Reflection of Light

Given: i=35°

Formula:

1. r=35°
2. Write answer with correct unit or description.

Given: θ=12°

Formula:

1. 2×12°=24°
2. Write answer with correct unit or description.

Given: θ=60°

Formula:

1. N=360/60−1=6−1=5
2. Write answer with correct unit or description.

Given: object distance=20 cm

Formula:

1. image is 20 cm behind mirror
2. Write answer with correct unit or description.

Given: v=3 m/s

Formula:

1. 2×3=6 m/s
2. Write answer with correct unit or description.

Given: i=35°

Formula:

1. r=35°
2. Write answer with correct unit or description.

Given: θ=12°

Formula:

1. 2×12°=24°
2. Write answer with correct unit or description.

Given: θ=60°

Formula:

1. N=360/60−1=6−1=5
2. Write answer with correct unit or description.

Given: object distance=20 cm

Formula:

1. image is 20 cm behind mirror
2. Write answer with correct unit or description.

Given: v=3 m/s

Formula:

1. 2×3=6 m/s
2. Write answer with correct unit or description.

Given: i=35°

Formula:

1. r=35°
2. Write answer with correct unit or description.

Given: θ=12°

Formula:

1. 2×12°=24°
2. Write answer with correct unit or description.

Given: θ=60°

Formula:

1. N=360/60−1=6−1=5
2. Write answer with correct unit or description.

Given: object distance=20 cm

Formula:

1. image is 20 cm behind mirror
2. Write answer with correct unit or description.

Given: v=3 m/s

Formula:

1. 2×3=6 m/s
2. Write answer with correct unit or description.

Given: i=35°

Formula:

1. r=35°
2. Write answer with correct unit or description.

Given: θ=12°

Formula:

1. 2×12°=24°
2. Write answer with correct unit or description.

Given: θ=60°

Formula:

1. N=360/60−1=6−1=5
2. Write answer with correct unit or description.

Given: object distance=20 cm

Formula:

1. image is 20 cm behind mirror
2. Write answer with correct unit or description.

Given: v=3 m/s

Formula:

1. 2×3=6 m/s
2. Write answer with correct unit or description.

Given: i=35°

Formula:

1. r=35°
2. Write answer with correct unit or description.

Given: θ=12°

Formula:

1. 2×12°=24°
2. Write answer with correct unit or description.

Given: θ=60°

Formula:

1. N=360/60−1=6−1=5
2. Write answer with correct unit or description.

Given: object distance=20 cm

Formula:

1. image is 20 cm behind mirror
2. Write answer with correct unit or description.

Given: v=3 m/s

Formula:

1. 2×3=6 m/s
2. Write answer with correct unit or description.

Given: i=35°

Formula:

1. r=35°
2. Write answer with correct unit or description.

Given: θ=12°

Formula:

1. 2×12°=24°
2. Write answer with correct unit or description.

Given: θ=60°

Formula:

1. N=360/60−1=6−1=5
2. Write answer with correct unit or description.

Given: object distance=20 cm

Formula:

1. image is 20 cm behind mirror
2. Write answer with correct unit or description.

Given: v=3 m/s

Formula:

1. 2×3=6 m/s
2. Write answer with correct unit or description.

Given: i=35°

Formula:

1. r=35°
2. Write answer with correct unit or description.

Given: θ=12°

Formula:

1. 2×12°=24°
2. Write answer with correct unit or description.

Given: θ=60°

Formula:

1. N=360/60−1=6−1=5
2. Write answer with correct unit or description.

Given: object distance=20 cm

Formula:

1. image is 20 cm behind mirror
2. Write answer with correct unit or description.

Given: v=3 m/s

Formula:

1. 2×3=6 m/s
2. Write answer with correct unit or description.

Given: i=35°

Formula:

1. r=35°
2. Write answer with correct unit or description.

Given: θ=12°

Formula:

1. 2×12°=24°
2. Write answer with correct unit or description.

Given: θ=60°

Formula:

1. N=360/60−1=6−1=5
2. Write answer with correct unit or description.

Given: object distance=20 cm

Formula:

1. image is 20 cm behind mirror
2. Write answer with correct unit or description.

Given: v=3 m/s

Formula:

1. 2×3=6 m/s
2. Write answer with correct unit or description.

Given: i=35°

Formula:

1. r=35°
2. Write answer with correct unit or description.

Given: θ=12°

Formula:

1. 2×12°=24°
2. Write answer with correct unit or description.

