Chapter 32: Problem 31
Find the minimum telescope aperture that could resolve an object with angular diameter 0.35 arcsecond, observed at 500 -nm wavelength. (Note: 1 arcsec \(=1 / 3600^{\circ} .\) )
Chapter 32: Problem 31
Find the minimum telescope aperture that could resolve an object with angular diameter 0.35 arcsecond, observed at 500 -nm wavelength. (Note: 1 arcsec \(=1 / 3600^{\circ} .\) )
All the tools & learning materials you need for study success - in one app.
Get started for freeOn the screen of a multiple-slit system, the interference pattern shows bright maxima separated by \(0.86^{\circ}\) and seven minima between each bright maximum. (a) How many slits are there? (b) What's the slit separation if the incident light has wavelength \(656.3 \mathrm{nm} ?\)
You're investigating an oil spill for your state environmental protection agency. There's a thin film of oil on water, and you know its refractive index is \(n_{\text {oil }}=1.38 .\) You shine white light vertically on the oil, and use a spectrometer to determine that the most strongly reflected wavelength is \(580 \mathrm{nm}\). Assuming first-order thin-film interference, what do you report for the thickness of the oil slick?
Your molecular biology lab studies proteins, and you're frustrated because your microscopes can't quite resolve crystallized proteins. A sales rep touts the advantages of an expensive microscope using 200 -nm ultraviolet light, saying you'll be able to resolve structures less than half the size that's resolvable with your optical microscopes. Is the sales rep correct?
The interference pattern from two slits separated by \(0.37 \mathrm{mm}\) has bright fringes with angular spacing \(0.065^{\circ} .\) Find the light's wavelength.
In deriving the intensity in double-slit interference, why can't you simply add the intensities from the two slits?
What do you think about this solution?
We value your feedback to improve our textbook solutions.