractive indices.
Answer: Occurs when the aperture size is comparable to the wavelength. Significant bending occurs when λ≈ aperture size.
Answer: Interference results in either increased or decreased wave amplitude. Depends on phase relationship between overlapping waves.
Answer: The angle where reflected light is completely polarized. Occurs when the reflected ray is perpendicular to the refracted ray.
Answer: Intensity is reduced by half. Unpolarized light becomes 50% intensity after polarization.
Answer: Wave speed changes depending on the medium. Different media have different wave propagation speeds.
Answer: Wave frequency remains unchanged. Frequency is an intrinsic property that doesn't change across boundaries.
Answer: Wave reflection is when a wave bounces back after hitting a boundary. Energy cannot pass through the boundary, so it returns to the original medium.
Answer: n1×sin(θ1)=n2×sin(θ2). Relates incident and refracted angles through refractive indices.
Answer: Higher frequency reduces diffraction. Shorter wavelengths diffract less around obstacles.
Answer: Diffraction is the bending of waves around obstacles. Wave spreading occurs when encountering edges or apertures.
Answer: Reflected light is completely polarized. At this specific angle, reflected light has maximum polarization.
Answer: Polarization reduces glare. Eliminates horizontally polarized reflected light from surfaces.
Answer: Polarization reduces the light intensity. Filtering light waves removes some energy from the beam.
Answer: Intensity is reduced by half. Unpolarized light becomes 50% intensity after polarization.
Answer: A point of zero amplitude in a standing wave. Formed when incident and reflected waves interfere destructively.
Answer: The wave's speed decreases. Denser media have higher refractive indices, slowing wave propagation.
Answer: Polarization is restricting the vibration of light waves to one plane. Only transverse waves can be polarized, not longitudinal waves.
Answer: Amplitude generally decreases in a denser medium. Denser media typically absorb more energy from waves.
Answer: tan(θB)=n1n2. Derived from the condition that reflected and refracted rays are perpendicular.
Answer: Vibration occurs in a single direction perpendicular to wave travel. Electric field vector oscillates in one plane only.
Answer: Reflection occurs when wave impedance changes. Impedance mismatch causes partial reflection at interfaces.
Answer: Wave's electric field rotates in a circle around the direction of travel. Electric field vector traces circular path perpendicular to propagation.
Answer: A medium with uniform properties in all directions. Wave properties are identical in all spatial directions.
Answer: Transmission is when a wave passes through a boundary into a new medium. Part of wave energy continues into the second medium.
Answer: Occurs when the aperture size is comparable to the wavelength. Significant bending occurs when λ≈ aperture size.
Answer: Angle of incidence equals angle of reflection. This is a fundamental principle governing all types of wave reflection.
Answer: When waves overlap to produce a smaller amplitude. Wave crests align with troughs, creating cancellation.
Answer: Longitudinal waves oscillate parallel; transverse waves oscillate perpendicular. Describes the relationship between oscillation and propagation directions.
Answer: Polarization reduces glare. Eliminates horizontally polarized reflected light from surfaces.
Answer: Reflected light is completely polarized. At this specific angle, reflected light has maximum polarization.
Answer: Occurs when the angle of incidence exceeds the critical angle. When θi>θc, all energy reflects and none transmits.
Answer: The total displacement is the sum of individual displacements. Multiple waves combine by adding their displacements at each point.
Answer: The amplitude increases. Wave peaks align to create larger displacement.
Answer: θc=sin−1(n1n2). Critical angle depends on the ratio of refractive indices.
Answer: The amplitude increases. Wave peaks align to create larger displacement.
Answer: Higher frequency reduces diffraction. Shorter wavelengths diffract less around obstacles.
Answer: When waves overlap to produce a larger amplitude. Wave crests align with crests, creating reinforcement.
Answer: Angle of incidence equals angle of reflection. This is a fundamental principle governing all types of wave reflection.
Answer: The amplitude decreases. Wave peaks and troughs align to cancel displacement.
Answer: The angle where reflected light is completely polarized. Occurs when the reflected ray is perpendicular to the refracted ray.
Answer: Wave frequency remains unchanged. Frequency is an intrinsic property that doesn't change across boundaries.
Answer: Wave speed decreases with increased medium density. Inverse relationship between medium density and wave speed.
Answer: Polarization reduces the light intensity. Filtering light waves removes some energy from the beam.
Answer: To reduce glare and enhance contrast. Removes unwanted reflections and improves image clarity.
Answer: Transmission is when a wave passes through a boundary into a new medium. Part of wave energy continues into the second medium.
Answer: Refraction is the change in wave direction at a boundary. Speed changes cause waves to bend when entering new media.
Answer: Wave impedance is the resistance a medium offers to wave motion. Characterized by the product of density and wave speed.
Answer: Interference results in either increased or decreased wave amplitude. Depends on phase relationship between overlapping waves.
Answer: Phase difference is 0 or multiples of 2π. Waves are in phase, creating maximum reinforcement.
Answer: A medium with uniform properties in all directions. Wave properties are identical in all spatial directions.
Answer: Polarization is restricting the vibration of light waves to one plane. Only transverse waves can be polarized, not longitudinal waves.
Answer: The wave's speed decreases. Denser media have higher refractive indices, slowing wave propagation.
Answer: The total displacement is the sum of individual displacements. Multiple waves combine by adding their displacements at each point.