Given: θ=60°

Formula:

1. N=360/60−1=6−1=5
2. Write answer with correct unit or description.

Given: object distance=20 cm

Formula:

1. image is 20 cm behind mirror
2. Write answer with correct unit or description.

Given: v=3 m/s

Formula:

1. 2×3=6 m/s
2. Write answer with correct unit or description.

Given: i=35°

Formula:

1. r=35°
2. Write answer with correct unit or description.

Given: θ=12°

Formula:

1. 2×12°=24°
2. Write answer with correct unit or description.

Given: θ=60°

Formula:

1. N=360/60−1=6−1=5
2. Write answer with correct unit or description.

Given: object distance=20 cm

Formula:

1. image is 20 cm behind mirror
2. Write answer with correct unit or description.

Given: v=3 m/s

Formula:

1. 2×3=6 m/s
2. Write answer with correct unit or description.

Given: i=35°

Formula:

1. r=35°
2. Write answer with correct unit or description.

Given: θ=12°

Formula:

1. 2×12°=24°
2. Write answer with correct unit or description.

Given: θ=60°

Formula:

1. N=360/60−1=6−1=5
2. Write answer with correct unit or description.

Given: object distance=20 cm

Formula:

1. image is 20 cm behind mirror
2. Write answer with correct unit or description.

Given: v=3 m/s

Formula:

1. 2×3=6 m/s
2. Write answer with correct unit or description.

Given: i=35°

Formula:

1. r=35°
2. Write answer with correct unit or description.

Given: θ=12°

Formula:

1. 2×12°=24°
2. Write answer with correct unit or description.

Given: θ=60°

Formula:

1. N=360/60−1=6−1=5
2. Write answer with correct unit or description.

Given: object distance=20 cm

Formula:

1. image is 20 cm behind mirror
2. Write answer with correct unit or description.

Given: v=3 m/s

Formula:

1. 2×3=6 m/s
2. Write answer with correct unit or description.

Approach: Draw each mirror, mark normal, apply i=r at every reflection and track image position using symmetry.

1. Identify mirror geometry and angle between mirrors.
2. Use N=360/θ−1 when applicable.
3. For rotation, use reflected ray rotation = 2θ.
4. For relative motion, resolve velocity perpendicular to mirror.

Approach: Draw each mirror, mark normal, apply i=r at every reflection and track image position using symmetry.

1. Identify mirror geometry and angle between mirrors.
2. Use N=360/θ−1 when applicable.
3. For rotation, use reflected ray rotation = 2θ.
4. For relative motion, resolve velocity perpendicular to mirror.

Approach: Draw each mirror, mark normal, apply i=r at every reflection and track image position using symmetry.

1. Identify mirror geometry and angle between mirrors.
2. Use N=360/θ−1 when applicable.
3. For rotation, use reflected ray rotation = 2θ.
4. For relative motion, resolve velocity perpendicular to mirror.

Approach: Draw each mirror, mark normal, apply i=r at every reflection and track image position using symmetry.

1. Identify mirror geometry and angle between mirrors.
2. Use N=360/θ−1 when applicable.
3. For rotation, use reflected ray rotation = 2θ.
4. For relative motion, resolve velocity perpendicular to mirror.

Approach: Draw each mirror, mark normal, apply i=r at every reflection and track image position using symmetry.

1. Identify mirror geometry and angle between mirrors.
2. Use N=360/θ−1 when applicable.
3. For rotation, use reflected ray rotation = 2θ.
4. For relative motion, resolve velocity perpendicular to mirror.

Approach: Draw each mirror, mark normal, apply i=r at every reflection and track image position using symmetry.

1. Identify mirror geometry and angle between mirrors.
2. Use N=360/θ−1 when applicable.
3. For rotation, use reflected ray rotation = 2θ.
4. For relative motion, resolve velocity perpendicular to mirror.

Approach: Draw each mirror, mark normal, apply i=r at every reflection and track image position using symmetry.

1. Identify mirror geometry and angle between mirrors.
2. Use N=360/θ−1 when applicable.
3. For rotation, use reflected ray rotation = 2θ.
4. For relative motion, resolve velocity perpendicular to mirror.

Approach: Draw each mirror, mark normal, apply i=r at every reflection and track image position using symmetry.

1. Identify mirror geometry and angle between mirrors.
2. Use N=360/θ−1 when applicable.
3. For rotation, use reflected ray rotation = 2θ.
4. For relative motion, resolve velocity perpendicular to mirror.

Approach: Draw each mirror, mark normal, apply i=r at every reflection and track image position using symmetry.

1. Identify mirror geometry and angle between mirrors.
2. Use N=360/θ−1 when applicable.
3. For rotation, use reflected ray rotation = 2θ.
4. For relative motion, resolve velocity perpendicular to mirror.

