Which of the series of wavelengths are in the visible range?
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From Wikipedia: "The visible spectrum (or sometimes optical spectrum) is the portion of the electromagnetic spectrum that is visible to the human eye. Electromagnetic radiation in this range of wavelengths is called visible light or simply light. There are no exact bounds to the visible spectrum; a typical human eye will respond to wavelengths from 400 to 700 nm, although some people may be able to perceive wavelengths from 380 to 780 nm."
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We can see some infrared wavelengths, but only faintly. If you've ever been in a photographic darkroom you'll know what I mean. Or switch on an electric bar heater in a dark room. He won't be completely invisible, but close to it.
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Any three colors (or frequencies) of light which produce white light when combined with the correct intensity!\n\n"White light can also be produced by combining only three distinct frequencies of light, provided that they are widely separated on the visible light spectrum. Any three colors (or frequencies) of light which produce white light when combined with the correct intensity are called primary colors of light. There are a variety of sets of primary colors; yet,the most common set of primary colors is red (R), green (G) and blue (B). When red, green and blue light are mixed or added together with the proper intensity, white (W) light is obtained. This is often represented by the equation below:\n\nR + G + B = W\n\nIn fact, the mixing together (or addition) of these three primary colors of light with varying degrees of intensity can produce a wide range of other colors. For this reason, television sets and computer monitors produce the range of colors on the monitor by the use of of red, green and blue phosphors."
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if you mean spectroscopy and related fields here's something.\n\nspectrum:  variation of intensity with frequency or wavelength.\n\nstudy of intensity of the radiation. Basically\nyou have an unkown source of light. You tell what frequencies\n(or colours) are how much intense.\nUsually it's of the following types\n\nOptical spectroscopy (visible light)\nX -ray spectroscopy\ninfrared spectroscopy\nneutron spectroscopy\nthomson spectroscopy\nradio\n\nspectra can be absorption or emmision. \n\natomic specroscopy\nmolecular spectroscopy\n\nall this info can be used to study known materials\nand find composition of un-known materials.\nhealth purposes too
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I know that different colors are "visible" at different wavelengths.  So, depending on an increase/decrease in energy, you would be at varying wavelengths?
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All the waves you have mentioned, are electomagnetic waves. They differ in their frequency, this means, their energy. Therefore, you cannot have a radio wave the same frequency as a visible wave, its one or the other, the frequency will indicate if its radio, infrared, visible and so on. The differnt frequencies gives them their particular properties. All of them travel at the same speed.
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it is a series of lines, due primarily to the presence of hydrogen and helium and to lesser extent carbon, nitrogen and a few others. the most important lines show up in the visible part of the EM spectrum.
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here's a link to a picture of the em spectrum along with corresponding wavelengths for each type of radiation:\n\nhttp://kingfish.coastal.edu/marine/Animations/Images/Electromagnetic-Spectrum-2.png
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Radio Waves\nInfrared light\nVisible Light\nGamma Rays
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Since the UV light has particular wavelength and energy, the atoms in the florescent material absorbs that energy and goes to excited state from ground state. but it nomore stable in the excited state. so it emits an energy with is in the range of visible region with some particular wavelength and returns to ground state. the wavelength corresponding colour is visible to us....
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The electromagnetic spectrum is the range of all possible electromagnetic radiation.\n\ngo to the site below, it has the chart
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u can find out by\n\n   1/wavelength  =  R(1/(n2)^2 - 1/(n1)^2}\n    and substituting n1=3,n2=2,R(rydberg constant)= 10973731.6\n    you get wavelength in meters then find the corresponding colour of light
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We have two types of receptors (light-sensitive nerve cells) in the retina of the eye.  The two types are called 'rods' and 'cones.'  The 'rods' (so-called because of their shape) respond to low-levels of light and are useful for night vision.  However, since all rods are pretty much identical, they do not distinguish between colors ... our dim-light rod vision is "black and white."\n\nThere are three types of cones (again, so called becaues of their shape).  One responds to long-wavelengths of light, what we call the "reds".  One responds to medium-wavelengths, what we call "greens".  And the third responds to short-wavelengths (the highest energy), what we call the "blues" (unless you live in Mississippi, then the "blues" is something different :-) ).  \n\nThese ranges of wavelengths for the three types of cones are not exclusive ... they overlap.  In other words, the long-wavelength cones also respond to medium wavelengths, although to a lesser extent.  Because they overlap, every object that gives off different mixtures of wavelengths affect the different cones by different amounts.  This experience is what we call color.  (Unless you live in Britain.  They don't see in colors.  They see in colours.)
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Directly from the websites below!!\n\nTransmitted light (from the sun, light bulbs, fire, etc) is made up of a spectrum of colors. The longest wavelengths of light are on the red end of the spectrum and the shortest wavelengths are on the blue/violet end of the spectrum.\n\nWhen transmitted light such as sunlight enters our atmosphere it collides with the oxygen and nitrogen atoms. The color with the shorter wavelength is scattered more by this collision. Because violet and blue are the shortest wavelengths the sky appears to be violet / blue. But because our eyes are more sensitive to blue light than they are violet light, we perceive the sky as blue.
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If you mean by "broad band" the entire electromagnetic spectrum, visible light is a small bit (of the entire spectrum)that our eyes are able to detect.  As far as particular wavelengths/freqs and other cool info go see:\nhttp://imagine.gsfc.nasa.gov/docs/science/know_l1/emspectrum.html
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They are all the same thing..... Electromagnetic waves. Scientist called the waves with  longer wavelengths radio waves and the waves with the shorter wavelengths gamma rays. Visible light is somewhere in between.
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It depends on the wavelength of the light and its energy.