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The wavelength (denoted by Greek letter Lambda) is the minimum distance between any two corresponding points on a wave that are in the same stage of the cycle. This distance is usually measured from peak to peak (crest to crest or trough to trough). Wavelength is a distance and is usually measured in meters.
The answer depends on the height of what? The method required for a person, a building, a mountain peak, a cloud would be different.
the peak
Non-Coincident Peak (NCP) is the individual or actual peak demands of each load in an electrical system oftentimes occurring at different hours of the day. It does not necessarily fall during system peak. (This is what i understood about NCP...I gladly welcome corrections)
Amount of space between two Points
The type of electromagnetic waves that will be emitted by a cooler object are waves with long wavelengths. The wavelength of peak emission is determined by Wien's Law.
The peak wavelength, is connected to the temperature of the objects. we have short peak wavelength when the temperature is high.
The wavelength.
The wavelength.
you label a wavelength with amplitude, wavelength, through, and peak.
the four parts of a wavelength are the peak, trough, wavelength, and the amplitude.
The distance from on peak to the next peak
First, the energy emitted at every wavelength is higher for the hotter star. Secondly, the peak wavelength of the hotter star is shorter than that of the 4000K one.
The peak-to-peak amplitude is the distance from the trough to the crest. The wavelength is the distance from one crest to the next crest.
Wavelength is the distance between the crests in waves. It is also the distance between one peak of a wave to the next corresponding peak.
This question has a real subtlety in it. The simplest answer is given by Wein's Law, sometimes called Wein's Displacement Law: The peak of the spectrum for any "blackbody" (this works approximately for stars and people, basically any opaque object). Wavelength of peak emission = (Stefan's constant, which you can look up) x 0.0029meter / temperature in Kelvins. According to this formula, the peak is in the green part of the spectrum. But a lot of light is given off across the visual part of the spectrum so it looks whitish to me. Here's the subtlety that few people realize. This all works only when you plot the spectrum as the emission per unit wavelength. You can also plot the emission per unit frequency. Then the peak is at a different location!
Wavelength