Well if you are not specifically interested in the visible portion of the spectrum then a red shifted EM wave is still an EM wave. You cannot red or blue shift so much that it ceases to be an EM wave of some wavelength.Emissive said:Of course. Although I am thinking about all em waves...
Emissive said:Particles emit and absorb light of certain quanta and various factors can then red or blue shift this energy. Does this mean light sometimes gets shifted into a frequency which is unable to be absorbed by any particle and therefore can longer be 'seen'? (At least until it is shifted further...)
Energy is the ability to do work or cause change. It is present in all forms of matter and can be transferred or converted from one form to another.
Particle light absorption is the process in which particles, such as atoms or molecules, absorb light energy and convert it into internal energy. This can cause the particles to vibrate or move faster, which results in a change in temperature or state of matter.
Red/blue shifting occurs when light is either absorbed or emitted by particles. When an object is moving towards an observer, the wavelengths of the emitted light are compressed, resulting in a shift towards the blue end of the spectrum. Conversely, when an object is moving away from an observer, the wavelengths are stretched, resulting in a shift towards the red end of the spectrum.
Understanding energy and red/blue shifting is crucial in many fields, including astronomy, chemistry, and physics. It helps us understand the behavior of particles and their interactions with light, which is essential in developing new technologies and understanding the universe.
By understanding energy and red/blue shifting, we can develop new technologies such as lasers, solar panels, and LED lights. These technologies rely on our understanding of particle light absorption and how to manipulate it to our advantage. Additionally, this knowledge can also help us improve existing technologies and make them more efficient.