Introduction
Have you ever thought about how the universe expands, or perhaps how everything that we experience came to be? Many brilliant minds in the past and in the present have.
We're constantly looking into how our own universe works and continuously integrating its inner workings into several different categories in computing.
That's what we're looking into today, more specifically how quantum entropy is being used for simulations and forecasts with some real examples from my own research.
What is quantum entropy?
Quantum entropy is measured by detecting quantum expansion in the universe, it is a commonly agreed theory that quantum expansion is caused by the "big bang" or "start of the universe" which released a tremendous amount of energy.
We can measure this quantum expansion using quantum sensors such as those at the University of Western Australia by detecting quantum particles that "come into existence" throughout a limited area in the universe.
Side note: As previously mentioned in some of my earlier articles, the "heat death" theory states that as the universe expands the natural level of entropy is dissipated over a larger area and lowers the further you are away from the creation of the universe, becoming much "colder".
How are you using it?
I'm using it to generate series of random numbers, replacing random integer functions in common programming languages such as Python and C#.
The standard random number generators use the CPU to generate the numbers which are deterministic and are called "pseudo random".
In my programs, I'm using it to forecast earthquakes less than 1% of the time in my random forest algorithm as this is the sweet spot and in my three dimensional universe simulator to "instantiate" atoms.
Is quantum entropy really that important?
Yes! It's also now more understood than ever before and literally anyone can obtain numbers generated by it. It's really important to understand what other natural phenomenon or entropy based systems this could apply to.
Simply being in the same state of the universe, even if the numbers are different give us an advantage over pseudo random number generation in computing and it's still a very new field.
We could save lives, understand our own universe and plan for the future by using quantum entropy which will be more likely than not be distributed with pseudo entropy systems as there is often a ratio between deterministic behaviour and true entropy.
Conclusion
To conclude, we've talked about some pretty interesting and newly emerging technical subjects. Perhaps one day we'll see the introduction of these studies more in our daily lives.
There is much to learn about our universe and how the laws of it apply to modern computing, which is one of the main reasons I love my work so much.
Hopefully I've been able to share some knowledge and have inspired you to do some of your own research.
If you're interested in joining me on my quest for knowledge of the universe, please get in touch and we can always collaborate.
Gallery
Here are some other images from my quantum visualisation:
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