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arivero said:By the way, the review of Z0 decay has some nice implications, I am sketching a brief note about it.
arivero said:OK it is ...http://dftuz.unizar.es/~rivero/research/0507169.pdf ... Going back to business as usual, it has been http://dftuz.unizar.es/~rivero/research/0507169.arxiv.txt ... removed from ArXiV. It could be that the stated result, that for any charge content of the theory Z0 decay is minimum when Weinberg angle equal to the GUT angle, were already known, but I am unaware of it.
arivero said:I am always too lazy to write self-contained documents.
Blame part on me, part on Zee's book... actually it is T3, the third component of isospin. It is 0 for the Right fermions, +1/2 for u,\nu and -1/2 for d, e. Or soHans de Vries said:For instance the "T" in your paper. Is it a 5x5 matrix related to the generators
of the SU(5) grand unified theory of Georgi and Glashow?
The "Anomaly-driven Decay of Massive Vector Bosons" theory is a theoretical framework proposed to explain the decay of massive vector bosons, such as the W and Z bosons, in high energy collisions. It suggests that the decay is due to quantum anomalies, which are deviations from classical physical laws at the quantum level.
This theory differs from other explanations in that it is based on the concept of quantum anomalies, which have been observed in other areas of physics but have not yet been directly observed in the decay of vector bosons. It also proposes a new mechanism for the decay, rather than relying on the traditional understanding of particle interactions.
There is currently no direct evidence to support this theory, as it is still a theoretical framework and has not been tested experimentally. However, it is a promising concept that has gained attention in the scientific community and is being further explored through theoretical calculations and simulations.
If this theory is proven to be true, it could have a significant impact on our understanding of particle physics and the fundamental forces of nature. It would also provide a new framework for studying the behavior of massive vector bosons and could lead to new discoveries and advancements in the field.
The potential applications of this theory are still being explored, but it could have implications for future particle accelerators and high energy experiments. It could also lead to a better understanding of the behavior of other particles and potentially open up new avenues for research in quantum anomalies and their role in particle interactions.