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This deck focuses on Images Formed By Mirrors, giving you a quick way to review the definitions, rules, and examples that matter most for AP Physics 2.
Study Images Formed By Mirrors 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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Determine the image nature when di is negative.
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Image is virtual. Negative image distance indicates virtual image behind mirror.
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This deck focuses on Images Formed By Mirrors, 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: Image is virtual. Negative image distance indicates virtual image behind mirror.
Answer: Magnification m=1. Plane mirrors always create same-size images with unit magnification.
Answer: m=0.5. Using m=−dodi=−10−5=0.5.
Answer: R=∞ (infinite). Plane mirrors have no curvature, so radius is infinite.
Answer: No image is formed; rays are parallel. At focal point, reflected rays become parallel and never converge.
Answer: No image is formed; rays are parallel. At focal point, reflected rays become parallel and never converge.
Answer: Concave mirror for magnification. Concave mirrors can magnify when object is within focal length.
Answer: Image is always virtual. Plane mirrors cannot form real images due to flat surface.
Answer: f=∞ (infinite). Plane surfaces don't converge or diverge rays, so no focal point exists.
Answer: Image is the same size as the object. When hi=ho, magnification equals 1, indicating same size.
Answer: m=0.5. Using m=−dodi=−10−5=0.5.
Answer: Image is always virtual. Plane mirrors cannot form real images due to flat surface.
Answer: The point where parallel rays converge or appear to diverge. Defines where parallel incident rays meet after reflection.
Answer: Upright. Plane mirrors always produce upright, non-inverted images.
Answer: di=16.67 cm. Using 101=251+di1 gives di=16.67 cm.
Answer: Image is inverted. Negative magnification means image is flipped relative to object.
Answer: Virtual, upright, and reduced in size. Convex mirrors diverge light rays, preventing real image formation.
Answer: Virtual, upright, reduced. Convex mirrors always produce diminished virtual images regardless of position.
Answer: Magnification m=hohi=−dodi. Negative sign accounts for real vs virtual image distinction.
Answer: Real, inverted, same size. At twice focal length, object and image are same size.
Answer: Virtual, upright, and the same size as the object. Plane mirrors reflect light at equal angles, creating laterally inverted images.
Answer: Convex mirror. Convex mirrors diverge rays, making real image formation impossible.
Answer: Image is virtual. Negative image distance indicates virtual image behind mirror.
Answer: At the focal point. Parallel rays from infinity converge at the focal point.
Answer: Convex mirror. Convex mirrors provide wide field of view for safety.
Answer: f=10 cm. Using f=2R=220=10 cm.
Answer: f1=do1+di1. Fundamental equation relating focal length to object and image distances.
Answer: Image is real. Positive image distance means light actually converges there.
Answer: di=40 cm. Using 201=401+di1 gives di=40 cm.
Answer: di=30 cm. Using mirror equation: 151=301+di1.
Answer: Image is real, inverted, and same size. At center of curvature, object and image distances equal 2f.
Answer: Virtual, upright, and enlarged. Object closer than focal point creates magnified virtual image.
Answer: Image is inverted. Negative magnification means image is flipped relative to object.
Answer: Image is the same size as the object. When hi=ho, magnification equals 1, indicating same size.
Answer: Virtual, upright, reduced. Convex mirrors always produce diminished virtual images regardless of position.
Answer: Plane mirror. Plane mirrors create life-size images suitable for full body viewing.
Answer: The point where parallel rays converge or appear to diverge. Defines where parallel incident rays meet after reflection.
Answer: Concave mirror. Concave mirrors have positive focal lengths and converge light.
Answer: di=30 cm. Using mirror equation: 151=301+di1.
Answer: f=10 cm. Using f=2R=220=10 cm.
Answer: hi=m×ho. Image height equals magnification times object height.
Answer: hi=8 cm. Using hi=m×ho=2×4=8 cm.
Answer: hi=m×ho. Image height equals magnification times object height.
Answer: No image is formed. At focal point, reflected rays become parallel with no convergence.
Answer: Virtual, upright, and enlarged. Object closer than focal point creates magnified virtual image.
Answer: Positive if object is in front of mirror. Objects in front of mirrors have positive distances by convention.
Answer: Magnification m=1. Plane mirrors always create same-size images with unit magnification.
Answer: R=2f. Radius is twice the focal length for spherical mirrors.
Answer: Image is real. Positive image distance means light actually converges there.
Answer: m=−dodi. Magnification equals negative ratio of image to object distance.
Answer: Magnification m=hohi=−dodi. Negative sign accounts for real vs virtual image distinction.
Answer: m=−dodi. Magnification equals negative ratio of image to object distance.
Answer: f=∞ (infinite). Plane surfaces don't converge or diverge rays, so no focal point exists.
Answer: Positive if object is in front of mirror. Objects in front of mirrors have positive distances by convention.
Answer: Virtual, upright, and the same size as the object. Plane mirrors reflect light at equal angles, creating laterally inverted images.
Answer: di=40 cm. Using 201=401+di1 gives di=40 cm.
Answer: Convex mirror. Wide field of view helps monitor large areas effectively.
Answer: Plane mirror. Plane mirrors create life-size images suitable for full body viewing.
Answer: di=16.67 cm. Using 101=251+di1 gives di=16.67 cm.
Answer: hi=8 cm. Using hi=m×ho=2×4=8 cm.
Answer: Image is real, inverted, and same size. At center of curvature, object and image distances equal 2f.
Answer: Between the focal point and the center of curvature. Real image forms between f and center when object is beyond center.
Answer: Convex mirror. Convex mirrors provide wide field of view for safety.
Answer: Convex mirror. Wide field of view helps monitor large areas effectively.
Answer: R=2f. Radius is twice the focal length for spherical mirrors.
Answer: R=∞ (infinite). Plane mirrors have no curvature, so radius is infinite.
Answer: Concave mirror. Concave mirrors have positive focal lengths and converge light.
Answer: Virtual, upright, and reduced in size. Convex mirrors diverge light rays, preventing real image formation.
Answer: Real, inverted, same size. At twice focal length, object and image are same size.
Answer: Concave mirror for magnification. Concave mirrors can magnify when object is within focal length.
Answer: At the focal point. Parallel rays from infinity converge at the focal point.
Answer: Convex mirror. Convex mirrors diverge rays, making real image formation impossible.
Answer: Between the focal point and the center of curvature. Real image forms between f and center when object is beyond center.
Answer: No image is formed. At focal point, reflected rays become parallel with no convergence.
Answer: f1=do1+di1. Fundamental equation relating focal length to object and image distances.