Back to notes

Optics Quiz

50 theory + 50 numerical · click an option to lock in and see the answer

0/100 answered · 0 correct
Q1 · theory

Law of reflection:

Q2 · theory

Snell's law:

Q3 · theory

Critical angle exists when light goes:

Q4 · theory

TIR condition:

Q5 · theory

Lens formula (Cartesian typical):

Q6 · theory

Power of lens in dioptre:

Q7 · theory

Convex lens is:

Q8 · theory

Concave lens is:

Q9 · theory

Magnification m =:

Q10 · theory

Real image from lens is:

Q11 · theory

Mirror formula:

Q12 · theory

Focal length of spherical mirror:

Q13 · theory

Dispersion by prism causes:

Q14 · theory

Rainbow involves:

Q15 · theory

Young's experiment demonstrates:

Q16 · theory

Single-slit minima:

Q17 · theory

Diffraction is:

Q18 · theory

Polarizer works for:

Q19 · theory

Brewster's law:

Q20 · theory

Optical fibre uses:

Q21 · theory

Myopia corrected by:

Q22 · theory

Hypermetropia corrected by:

Q23 · theory

Coherent sources needed for:

Q24 · theory

Wavelength of visible light roughly:

Q25 · theory

Speed of light in vacuum:

Q26 · theory

Refractive index n =:

Q27 · theory

Air n approximately:

Q28 · theory

Glass n roughly:

Q29 · theory

Virtual image means:

Q30 · theory

Object at focus of convex lens:

Q31 · theory

Object at 2f convex lens:

Q32 · theory

Chromatic aberration due to:

Q33 · theory

Astronomical telescope objective:

Q34 · theory

Compound microscope uses:

Q35 · theory

Interference fringe width increases if:

Q36 · theory

Diffraction more noticeable when:

Q37 · theory

Plane mirror focal length:

Q38 · theory

Image in plane mirror is:

Q39 · theory

Lateral magnification plane mirror:

Q40 · theory

Optical path length:

Q41 · theory

Wavefront is surface of:

Q42 · theory

Huygens principle uses:

Q43 · theory

Resolving power increases with:

Q44 · theory

Scattering of light causes:

Q45 · theory

Laser light is:

Q46 · theory

Prism minimum deviation depends on:

Q47 · theory

Double convex lens thicker at:

Q48 · theory

SI unit of power of lens:

Q49 · theory

f positive convex lens (usual convention):

Q50 · theory

Total internal reflection used in:

Q51 · numerical

n1=1, n2=1.5, i=30°. Refracted angle ≈:

Q52 · numerical

n1=1, n2=1.5, i=31°. Refracted angle ≈:

Q53 · numerical

n1=1, n2=1.5, i=32°. Refracted angle ≈:

Q54 · numerical

n1=1, n2=1.5, i=33°. Refracted angle ≈:

Q55 · numerical

n1=1, n2=1.5, i=34°. Refracted angle ≈:

Q56 · numerical

n1=1, n2=1.5, i=35°. Refracted angle ≈:

Q57 · numerical

n1=1, n2=1.5, i=36°. Refracted angle ≈:

Q58 · numerical

n1=1, n2=1.5, i=37°. Refracted angle ≈:

Q59 · numerical

n1=1, n2=1.5, i=38°. Refracted angle ≈:

Q60 · numerical

n1=1, n2=1.5, i=39°. Refracted angle ≈:

Q61 · numerical

n1=1, n2=1.5, i=40°. Refracted angle ≈:

Q62 · numerical

n1=1, n2=1.5, i=41°. Refracted angle ≈:

Q63 · numerical

n1=1, n2=1.5, i=42°. Refracted angle ≈:

Q64 · numerical

n1=1, n2=1.5, i=43°. Refracted angle ≈:

Q65 · numerical

n1=1, n2=1.5, i=44°. Refracted angle ≈:

Q66 · numerical

Convex lens f=10 cm, object u=35 cm (real). Image distance v ≈:

Q67 · numerical

Convex lens f=11 cm, object u=36 cm (real). Image distance v ≈:

Q68 · numerical

Convex lens f=12 cm, object u=37 cm (real). Image distance v ≈:

Q69 · numerical

Convex lens f=13 cm, object u=38 cm (real). Image distance v ≈:

Q70 · numerical

Convex lens f=14 cm, object u=39 cm (real). Image distance v ≈:

Q71 · numerical

Convex lens f=10 cm, object u=40 cm (real). Image distance v ≈:

Q72 · numerical

Convex lens f=11 cm, object u=41 cm (real). Image distance v ≈:

Q73 · numerical

Convex lens f=12 cm, object u=42 cm (real). Image distance v ≈:

Q74 · numerical

Convex lens f=13 cm, object u=43 cm (real). Image distance v ≈:

Q75 · numerical

Convex lens f=14 cm, object u=44 cm (real). Image distance v ≈:

Q76 · numerical

Convex lens f=10 cm, object u=45 cm (real). Image distance v ≈:

Q77 · numerical

Convex lens f=11 cm, object u=46 cm (real). Image distance v ≈:

Q78 · numerical

Convex lens f=12 cm, object u=47 cm (real). Image distance v ≈:

Q79 · numerical

Convex lens f=13 cm, object u=48 cm (real). Image distance v ≈:

Q80 · numerical

Convex lens f=14 cm, object u=49 cm (real). Image distance v ≈:

Q81 · numerical

Lens f = 50 cm. Power is:

Q82 · numerical

Lens f = 51 cm. Power is:

Q83 · numerical

Lens f = 52 cm. Power is:

Q84 · numerical

Lens f = 53 cm. Power is:

Q85 · numerical

Lens f = 54 cm. Power is:

Q86 · numerical

Lens f = 55 cm. Power is:

Q87 · numerical

Lens f = 56 cm. Power is:

Q88 · numerical

Lens f = 57 cm. Power is:

Q89 · numerical

Lens f = 58 cm. Power is:

Q90 · numerical

Lens f = 59 cm. Power is:

Q91 · numerical

Critical angle water/glass-like n=1.5 to air:

Q92 · numerical

Critical angle water/glass-like n=1.5 to air:

Q93 · numerical

Critical angle water/glass-like n=1.5 to air:

Q94 · numerical

Critical angle water/glass-like n=1.5 to air:

Q95 · numerical

Critical angle water/glass-like n=1.5 to air:

Q96 · numerical

Critical angle water/glass-like n=1.5 to air:

Q97 · numerical

Critical angle water/glass-like n=1.5 to air:

Q98 · numerical

Critical angle water/glass-like n=1.5 to air:

Q99 · numerical

Critical angle water/glass-like n=1.5 to air:

Q100 · numerical

Critical angle water/glass-like n=1.5 to air: