Answered: 4. Using the thin lens equation,… | bartleby

Related questions

Question

4. Using the thin lens equation, calculate the location of the image from each lens of the Galilean
telescope you made with the -10cm and +30 cm lens combination. Describe the first image (I1) from the
30cm lens as virtual/real, upright/inverted and magnified/reduced. Then describe the final image's (I2)
location, s2'. Does it make sense for viewing the final image with a relaxed eye?

Expert Solution

Trending now

This is a popular solution!

Step by step

Solved in 2 steps with 2 images

SEE SOLUTION Check out a sample Q&A here

Blurred answer

Similar questions

A magnifying glass makes objects look bigger. Describe how a magnifying glass works. Where is the object? Where is the image? Is the image upright or inverted? Real or virtual? Briefly explain your answers in terms of what you know about lenses and ray tracing.
Magnifying glass. Relaxed vision. Now lets’ consider relaxed vision, i.e. assume that the image is formed at infinity and do ≈ f (see the figure). Determine its magnification M = θ / θ’ in terms of the focal length f and N.
2. Write down the nature of the images for the astronomical telescope, Galilean telescope and the micro- scope. Are the images inverted? Erect? Real? Virtual?
Astronomers who use ground-based telescopes spend a lot of time and effort dealing with something called seeing. Sometimes they build adaptive-optics systems to try and partially overcome it. What is seeing? Group of answer choices Stray light from buildings, cars, parking lots, streetlights, etc.., which makes the night sky brighter and thus makes it harder to see faint astronomical objects The inability of refracting telescopes to bring all colors of light to a focus at the same distance from the objective lens. Turbulence in the Earth's atmosphere that makes for blurry images of astronomical objects The ability of a spectrograph or spectrometer to spread light out into its constituent colors, thus revealing what a distant object is made of.
CanvasHW08 b Search results for 'You want to m X + sjsu.instructure.com/courses/1471955/assignments/6164425 J CanvasHW08.pdf aments CanvasHW08 I, Download O Info X Close ZOOM + Canvas Homework #8, Due Wed. 4/13 before class. You want to make a real image of a smartphone screen, and you want this image to be twice as large as the original screen. You also want the distance from the smartphone screen to the real image to be exactly 60cm. (the image may be inverted; that's fine if it is) A) Calculate the focal length of the lens you will need to make this happen. (Warning: I didn't give you either s or s', because I didn't give you any distances to the lens. So one of the first things you will need to do is to figure out exactly where the lens needs to be.) B) Show a ray-tracing diagram of your answer from part A. Be sure to only show the usual three special rays, no more, no less. Three shall be the number of the rays, and the number of the rays shall be three. 51°F 8:47 PM Clear…
A telescope is used to resolve two distant stars. By what factor will the resolution of the telescope change if the diameter of the lens is doubled? a)The resolution will increase by a factor of 4 b)The resolution will increase by a factor of 2 c)The resolution will not change, although more light will be collected. d)The resolution will decrease by a factor of 2 e)The resolution will decrease by a factor of 4 f)
3. Calculate the pixel scale of a CCD camera consisting of a Takahashi 150 telescope tube and a SBIG STF- 8300M CCD detector. The tube has an objective with a focal length of 1080mm. The CCD has pixels which are 5.6 um x 5.6um in size. Show your working.