Ghideon

That seems to be a common misunderstand of the Big Bang model. There was no point in space that Big Bang "happened" ,Big Bang is an event that took place everywhere.

You still have not addressed the problems that prevents your method from being of any practical use. You seem to be repeating the same thing; describing what the non-existing software and algorithms will do while avoiding the issues that makes the method fail.

Yes. An there are classes of problems that a quantum computer cannot solve, for instance undecidable problems*. That might be one interesting thing to investigate regarding your method; does the method produce decidable or undecidable problems? *) https://en.wikipedia.org/wiki/Undecidable_problem

I do not know what that trick you mean. As far as I know universities are pretty open regarding access to published papers, at leas around here. In my opinion universities' publishing policies is not going to be a limiting factor regarding your proposed method. Why?

Can you show the calculations that gives that number? Is your idea the same concept as a thermoelectric generator? https://en.wikipedia.org/wiki/Thermoelectric_generator The spelling makes your text looking a bit funny, maybe not intended.

Convert code into something a computer can understand? That sounds like you mean a compiler. https://en.wikipedia.org/wiki/Compiler Sorry, I do not understand what you wish to discuss.

If you list the obstacles and problems that you need to overcome, may you could present a guess?

The equation [math] x^{2}=1[/math] has two solutions, [math] x=1 [/math] and [math] x=-1 [/math]. Maybe that is what you mean by two input values, I do not know. Only one of 1 and -1 may be used at a time as already stated: The above means that in [math] x^{2}=1[/math] you may use one of 1 and -1 so that: [math] (-1)^{2}=1[/math] or [math] 1^{2}=1[/math].

You have not yet addressed the problems that prevents your method from being useful. I do not know to what extent this forum thread will help. Your method as presented:

Here is a discussion that may apply: https://github.com/ethereum/web3.js/issues/2739 Fixing the issue seems to be a work in progress.

Machine learning in general is important*. Below is another paper at least partly connected to you idea; analyze scientific papers and combinations of papers to find overlooked information or suggest areas where more research could be fruitful. https://newscenter.lbl.gov/2019/07/03/machine-learning-algorithms-can-uncover-hidden-scientific-knowledge/?utm_source=thenewstack&utm_medium=website&utm_campaign=platform The paper may be behind paywall: https://www.nature.com/articles/s41586-019-1335-8 *) In my opinion, I am biased due to my profession.

For further study you may have a look at the travelling salesman problem: Here is a passage that connects to your approach, describing how trying combinations is not a practically useful approach. In your case the goal is not cheapest solution but a combination of programming constructs that solves a problem better. But in my opinion the analogy holds at an abstract level. https://en.wikipedia.org/wiki/Travelling_salesman_problem There have been many improvements that makes it possible to find solutions for larger and larger sets of cities and distances. My point is that travelling salesman problem could be a starting point for understanding why the current approach you have suggested is impractical. It may also show how scientists approached an initially impractical problem. I believe the travelling salesman problem is a reasonable start since it is easy to understand and have been studied extensively. Note: It does not solve the problem you have presented, it may act as a guide for further learning.

I asked you to show that for the inequalities you used. Please provide an answer. Here is a link to the unanswered question: scienceforums.net/.../comment=1163549

There are plenty of examples in physics where a certain mathematical framework works for some cases and not for some others. Newtonian physics vs special relativity is one such example. The physics does not have to follow the logical conclusions of the mathematics developed by Newton.

I have not used PyTorch so I can't offer an opinion but I would not be surprised if there are scenarios where PyTorch is an obvious choice. Google for instance provides Tensor Processing Units (TPUs) and TensorFlow could be a good choice when the model has suitable properties. https://en.wikipedia.org/wiki/Tensor_Processing_Unit

Please provide the details here on the forum. Please include or describe the physics that justifies the relations; the relations are not physically valid for arbitrary numbers.

It think you are missing the, or avoiding, the problem: Assuming you generate combinations of words that are allowed in a programming language: A quick calculation will show you that if you fill the entire visible universe with super computers and let them run for 13.5 billion years (roughly the time since Big Bang according to current models) that will not on average be enough to locate a solution for the approach presented.

Two relations taken from your paper: Can you show that they are valid in the physics under discussion? As Joigus said:

It would have been interesting to compare that with those who were involved in selecting material for the churches made from bricks. I am not sure they would share your view. As far as I know the churches has not been flooded. If the people that built them were to know that they would last for hundreds of years they might claim that to be "evidence" for their view rather than your view. A scientist may instead have look at climate, geology and other factors for an explanation that better suits the spirit of this forum.

A note related to algorithms; quantum computers may have impact in the future: https://en.wikipedia.org/wiki/Quantum_supremacy https://science.sciencemag.org/content/370/6523/1460 (I do not have access to check this paper) Note! I do not know if the problem described in this tread will benefit from quantum algorithms or quantum computing. My point is just that ongoing research tries to address tasks that are not practical to solve due to problems similar to the problems in OP's approach.

http://letmegooglethat.com/?q=install+the+package+within+the+Pycharm+environment. The first hit on google returns a guide for: "Install, uninstall, and upgrade packages—PyCharm"

If you manage to reduce the search space to something that will be practical I guess there would be a lot of interest. There are many different approaches* in computer science to search for solutions in efficient ways when there are too many combinations to try. But I am not aware of any efficient way to do this by generating all combinations and looking at them one by one. Your idea looks similar to a brute force attack for cracking passwords; it is not practical when there are too many combinations to test. Sorry, I do not understand the above and its connection to the topic. *) Discussing such approaches in better suited for a separate thread in mainstreams sections.

I gave this a try but I haven't been successful gathering a good description. How far have you got regarding the Weisfeiler-Lehman heuristic for graph isomorphism testing mentioned in the paper? As far as I know that works for undirected graphs. Chapter 7 of this paper mentions the excessive running time: https://www.lics.rwth-aachen.de/global/show_document.asp?id=aaaaaaaaabbtcqu I am not in a position to speculate if the researchers used undirected graphs due to performance and/or to cluster graphs with similar properties together. In any case, I find this interesting so if you have already got an answer, or anything to add to continue the discussion I am interested. In case you are interested, these show links may help Expressive power of graph neural networks and the Weisfeiler-Lehman test: https://towardsdatascience.com/expressive-power-of-graph-neural-networks-and-the-weisefeiler-lehman-test-b883db3c7c49 Introduction to Weisfeiler-Lehman https://davidbieber.com/post/2019-05-10-weisfeiler-lehman-isomorphism-test/

Side note; around here there are several churches built using bricks. Oldest one was opened in 1192. A more recent example opened in 1959.

Generating combinations is not so hard. The problem is that there are so many combinations to generate. For the approach you have provided the wait will be very long.