Quantum Redshift: Exploring the Photoelectric Effect

In summary: Energy is not affected by time. In summary, Mike Lewis thinks that the cosmological redshift, called the "Hubble" redshift which Edwin Hubble discovered and photographed, is caused by quantum decay in light and other electric field) waves, i.e. photoelectric radiation. When emitted, light from a particular elements electronic transitions are at the same energy no matter how distant. The energy gradually fades in time, into wavetime, and the momentum (related to energy) gradually fades into distance, into wavelength. It works perfectly well in covariant space-time. Diffusion already exists in waves, in known propagation, as in a step function on an antenna.
  • #1
Mike Lewis
2
0
I think the cosmological redshift, called the "Hubble" redshift which Edwin Hubble discovered and photographed, is caused by quantum decay in light and other electric field) waves, i.e. photoelectric radiation. When emitted, light from a particular elements electronic transitions are at the same energy no matter how distant. They are actually at fairly high energy when emitted, compared with most things in space, and their wavelengths are short. During long time in space (Many millions of years or more) the energy gradually fades in time, into wavetime, and the momentum (related to energy) gradually fades into distance, into wavelength. It works perfectly well in covariant space-time. It explains the redshift fairly accurately, and does not require any complicated "big bang" or "expanding universe" theories. Diffusion already exists in waves, in known propagation, as in a step function on an antenna.

Check out the urls at

http://groups.msn.com/HubbleRedShiftbyPhotonDecay

http://members.chello.nl/~n.benschop/indx-red.htm (a mirror)

I hope you can do something with them.

Mike Lewis
 
Last edited by a moderator:
Physics news on Phys.org
  • #2
how can the energy fade, there must be an equal amount of energy in the universe at anyone time (including energy in matter and matter in black holes)

if it fades, where does it go
 
  • #3
The fading of energy that Mike mentions means: diffusion. In other words: its concentration reduces, and spreads over space; there is no loss of energy though.
Also called here: "photon decay" ( see http://members.chello.nl/~n.benschop )
which is normal in any physical process, and happens exponentially, down to zero.
If you like: due to "universal friction" everywhere (here: EM waves propagating in the ubiquitous ether. with a minute amount of decay per traveled distance). -- NB
 
Last edited by a moderator:
  • #4
Mike Lewis said:
I think the cosmological redshift, called the "Hubble" redshift which Edwin Hubble discovered and photographed, is caused by quantum decay in light and other electric field) waves, i.e. photoelectric radiation. When emitted, light from a particular elements electronic transitions are at the same energy no matter how distant.
Mike Lewis

But the red shift can more easily be exolained using the doplers effect.You theory might prove invalid because some space objects also show the blue shift.
 
  • #5
the red shift can easily be explained using doplers effect.
And how are you going to explain why some objects show blue shift using your theory.
 
  • #6
Tired light is amusing. How does light 'age'? Only mass possessing entities have time based interactions.
 
Last edited:

FAQ: Quantum Redshift: Exploring the Photoelectric Effect

What is quantum redshift?

Quantum redshift is a phenomenon in which the wavelength of light is stretched or lengthened, causing a shift towards the red end of the electromagnetic spectrum. This can occur when light is emitted from a source that is moving away from the observer at high speeds, or when it passes through a region with a strong gravitational pull.

What is the photoelectric effect?

The photoelectric effect is the emission of electrons from a material when it is exposed to light. This was first observed by Albert Einstein and explained using the principles of quantum mechanics. It is an important concept in understanding the behavior of light and matter.

How are quantum redshift and the photoelectric effect related?

Quantum redshift and the photoelectric effect are both phenomena that can be explained by the principles of quantum mechanics. Quantum redshift affects the wavelength of light, while the photoelectric effect involves the emission of electrons. Both are examples of the wave-particle duality of light.

What is the significance of studying quantum redshift and the photoelectric effect?

Studying these phenomena can help us understand the behavior of light and matter at the quantum level. This knowledge is essential for advancements in fields such as quantum computing, nanotechnology, and energy production. Additionally, these phenomena have practical applications in areas such as solar panels and photodetectors.

What are some current research areas in quantum redshift and the photoelectric effect?

Some current research areas include studying the photoelectric effect in different materials and environments, exploring the use of quantum redshift for precision measurements, and investigating the effects of quantum redshift on the expansion of the universe. Researchers are also working on developing new technologies that utilize these phenomena for various applications.

Back
Top