Approach: Draw each mirror, mark normal, apply i=r at every reflection and track image position using symmetry.

1. Identify mirror geometry and angle between mirrors.
2. Use N=360/θ−1 when applicable.
3. For rotation, use reflected ray rotation = 2θ.
4. For relative motion, resolve velocity perpendicular to mirror.

Approach: Draw each mirror, mark normal, apply i=r at every reflection and track image position using symmetry.

1. Identify mirror geometry and angle between mirrors.
2. Use N=360/θ−1 when applicable.
3. For rotation, use reflected ray rotation = 2θ.
4. For relative motion, resolve velocity perpendicular to mirror.

Approach: Draw each mirror, mark normal, apply i=r at every reflection and track image position using symmetry.

1. Identify mirror geometry and angle between mirrors.
2. Use N=360/θ−1 when applicable.
3. For rotation, use reflected ray rotation = 2θ.
4. For relative motion, resolve velocity perpendicular to mirror.

Approach: Draw each mirror, mark normal, apply i=r at every reflection and track image position using symmetry.

1. Identify mirror geometry and angle between mirrors.
2. Use N=360/θ−1 when applicable.
3. For rotation, use reflected ray rotation = 2θ.
4. For relative motion, resolve velocity perpendicular to mirror.

Approach: Draw each mirror, mark normal, apply i=r at every reflection and track image position using symmetry.

1. Identify mirror geometry and angle between mirrors.
2. Use N=360/θ−1 when applicable.
3. For rotation, use reflected ray rotation = 2θ.
4. For relative motion, resolve velocity perpendicular to mirror.

Approach: Draw each mirror, mark normal, apply i=r at every reflection and track image position using symmetry.

1. Identify mirror geometry and angle between mirrors.
2. Use N=360/θ−1 when applicable.
3. For rotation, use reflected ray rotation = 2θ.
4. For relative motion, resolve velocity perpendicular to mirror.

Approach: Draw each mirror, mark normal, apply i=r at every reflection and track image position using symmetry.

1. Identify mirror geometry and angle between mirrors.
2. Use N=360/θ−1 when applicable.
3. For rotation, use reflected ray rotation = 2θ.
4. For relative motion, resolve velocity perpendicular to mirror.

Approach: Draw each mirror, mark normal, apply i=r at every reflection and track image position using symmetry.

1. Identify mirror geometry and angle between mirrors.
2. Use N=360/θ−1 when applicable.
3. For rotation, use reflected ray rotation = 2θ.
4. For relative motion, resolve velocity perpendicular to mirror.

Approach: Draw each mirror, mark normal, apply i=r at every reflection and track image position using symmetry.

1. Identify mirror geometry and angle between mirrors.
2. Use N=360/θ−1 when applicable.
3. For rotation, use reflected ray rotation = 2θ.
4. For relative motion, resolve velocity perpendicular to mirror.

Approach: Draw each mirror, mark normal, apply i=r at every reflection and track image position using symmetry.

1. Identify mirror geometry and angle between mirrors.
2. Use N=360/θ−1 when applicable.
3. For rotation, use reflected ray rotation = 2θ.
4. For relative motion, resolve velocity perpendicular to mirror.

Approach: Draw each mirror, mark normal, apply i=r at every reflection and track image position using symmetry.

1. Identify mirror geometry and angle between mirrors.
2. Use N=360/θ−1 when applicable.
3. For rotation, use reflected ray rotation = 2θ.
4. For relative motion, resolve velocity perpendicular to mirror.

Incident ray, reflected ray and normal lie in same plane, and angle of incidence equals angle of reflection.

It scatters light in many directions so light can enter the eye from many positions.

It is left-right reversal in plane mirror image.

Reflected rays do not actually meet; they appear to come from behind the mirror.

The reflected ray rotates by 2θ.

N=360/90−1=3.

Reflection from smooth surface where parallel rays remain parallel.

Yes, at each small surface element the laws are obeyed.

They can collect and reflect light to form images without chromatic aberration.

m=+1.

Incident ray, reflected ray and normal lie in same plane, and angle of incidence equals angle of reflection.

It scatters light in many directions so light can enter the eye from many positions.

It is left-right reversal in plane mirror image.

Reflected rays do not actually meet; they appear to come from behind the mirror.

The reflected ray rotates by 2θ.

Incident ray, reflected ray and normal lie in same plane, and angle of incidence equals angle of reflection.

It scatters light in many directions so light can enter the eye from many positions.

