100 Views: That Is All I Ask!

 

Classical computing, as taught in computer science, electronics, and artificial intelligence, relies on electrical circuits.

Here, in quantum computing, we need something radically different: quantum circuits.

Quantum computing opens up computational possibilities that go far beyond those of classical computing for certain problems, particularly in cybersecurity and cryptography, and perhaps in the future of artificial intelligence. This is not merely a question of theoretical physics. It is a technological and strategic matter that could have profound consequences for the future of the world. So pay attention to this critical development before it is too late. Once again.

In these first four lectures, we introduce what is known as the quantum circuit model of quantum computation, and prove the universality theorems: the mathematical foundations that make universal quantum computation possible, independently of the particular physical implementation of the quantum circuits.

The coming lectures, God willing, will focus on four fundamental topics: quantum algorithms, quantum simulation, quantum engineering, and quantum errors.

Now, to allow me to continue publishing this series, I ask you to help bring the view count of these videos to at least 100. This is the absolute minimum upon which I can justify building the rest of the series.

The same applies to my series on Artificial Intelligence Physics.

As for my series on the Philosophy of Physics, I have suspended it because of the lack of interest. This does not mean, however, that I will never publish anything in it again.

There is also another series, devoted to Metaphysics and Consciousness, which I am not currently developing because of time constraints. I will return to it, God willing, when I have sufficient time.

But for the two series, Quantum Computing and Artificial Intelligence Physics, I need a little support to be able to continue. I am not asking for more than 100 views per video.

That is all I ask.

Personally, through this modest platform, and within our equally modest university, I am trying to contribute to saving theoretical physics, not only in our own country but throughout the world. I am attempting to do this through continuous research and publication in these areas, and through an effort to renew theoretical physics by bringing together the modern methods of quantum technology and artificial intelligence, on the one hand, and the traditional methods of theoretical physics, on the other.

It is precisely within this broader effort that I proposed, several years ago, the introduction of quantum computing into university teaching, and that I am now proposing the teaching of Artificial Intelligence Physics. These proposals, like these lectures, are not isolated initiatives. They are all part of my own modest personal effort to renew theoretical physics and contribute to its survival.

This is why I have said before that we are in danger. We, the people working in theoretical physics, face a danger more serious than that perceived by those working in mathematics or experimental physics, especially with the revolutionary rise of artificial intelligence.