Lab
Ray Diagrams for Diverging Lenses
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In this lab, you will construct the TWO ray diagrams for diverging lenses. In each diagram, use an arrow, 2.0 cm tall, pointing upwards as the object. Label it with an
O
. For your convenience, blank diagrams will objects already provided are located on this
page
-- in IE use landscape mode with margins of 0.5. Each case will use the three rays outlined in the
lesson on diverging lenses
where you are provided with an animated gif to show you how the image is formed. First watch each animation, then draw your own diagram. Keep your three rays color-coded - that is, let ray #1 be the same color in each diagram, similarly with ray #2 and ray #3. When all three rays come together they locate your image. Draw the image in and label it with a capital
I
. You are then to measure, in centimeters,
d
o
,
d
i
,
O
and
I
.
Remember that
d
o
represents the distance from the object to the lens when measured along the axis of the lens.
d
i
represents the distance from the image to the lens when measured along the axis of the lens.
O is the height of the object (measured from tip to base - this should be 1.0 cm)
I is the height of the image (measured from tip to base)
Your diagrams will be graded on neatness, so be careful. Remember your arrows!
Case I: the object is located infinitely far away
Refer to the following information for the next five questions.
The image is formed on the line between region ____ and ____.
Region I
Region II
Region III
Region IV
Region V
Region VI
Choose the correct property. This image is
real
virtual
not formed
Choose the correct property. This image is
inverted
upright
not applicable
Choose the correct property. This image is
reduced
same size
enlarged
not applicable
The purpose of this construction is to locate the ____ which defines the focal length of the lens.
Case II: the object is located in Region I or in Region II
Refer to the following information for the next four questions.
The image is formed in region ____.
Region I
Region II
Region III
Region IV
Region V
Region VI
Choose the correct property. This image is
real
virtual
not formed
Choose the correct property. This image is
inverted
upright
not applicable
Choose the correct property. This image is
reduced
same size
enlarged
not applicable
Using the results of your diagram, measure each of the following four distances. Then calculate each magnification and the percent difference between their values.
measurements (cm)
O =
d
o
=
d
i
=
I =
magnification
comparisons
M = |d
i
/d
o
|
M = |I/O|
% difference =
Teacher Certification:
This form is to be completed individually at the completion of your lab. Input only your numerical values - the correct units have already been supplied on the form. Make sure that your teacher or his/her designee signs off the Teacher Certification area before posting your final submission.
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Resource Lesson:
RL -
A Derivation of Snell's Law
RL -
Converging Lens Examples
RL -
Converging Lenses
RL -
Demonstration: Infinite Images
RL -
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RL -
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Dispersion
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Diverging Lenses
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Double Lens Systems
RL -
Lensmaker Equation
RL -
Mirror Equation
RL -
Properties of Plane Mirrors
RL -
Refraction of Light
RL -
Refraction Phenomena
RL -
Snell's Law
RL -
Snell's Law: Derivation
RL -
Spherical Mirrors
RL -
Thin Lens Equation
Review:
REV -
Drill: Reflection and Mirrors
REV -
Mirror Properties
REV -
Physics I Honors: 2nd 9-week notebook
REV -
Physics I: 2nd 9-week notebook
REV -
Spherical Lens Properties
Worksheet:
APP -
Enlightened
APP -
Reflections
APP -
The Librarian
APP -
The Starlet
CP -
Lenses
CP -
Plane Mirror Reflections
CP -
Refraction of Light
CP -
Snell's Law
CP -
Snell's Law
NT -
Image Distances
NT -
Laser Fishing
NT -
Mirror Height
NT -
Mirror Length
NT -
Reflection
NT -
Underwater Vision
WS -
An Extension of Snell's Law
WS -
Basic Principles of Refraction
WS -
Converging Lens Vocabulary
WS -
Diverging Lens Vocabulary
WS -
Lensmaker Equation
WS -
Plane Mirror Reflections
WS -
Refraction and Critical Angles
WS -
Refraction Phenomena
WS -
Refraction Through a Circular Disk
WS -
Refraction Through a Glass Plate
WS -
Refraction Through a Triangle
WS -
Snell's Law Calculations
WS -
Spherical Mirror Equation #1
WS -
Spherical Mirror Equation #2
WS -
Spherical Mirrors: Image Patterns
WS -
Thin Lens Equation #1: Converging Lenses
WS -
Thin Lens Equation #2: Converging Lenses
WS -
Thin Lens Equation #3: Both Types
WS -
Thin Lens Equation #4: Both Types
WS -
Two-Lens Worksheet
WS -
Two-Mirror Worksheet
TB -
27B: Properties of Light and Refraction
TB -
Refraction Phenomena Reading Questions
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