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Galileo discovered the moons of Jupiter in the fall of \(1609 .\) He used a telescope of his own design that had an objective lens with a focal length of \(f_{\mathrm{g}}=40.0\) inches and an eyepiece lens with a focal length of \(f_{c}=2.00\) inches. Calculate the magnifying power of Galileo's telescope.

Short Answer

Expert verified
Answer: The magnifying power of Galileo's telescope is 20.

Step by step solution

01

Write down the formula for magnification of a telescope

The magnification of a telescope is given by the formula: \(m = \frac{f_{g}}{f_{c}}\) where \(m\) is the magnification, \(f_g\) is the focal length of the objective lens, and \(f_c\) is the focal length of the eyepiece lens.
02

Plug in the given values

We are given the focal lengths of the objective lens (\(f_g = 40.0\) inches) and the eyepiece lens (\(f_c = 2.00\) inches). Now we can plug in these values into the magnification formula: \(m = \frac{40.0 \, \text{inches}}{2.00 \, \text{inches}}\)
03

Calculate the magnification

Now we can solve for the magnification: \(m = \frac{40.0 \, \text{inches}}{2.00 \, \text{inches}} = 20\) The magnification of Galileo's telescope is 20. This means that the image seen through the telescope is 20 times larger than what is seen with the naked eye.

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Most popular questions from this chapter

A camera has a lens with a focal length of \(60 . \mathrm{mm}\). Suppose you replace the normal lens with a zoom lens whose focal length can be varied from \(35 . \mathrm{mm}\) to \(250 . \mathrm{mm}\) and use the camera to photograph an object very far away. Compared to a 60.-mm lens, what magnification of the image would be achieved using the \(240 .-\mathrm{mm}\) focal length?

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