explanation of wave particle duality & interference
TRANSCRIPT
EXPLANATION OF WAVE PARTICLE
DUALITY AND INTERFERENCE
IN CONTEXT TO THE
MASS OF PHOTON
N. S. AGARWAL
NEW QUANTUM THEORY
Raises the curtain from the following Mysteries:
- Wave Particle Duality
- Interference & Diffraction
- Polarization
- Mass of Photon
- Formation of Electromagnetic Waves
- Refraction
MOMENTUMS ACTING ON PHOTONRESULTANT MOMENTUM
- Linear Momentum of Photon in X – Axis : mt c
- Angular Momentum at θ from X – Axis : 2𝜋 ƒ mt r2
- Total Momentum in X – Axis : mt c + 2𝜋 ƒ mt r2 Cos θ
- Total Momentum in Y– Axis : 2𝜋 ƒ mt r2 Sin θ
- Resultant Momentum in φ Direction
p φ = mt [ 4𝜋 2r 4f 2 + 4𝜋 ƒ r2 c Cos θ + c2 ] (-1/2)
- The Angle of Resultant Momentum from X – Axis is given by following equation:
tan φ = (2𝜋 ƒ mt r2 Sin θ ) / (mt c + 2𝜋 ƒ mt r2 Cos θ )
The Resultant Momentum of continuously changing direction from 0 to 3600 results in raising the Photon up and down in one wave cycle therefore the Photon particle move in the path of wave.
MASS OF PHOTON BY
SPECIAL RELATIVITY
Total Energy of Photon E = mrel c2
Total Energy = Linear Kinetic Energy +
Rotational Kinetic Energy +
Energy due to Mass of Photon
E = ½ mt c2 + ½ I ω2 + mt c2
= 3/2 mt c2 + 2 𝜋2mt r2f2
Mass of Photon mt = 2 E / (3 c2 + 4 𝜋2mt r2f2 )
MASS OF PHOTON FROM TOTAL
MOMENTUM OF PHOTON
Total Energy of Photon E = [(pφ cφ)2 + (mt c2)2]-1/2
pφ = mt [4𝜋 2r 4f 2 + 4𝜋 ƒ r2 c Cos θ + c2] (-1/2)
Therefore True Mass of Photon
mt = E / [cφ2(4𝜋 2r 4f 2 + 4𝜋 ƒ r2 c Cos θ+ c2 ) + c4]
True Mass of Photon can be calculated from the aboveequation and also from the equation given in the previousslide (assuming the value of ‘r’ to be negligibly small).
REFERENCES
1. Agarwal, N.S. (2016) Wave Particle Duality & Interference
Explained. Journal of Modern Physics, 7, 267-276.
http://dx.doi.org/10.4236/jmp.2016.73026
2. Agarwal, N.S. (2015) Experimental Proof of Mass in Photon.
Journal of Modern Physics, 6, 627-633.
http://dx.doi.org/10.4236/jmp.2015.65068
3. Agarwal, N.S. (2012) New Quantum Theory. Indian Journal of
Science and Technology, 5, 3612-3617.