Fractal: Wave Particle Duality
I have since published in 2023:
This entry is one of a set of entries on the fractal and their strange (quantum-like) nature. I use the word quantum because no other area of knowledge comes close to explaining or relating to the discoveries I am making with fractal geometry. Blair 11,03,2013
Wave and particle Duality - and the fractal
The fractal demonstrating a (discrete) particle:
The (Koch Snowflake) fractal (above) is a wave-like object.
As can be seen, the perimeter of the formed fractal is made up of an infinity of triangles/'particles', and these together act as or form a wave. When a change is made to one of the triangles (the red dot on iteration 0), and this change is iterated, as demonstrated, the wave is revealed. Any change to the triangles/ particles will 'mutate' or change the shape of the fractal and be viewed as a pulse, propagating, cycling round and round every 6 iterations (in the case of the Koch Snowflake), forming, if one were to view a change made to the fractal from a Front Elevation view, a pulse in the form of a classic wave.
Logarithmic Spiral-Wave function:
Below are images and formulas relating to my discovery - these issues need to be explored:
Standing wave
From a Plan view – the cross-section view – the fractal is a standing wave. The attractor is a standing wave.
I have often thought of the economy as being a standing wave – activity being the flow.
Wave and particle Duality - and the fractal
The entry below is a discovery, not an explanation. I (intend to) write what I see and what I expect I have found—I do not pretend to fully understand.
Just as the atom can 'weirdly' be described as being both a particle and as a ‘smeared out’ wave at the same time, so too, as I shall demonstrate, can the fractal be described in such a way - only for the fractal it is not so weird.
Just as the atom can 'weirdly' be described as being both a particle and as a ‘smeared out’ wave at the same time, so too, as I shall demonstrate, can the fractal be described in such a way - only for the fractal it is not so weird.
The fractal demonstrating a (discrete) particle:
The fractal is defined by a pattern, object or shape repeating or
iterating. The Koch
Snowflake (below) demonstrates this iterating - the triangle represents the particle. The triangle (in the Koch snowflake) is a real - but a discrete -
object; when grouped or iterated, the group or repeating
collection creates or forms a snowflake - just as the many branches (on a tree) make a tree.
There are (in principle) an infinite amount of triangles expanding both into and out of the point of observation in the fractal (below).
On the superposition fractal (above), the position and scale of any one triangle – or 'particle' – cannot be determined without a reference, observation or measurement. When this observation is made, the superposition fractal (taken from quantum mechanics) 'collapses', the shape is formed, and the fractal position and scale are known.
The fractal as a wave.
There are (in principle) an infinite amount of triangles expanding both into and out of the point of observation in the fractal (below).
Cross Section of the 'superposition (Koch snowflake) fractal |
The Koch Spiral: notice the spiral wave and discrete triangles |
.
The (Koch Snowflake) fractal (above) is a wave-like object.
As can be seen, the perimeter of the formed fractal is made up of an infinity of triangles/'particles', and these together act as or form a wave. When a change is made to one of the triangles (the red dot on iteration 0), and this change is iterated, as demonstrated, the wave is revealed. Any change to the triangles/ particles will 'mutate' or change the shape of the fractal and be viewed as a pulse, propagating, cycling round and round every 6 iterations (in the case of the Koch Snowflake), forming, if one were to view a change made to the fractal from a Front Elevation view, a pulse in the form of a classic wave.
- The wave will range through an infinite number of scales: from infinitely large amplitudes, frequencies, and wavelengths down to zero, but never reaching zero.
- The wave will move or be produced at fractal production speed.
- There are issues of spin direction, too. The spiral can spin in both directions, clockwise and or anti-clockwise.
Logarithmic Spiral-Wave function:
The fractal wave will increase in frequency and decrease in amplitude and wavelength—logarithmically—as it iterates. The wave is sinusoidal.
I can only offer the electromagnetic spectrum as an example of this phenomenon, and I thus deduce that it is a fractal phenomenon.
Electromagnetic Spectrum
The electromagnetic spectrum extends from low frequencies used for modern radio communication to gamma radiation at the short-wavelength (high-frequency) end, thereby covering wavelengths from thousands of kilometres down to a fractionof the size of an atom. It is for this reason that the electromagnetic spectrum is highly studied for spectroscopic purposes to characterize matter.[2] The limit for long wavelength is the size of the universe itself, while it is thought that the short wavelength limit is in the vicinity of the Planck length,[3] although in principle the spectrum is infinite and continuous. - from wikipedia
source:
Circular polarization
Electromagnetic wave equation
Euler's formula
The electromagnetic spectrum extends from low frequencies used for modern radio communication to gamma radiation at the short-wavelength (high-frequency) end, thereby covering wavelengths from thousands of kilometres down to a fractionof the size of an atom. It is for this reason that the electromagnetic spectrum is highly studied for spectroscopic purposes to characterize matter.[2] The limit for long wavelength is the size of the universe itself, while it is thought that the short wavelength limit is in the vicinity of the Planck length,[3] although in principle the spectrum is infinite and continuous. - from wikipedia
source:
Circular polarization
Electromagnetic wave equation
Euler's formula
Standing wave
From a Plan view – the cross-section view – the fractal is a standing wave. The attractor is a standing wave.
The correct deduction by my intuition (I admit) is not that any wave dynamic is a fractal phenomenon, but that all fractals are wave phenomena. The point is that the universe is internally infinite to all resolutions, and that at any and all resolutions it is not primarily fractal, but sinusoidal.
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ReplyDeleteI really liked the idea of Juggernaut trying to reform, and wish it would have lasted longer. Group Polarization Happens
ReplyDeleteThis was really an interesting topic and I kinda agree with what you have mentioned here! Harv Eker secrets of inner power
ReplyDeleteInteresting! I had the same thought and googled to see if anyone else is thinking the same. The entire universe appears fractal and thus why isn’t light? Fractal objects very readily have infinite and discrete properties like the Koch snowflake, a leaf, a human body etc. if light is fractal it would be a certainty rather than a paradox that it would be able to have both wave like and particle like properties. Also orbital shapes are pretty reminiscent of fractal shapes. If we use probability as a tool we will get a statistical answer. To me it makes more sense that the large scale fractal geometry we see continues into the quantum realm. Nice post!
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DeleteThanks my friend! Keep at it. Sorry I missed your comment earlier. Thank you, thank you, so nice to hear someone speak the language. We will have our day!
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