Dep inelastic scattering with graviton as propogater

[raj07]

consider deep inelastic scattering of e-p.assuming that a graviton acts as a propogater in this interaction how would it effect the structure functions of the proton.now we have a spin 2(graviton) instead of the usual spin 1(photon).basically what is the effect of this spin change on the structure functions of proton.

 

[humanino]

what is the effect of this spin change on the structure functions of proton.

You would get more elaborate Lorentz structures, therefore richer form factors and hence essentially more information on the proton structure. Namely, you would be sensitive to the distributions of masses, angular momentum and shear forces.

 

[sir-pinski]

The use of a graviton as a propagator in deep inelastic scattering of e-p would have a significant effect on the structure functions of the proton. This is because the graviton has a spin of 2, which is different from the usual spin 1 of the photon that is typically used in deep inelastic scattering experiments.

Firstly, the spin 2 of the graviton would result in a different scattering cross-section compared to that of a spin 1 particle. This is because the spin of a particle affects its interaction with other particles, and a spin 2 particle would have a different interaction strength and angular momentum transfer compared to a spin 1 particle. This would lead to a change in the overall structure of the scattering data and the resulting structure functions of the proton.

Moreover, the spin 2 of the graviton would also affect the polarization of the scattered particles. In deep inelastic scattering experiments, the polarization of the particles is an important factor in determining the structure functions of the proton. With a spin 2 graviton, the polarization of the particles would be different from what is expected with a spin 1 photon, resulting in a change in the structure functions.

Overall, the use of a graviton as a propagator in deep inelastic scattering of e-p would have a significant impact on the resulting structure functions of the proton. The change in spin would lead to differences in the scattering cross-section, polarization, and ultimately the structure functions. This highlights the importance of considering the spin of particles in deep inelastic scattering experiments and the potential for using alternative particles, such as the graviton, in these types of experiments.