Thomas Young
... monitored with a detector designed to detect wave characteristics. When monitored with a detector designed to detect particle characteristics, light demonstrates those too.
Thomas Young, by highlighting interferene effects.
Both. E = mc2(squared) wave is an energy form while m is mass (particle) einstein proved that light acts as wave and particle at the same time.
Reflective Polarization from a surface.
Both. E = mc2(squared) wave is an energy formwhile m is mass (particle)einstein proved that light acts as wave and particle at the same time.
... monitored with a detector designed to detect wave characteristics. When monitored with a detector designed to detect particle characteristics, light demonstrates those too.
-- If the detector is designed to detect wave characteristics, then light exhibits all the characteristics and behavior of a wave when it encounters that detector. -- If the detector is designed to detect particle characteristics, then light exhibits all the characteristics and behavior of a particle when it encounters that detector.
Thomas Young, by highlighting interferene effects.
Both. E = mc2(squared) wave is an energy form while m is mass (particle) einstein proved that light acts as wave and particle at the same time.
Light doesn't change from one to the other. It's both all the time. If you design an experiment that reveals wave characteristics, light delivers them, and if you design an experiment that reveals particle characteristics, light delivers them too. If anyone asks "Is light a wave or a particle ?", the best answer is "Yes".
Christian Huygens' was one of the first to suggest that light was a wave. His theory, the wave theory of light, stated this, it was opposed by Newton's idea that light was a particle. More recently, scientists such as Thomas Young and Max Planck proved this theory with experiments. So, simply put, the wave theory states that light is a wave, which, as far as we know, is correct.
Reflective Polarization from a surface.
Both. E = mc2(squared) wave is an energy formwhile m is mass (particle)einstein proved that light acts as wave and particle at the same time.
Not sure what you mean, as the photon is classified as a separate particle. Light, like electrons, sometimes displays particle characteristics and sometimes displays wave characteristics.
Light shows wave properties through different conditions such as reflection, diffraction, refraction, Poisson's spot, polarization, and interference.
a wave model of light.
The particle (photon) and wave (wavelength) characteristics of light. E =hf = zQ2c/w where Q is the photon charge and w is the wavelength. One problem with the above answer: the charge of a photon is zero. E(photon) = hf where 'h' is Planck's Constant and 'f' is the frequency of the vibrations of light. hf = hc/w where 'c' is the speed of light and 'w' is the wavelength of the light. The more correct answer on "What are the dual characteristics of light" is that light will sometimes act like a wave and sometimes act like a particle -- and what it acts like depends on what experiment you are performing.