It is left-right reversal in plane mirror image.

Reflected rays do not actually meet; they appear to come from behind the mirror.

The reflected ray rotates by 2θ.

N=360/90−1=3.

Reflection from smooth surface where parallel rays remain parallel.

Yes, at each small surface element the laws are obeyed.

They can collect and reflect light to form images without chromatic aberration.

m=+1.

Incident ray, reflected ray and normal lie in same plane, and angle of incidence equals angle of reflection.

It scatters light in many directions so light can enter the eye from many positions.

It is left-right reversal in plane mirror image.

Reflected rays do not actually meet; they appear to come from behind the mirror.

The reflected ray rotates by 2θ.

N=360/90−1=3.

Reflection from smooth surface where parallel rays remain parallel.

Yes, at each small surface element the laws are obeyed.

They can collect and reflect light to form images without chromatic aberration.

m=+1.

Incident ray, reflected ray and normal lie in same plane, and angle of incidence equals angle of reflection.

It scatters light in many directions so light can enter the eye from many positions.

It is left-right reversal in plane mirror image.

Reflected rays do not actually meet; they appear to come from behind the mirror.

The reflected ray rotates by 2θ.

N=360/90−1=3.

Reflection from smooth surface where parallel rays remain parallel.

Yes, at each small surface element the laws are obeyed.

They can collect and reflect light to form images without chromatic aberration.

m=+1.

Incident ray, reflected ray and normal lie in same plane, and angle of incidence equals angle of reflection.

It scatters light in many directions so light can enter the eye from many positions.

It is left-right reversal in plane mirror image.

Reflected rays do not actually meet; they appear to come from behind the mirror.

The reflected ray rotates by 2θ.

N=360/90−1=3.

Reflection from smooth surface where parallel rays remain parallel.

Yes, at each small surface element the laws are obeyed.

They can collect and reflect light to form images without chromatic aberration.

m=+1.

Incident ray, reflected ray and normal lie in same plane, and angle of incidence equals angle of reflection.

It scatters light in many directions so light can enter the eye from many positions.

It is left-right reversal in plane mirror image.

Reflected rays do not actually meet; they appear to come from behind the mirror.

The reflected ray rotates by 2θ.

N=360/90−1=3.

Reflection from smooth surface where parallel rays remain parallel.

Yes, at each small surface element the laws are obeyed.

They can collect and reflect light to form images without chromatic aberration.

m=+1.

Incident ray, reflected ray and normal lie in same plane, and angle of incidence equals angle of reflection.

It scatters light in many directions so light can enter the eye from many positions.

It is left-right reversal in plane mirror image.

Reflected rays do not actually meet; they appear to come from behind the mirror.

The reflected ray rotates by 2θ.

N=360/90−1=3.

Reflection from smooth surface where parallel rays remain parallel.

Yes, at each small surface element the laws are obeyed.

They can collect and reflect light to form images without chromatic aberration.

m=+1.

Incident ray, reflected ray and normal lie in same plane, and angle of incidence equals angle of reflection.

It scatters light in many directions so light can enter the eye from many positions.

It is left-right reversal in plane mirror image.

Reflected rays do not actually meet; they appear to come from behind the mirror.

The reflected ray rotates by 2θ.

N=360/90−1=3.

Reflection from smooth surface where parallel rays remain parallel.

Yes, at each small surface element the laws are obeyed.

They can collect and reflect light to form images without chromatic aberration.

m=+1.

Incident ray, reflected ray and normal lie in same plane, and angle of incidence equals angle of reflection.

It scatters light in many directions so light can enter the eye from many positions.

It is left-right reversal in plane mirror image.

Reflected rays do not actually meet; they appear to come from behind the mirror.

The reflected ray rotates by 2θ.

Incident ray, reflected ray and normal lie in same plane, and angle of incidence equals angle of reflection.

It scatters light in many directions so light can enter the eye from many positions.

It is left-right reversal in plane mirror image.

Reflected rays do not actually meet; they appear to come from behind the mirror.

The reflected ray rotates by 2θ.

N=360/90−1=3.

Reflection from smooth surface where parallel rays remain parallel.

Yes, at each small surface element the laws are obeyed.

They can collect and reflect light to form images without chromatic aberration.

m=+1.

Incident ray, reflected ray and normal lie in same plane, and angle of incidence equals angle of reflection.

It scatters light in many directions so light can enter the eye from many positions.

It is left-right reversal in plane mirror image.

Reflected rays do not actually meet; they appear to come from behind the mirror.

The reflected ray rotates by 2θ.

