Quantum Weirdness: Solving the Measurement Problem?

[Ratzinger]

Has string theory or any other quantum-gravity theory the potential or the intention solving quantum weirdness (measurement problem, quantum reality)?

 

[marcus]

Has string theory or any other quantum-gravity theory the potential or the intention solving quantum weirdness (measurement problem, quantum reality)?

Hi Ratzinger, always nice to hear from you, and think of Acapulco.
my understanding is that weirdness is dealt with in other lines of research like FOUNDATIONS OF QUANTUM MECHANICS
and Quantum Information/Quantum Computing.

In Quantum Gravity you may get people ENCOUNTERING new instances of weirdness, as they try to build a model around the shape of the universe, and they may occasionally bark their shins on new weirdness and stumble on it. I COULD BE MISSING SOMETHING but I don't hear QG people promising that they are going to resolve the Riddles of Interpretation and all that.

Maybe they will by accident. Because it looks like QG is being forced to invent a new non-manifold kind of spacetime. The old manifold-type spacetimes used in String Theory and Quantum Field Theory, the routine setups used for perturbative approximations, seem finally IMHO just not working well enough. And these are the spacetimes that Quantum Theories have always been done on. So, it could be that when the QG people have a non-manifold spacetime they will find that formulating fields on that new model will make some of the quantum oddities go away.

BTW in a humorous note, here is something from next months conference outside Berlin:

HOW I LEARNED TO STOP WORRYING AND LOVE NON-LOCALITY

Prof. Fotini Markopoulou
Emergent spacetime
Abstract: How I learned to stop worrying and love non-locality, It appears unavoidable that schemes of spacetime emerging as the low-energy description of a microscopic background-independent theory run into trouble with locality. We review the problem. Since it is very generic, we argue that we should look for ways to use it rather than avoid it. In particular, we investigate applications of this idea to cosmology.

 

[Entropia]

I can understand the fascination and curiosity surrounding the concept of quantum weirdness and the measurement problem in quantum mechanics. However, it is important to note that the scientific community is still actively researching and exploring this topic, and there is currently no definitive answer or solution to this problem.

String theory and other quantum-gravity theories have been proposed as potential solutions to the measurement problem and quantum weirdness. These theories attempt to unify quantum mechanics with the theory of general relativity, which describes the macroscopic world. However, these theories are still in the early stages of development and have not yet been fully tested or proven.

Additionally, the intention of these theories is not necessarily to solve the measurement problem or explain quantum reality. Their primary goal is to provide a more comprehensive understanding of the fundamental laws of the universe. While they may offer insights into the strange behavior of particles at the quantum level, they are not specifically designed to address the measurement problem.

It is important to remember that the field of quantum mechanics is constantly evolving and our understanding of it is continually expanding. While we may not have a definitive answer to the measurement problem at this time, it is through continued research and exploration that we will eventually gain a deeper understanding of the quantum world and its mysteries.