e.) The two experimental magnifications results. Explain. geometrically related and should give the same are
e.) The two experimental magnifications results. Explain. geometrically related and should give the same are
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Please answer part E. (Highlighted)
![PES
2150 -
PHYSICS
LABORATORY II
b.) Find the experimental magnification (Mex) from the object distance (d.) and image distance
(d:).
The Experimental Magnification is -1.7
c.) Compare the theoretical magnification to the experimental magnification with a percent error
calculation.
|1.67 – 1.7|
%error =
x 100% = 1.80%
1.7
d.) Find the experimental magnification from the object height (h.) and image height (h.).
hị
Experimental Magnification
17
= -1.7
10
%3D
ho
e.) The two experimental magnifications are geometrically related and should give the same
results. Explain.
Indieate the sooleen vour
lod
Houm rev dioorom ofthe theoratioal oonficmration](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Fca2f9b55-192d-4d11-af1a-09dd4cdb3489%2F484901ab-fa69-456d-9b85-07d152128d82%2Fehlj8a_processed.jpeg&w=3840&q=75)
Transcribed Image Text:PES
2150 -
PHYSICS
LABORATORY II
b.) Find the experimental magnification (Mex) from the object distance (d.) and image distance
(d:).
The Experimental Magnification is -1.7
c.) Compare the theoretical magnification to the experimental magnification with a percent error
calculation.
|1.67 – 1.7|
%error =
x 100% = 1.80%
1.7
d.) Find the experimental magnification from the object height (h.) and image height (h.).
hị
Experimental Magnification
17
= -1.7
10
%3D
ho
e.) The two experimental magnifications are geometrically related and should give the same
results. Explain.
Indieate the sooleen vour
lod
Houm rev dioorom ofthe theoratioal oonficmration
![PES
2.) Using the intercept of your best-fit line, determine the focal length of the lens. Compare this
calculated value (f) to the stated value of +250 mm with a percent error calculation.
0.00394
= 253.81 mm
|253.81 - 250|
%error =
x 100% = 1.52%
250
253.81
mm
250
mm
Percent error=
1.52
%
3.) Plotting 1/d vs 1/d seems like a strange thing to plot. Explain why these ratios were chosen.
4.) Data collected for the convex lens with the object located at a distance of 400 mm:
Magnification
Focal Length f
+250 mm
Object Distance d,
+400 mm
Image Distance d
680 mm
Object Height h,
10 mm
Image Height hi
-17 mm
a.) Calculate the expected (theoretical) value for the magnification (M) using focal length f)
and object distance (d.).
1 1
1
f u
1
1
1
= 0.0015
400
250
1
= 666.67
0.0015
666.67
v
m =-
= -1.67
400
画](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Fca2f9b55-192d-4d11-af1a-09dd4cdb3489%2F484901ab-fa69-456d-9b85-07d152128d82%2F7w4oib_processed.jpeg&w=3840&q=75)
Transcribed Image Text:PES
2.) Using the intercept of your best-fit line, determine the focal length of the lens. Compare this
calculated value (f) to the stated value of +250 mm with a percent error calculation.
0.00394
= 253.81 mm
|253.81 - 250|
%error =
x 100% = 1.52%
250
253.81
mm
250
mm
Percent error=
1.52
%
3.) Plotting 1/d vs 1/d seems like a strange thing to plot. Explain why these ratios were chosen.
4.) Data collected for the convex lens with the object located at a distance of 400 mm:
Magnification
Focal Length f
+250 mm
Object Distance d,
+400 mm
Image Distance d
680 mm
Object Height h,
10 mm
Image Height hi
-17 mm
a.) Calculate the expected (theoretical) value for the magnification (M) using focal length f)
and object distance (d.).
1 1
1
f u
1
1
1
= 0.0015
400
250
1
= 666.67
0.0015
666.67
v
m =-
= -1.67
400
画
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