Incident ray, reflected ray and normal lie in same plane, and angle of incidence equals angle of reflection.

It scatters light in many directions so light can enter the eye from many positions.

It is left-right reversal in plane mirror image.

Reflected rays do not actually meet; they appear to come from behind the mirror.

The reflected ray rotates by 2θ.

N=360/90−1=3.

Reflection from smooth surface where parallel rays remain parallel.

Yes, at each small surface element the laws are obeyed.

They can collect and reflect light to form images without chromatic aberration.

m=+1.

Incident ray, reflected ray and normal lie in same plane, and angle of incidence equals angle of reflection.

It scatters light in many directions so light can enter the eye from many positions.

It is left-right reversal in plane mirror image.

Reflected rays do not actually meet; they appear to come from behind the mirror.

The reflected ray rotates by 2θ.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

The concept is explained using the laws of reflection, surface normal, ray geometry and the difference between regular and diffuse reflection. In exams, draw the normal and apply i=r clearly.

Answer: Both are true and Reason correctly explains Assertion.

Explanation: Check truth of both statements, then test whether reason explains assertion through reflection geometry.

Answer: Assertion is false; laws are obeyed locally at every small surface element.

Explanation: Check truth of both statements, then test whether reason explains assertion through reflection geometry.

Answer: Both are true and Reason correctly explains Assertion.

Explanation: Check truth of both statements, then test whether reason explains assertion through reflection geometry.

Answer: Both are true and Reason correctly explains Assertion.

Explanation: Check truth of both statements, then test whether reason explains assertion through reflection geometry.

Answer: Both are true and Reason correctly explains Assertion.

Explanation: Check truth of both statements, then test whether reason explains assertion through reflection geometry.

Answer: Both are true and Reason correctly explains Assertion.

Explanation: Check truth of both statements, then test whether reason explains assertion through reflection geometry.

Answer: Assertion is false; laws are obeyed locally at every small surface element.

Explanation: Check truth of both statements, then test whether reason explains assertion through reflection geometry.

Answer: Both are true and Reason correctly explains Assertion.

Explanation: Check truth of both statements, then test whether reason explains assertion through reflection geometry.

Answer: Both are true and Reason correctly explains Assertion.

Explanation: Check truth of both statements, then test whether reason explains assertion through reflection geometry.

Answer: Both are true and Reason correctly explains Assertion.

Explanation: Check truth of both statements, then test whether reason explains assertion through reflection geometry.

Answer: Both are true and Reason correctly explains Assertion.

Explanation: Check truth of both statements, then test whether reason explains assertion through reflection geometry.

Answer: Assertion is false; laws are obeyed locally at every small surface element.

Explanation: Check truth of both statements, then test whether reason explains assertion through reflection geometry.

Answer: Both are true and Reason correctly explains Assertion.

Explanation: Check truth of both statements, then test whether reason explains assertion through reflection geometry.

Answer: Both are true and Reason correctly explains Assertion.

Explanation: Check truth of both statements, then test whether reason explains assertion through reflection geometry.

Answer: Both are true and Reason correctly explains Assertion.

Explanation: Check truth of both statements, then test whether reason explains assertion through reflection geometry.

Answer: Both are true and Reason correctly explains Assertion.

Explanation: Check truth of both statements, then test whether reason explains assertion through reflection geometry.

Answer: Assertion is false; laws are obeyed locally at every small surface element.

Explanation: Check truth of both statements, then test whether reason explains assertion through reflection geometry.

Answer: Both are true and Reason correctly explains Assertion.

Explanation: Check truth of both statements, then test whether reason explains assertion through reflection geometry.

Answer: Both are true and Reason correctly explains Assertion.

Explanation: Check truth of both statements, then test whether reason explains assertion through reflection geometry.

Answer: Both are true and Reason correctly explains Assertion.

Explanation: Check truth of both statements, then test whether reason explains assertion through reflection geometry.

Answer: Both are true and Reason correctly explains Assertion.

Explanation: Check truth of both statements, then test whether reason explains assertion through reflection geometry.

Answer: Assertion is false; laws are obeyed locally at every small surface element.

Explanation: Check truth of both statements, then test whether reason explains assertion through reflection geometry.

Answer: Both are true and Reason correctly explains Assertion.

Explanation: Check truth of both statements, then test whether reason explains assertion through reflection geometry.

Answer: Both are true and Reason correctly explains Assertion.

Explanation: Check truth of both statements, then test whether reason explains assertion through reflection geometry.

Answer: Both are true and Reason correctly explains Assertion.

Explanation: Check truth of both statements, then test whether reason explains assertion through reflection geometry.