What're the superspace formulations of SUSY Yang-Mills of D=10, N=1,2,4,8,16,32?

In summary, the superspace formulation of 10D SYM is not the same as 4D SYM for N=1, with differences in the coefficient and gamma matrices. The superspace formulation is available for N=2, 4 in extended SUSY, but not for N=8, 16, or 32. The number "N" refers to the number of supersymmetries. In 10D, there is one supercharge with a maximum of 32 SUSY components. However, for low dimensions, it is believed that the maximum number of SUSY for any theory is 4, and 8 for pure gauge theories. The reason for this limitation is still unknown.
  • #1
Osiris
20
0
When N=1, is the superspace formulation of 10D SYM the same as the 4D SYM, except the differences of the coefficient and gamma matrices?

For the extended SUSY in 10D, are the superspace formulation available for N=2, 4?

How about N=8, 16, and 32?


Thanks for any tips you may tell me.
 
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  • #2
As far as I know, the superspace formulation exists only for N=1.
 
  • #3
"N" I mean here is the number of supersymmetries.

For 10D, there is one supercharge with maximally 32 SUSY components.

But for low dimension, why it is said that we could have good superspace formulation for at most 4 supersymmetries for any theory and at most 8 SUSY for pure gauge theories.

What's the consideration here?
 

1. What is superspace formulation in SUSY Yang-Mills theory?

The superspace formulation in SUSY Yang-Mills theory is a mathematical framework that allows for the incorporation of supersymmetry (SUSY) into Yang-Mills theory. It involves introducing additional dimensions, called "superspace," to describe the interactions between particles with different spin states.

2. What does D=10 in the superspace formulation refer to?

The notation D=10 refers to the number of dimensions in the superspace formulation. In this case, D=10 means that there are 10 dimensions, including the usual three spatial dimensions and one time dimension, as well as additional dimensions to account for the spin states of the particles.

3. What is the significance of N=1, 2, 4, 8, 16, 32 in the superspace formulation?

The notation N=1, 2, 4, 8, 16, 32 refers to the number of supersymmetries in the theory. This means that for each value of N, there are different types of supersymmetry transformations that relate particles with different spin states. The higher the value of N, the more symmetries and transformations are involved in the theory.

4. How does the superspace formulation differ from traditional Yang-Mills theory?

The superspace formulation differs from traditional Yang-Mills theory in that it incorporates supersymmetry, which allows for the interactions between particles with different spin states. This allows for a more complete and unified description of particle interactions and can provide solutions to certain problems in traditional Yang-Mills theory, such as the hierarchy problem.

5. What are the potential applications of the superspace formulation of SUSY Yang-Mills of D=10, N=1,2,4,8,16,32?

The superspace formulation of SUSY Yang-Mills theory has various potential applications in theoretical physics. It can help in understanding the fundamental interactions between particles, as well as providing insights into the nature of dark matter and the early universe. It also has potential applications in developing more accurate and comprehensive theories of quantum gravity.

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