Gents: Combining Chiral Currents with Translational Invariance

In summary, the paper "Gents: Combining Chiral Currents with Translational Invariance" focuses on proposing a new method for combining chiral currents with translational invariance in quantum field theories. This is important because it can improve our understanding of particle behavior and interactions in these theories. The proposed method differs from previous approaches by using a lattice regularization technique and introducing a new symmetry called "gauge entanglement symmetry". This research has the potential to advance our understanding of quantum field theory and could have implications for future technological developments. While there are no current applications of this research, it could potentially be applied to various physical systems.
  • #1
Neitrino
137
0
Gents,

Is it possible to have the not singular chiral current (singularity is due to the product of fermionic operators) and at the same time the translational invariance. Normaly to get rid of singularity in chiral current one is useing the point splitting regularisation (little shift of arguments of fermionic fields on epsilon) which spoils the translational invariance.

Thank you
 
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  • #2
My question is not correct?
 
  • #3
for your question. The issue of combining chiral currents with translational invariance is a well-known problem in theoretical physics. The chiral current, which is a vector current that couples to the left or right-handed components of a fermion field, is known to have a singularity due to the product of fermionic operators. This singularity can be removed by using a regularization technique such as point splitting, where the arguments of the fermion fields are shifted by a small amount (epsilon). However, as you mentioned, this regularization technique also breaks translational invariance, which is a fundamental symmetry in physics.

There have been various attempts to reconcile these two conflicting requirements. One possible solution is to use a different regularization method, such as dimensional regularization, which preserves translational invariance. Another approach is to introduce a background gauge field that breaks translational invariance, but restores it in the final result after performing calculations. However, both of these methods have their own limitations and are not always applicable in all situations.

Overall, the issue of combining chiral currents with translational invariance remains an active area of research in theoretical physics. It is a challenging problem, but it is important to find a solution in order to accurately describe the behavior of chiral currents in physical systems. Thank you for bringing up this interesting topic.
 

1. What is the main focus of the paper "Gents: Combining Chiral Currents with Translational Invariance"?

The main focus of this paper is to propose a new method for combining chiral currents with translational invariance in quantum field theories.

2. Why is it important to combine chiral currents with translational invariance?

Combining chiral currents with translational invariance can help us better understand the behavior of particles in quantum field theories and provide a more accurate description of their interactions.

3. How does the proposed method in this paper differ from previous approaches?

The proposed method in this paper differs from previous approaches by using a lattice regularization technique and introducing a new symmetry, known as "gauge entanglement symmetry", which allows for the combination of chiral currents and translational invariance.

4. What are the potential implications of this research in the field of quantum field theory?

This research has the potential to advance our understanding of the fundamental principles of quantum field theory and could lead to new insights into the behavior of particles at the smallest scales.

5. Are there any current applications of this research?

At this time, there are no specific applications of this research. However, the proposed method could potentially be applied to various physical systems and could have implications for future technological developments.

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