12. Quantum Phenomena
12.1. Wave–Particle Duality as a Classic Phenomenon. .............................. 83
12.2 The quantum tunnelling is a classical phenomenon ............................. 85
Conservation of the angular momentum .............................................. 86
12.3. Conclusión .......................................................................................... 88
The hypothesis that both the universe and particles
have four spatial dimensions and the quantification of space allow the
application of the equations of macroscopic classical physics to elementary
particles, so that purely quantum phenomena such as quantum entanglement, the quantum
tunnelling, and so on can be explained through classical physics. This section explains wave–particle duality as a unique
phenomenon; the particle produces disruption of the medium (space, atoms, and
time), generating a wave in the same way that a wave is generated in
water. Also it is going to be seen in this section another
phenomenon typically quantum like is the quantum
tunneling.
12.1. Wave–Particle duality as a classic phenomenon Download Paper
In
physics, a wave is the perturbation of a means that spreads throughout the
space. The means can be of different nature such as air, water, etc.
A
particle has a mass and accordingly it occupies a place in the space whereas a
wave spreads out in the space and it is characterized for having a defined
velocity and a null mass.
Nowadays
it is considered that “the wave-particle
duality is a concept of the quantum mechanics and according to this, there are
no fundamental differences between particles and waves: the particles can
behave like waves and vice versa”.
Stephen
Hawking
We
all see that when a stone is thrown into a pond, a ripple is produced. Yet, no
one would dare to say that the stone is a wave.
When
a stone is thrown into a pond we observe the formation of circular ripples
travelling towards the outside, if we make these ripples pass throughout a slit
(zone a), under these circumstances the water behaves like a particle. If we
make a second slit, the ripple splits in two when passing throughout the slit,
in a way that each ripple interferes with the one another producing many impact
areas (zones b, c and d). Under these circumstances the water behaves like a
ripple. We can affirm, on account of the observation that the water passes
throughout the two slits that sometimes behaves like a ripple and anew like a
particle, depending on the experiment undertaken. Therefore, the water has both
ripple properties and particle properties, but such properties cannot be
deducted by its composition.
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12.3. Conclusion
The current
universe consists of different particles, energy, and space-time vacuum; all
these elements originated from the energy of the Big Bang. It is assumed that
they were initially identical and remain identical. As Einstein believed, light
is simultaneously a particle and a wave.
There
is no probability of finding a particle on the other side of the barrier. The
wave function, as we are going to see now, has nothing to do with the
probability. Simply, the energy of the particle increases momentarily, in the
same way as the skater’s energy increases, and is capable of overcoming the
barrier if he gets close enough. At all moments the particle energy verifies the
equality in the Heisenberg’s uncertainty principle.
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