Supersymmetry posits that every boson has a corresponding fermion partner, and vice versa, with the two particles differing only in their spin.

Sparticles are the hypothetical superpartners of known particles, such as the selectron (superpartner of the electron) and the squark (superpartner of the quark).

Supersymmetry is a symmetry principle that relates bosons and fermions, postulating that every boson has a corresponding fermion partner, and vice versa.

Supersymmetry is primarily motivated by the need to address the hierarchy problem, which seeks to explain why the weak force is much weaker than the strong force.

Supersymmetry predicts the existence of superpartners for known particles, such as the selectron (superpartner of the electron) and the squark (superpartner of the quark).

The minimal number of supersymmetric generators required in a supersymmetric theory is four, corresponding to the four different types of supersymmetry transformations.

Lorentz transformation is not a type of supersymmetry transformation. Supersymmetry transformations involve the interchange of bosons and fermions, while Lorentz transformations involve rotations and boosts in spacetime.

The gravitino is the hypothetical particle that mediates the force between superpartners. It is the superpartner of the graviton, which mediates the force of gravity.

Supersymmetric theories do not violate Lorentz invariance. Lorentz invariance is a fundamental symmetry of spacetime, and any theory that violates it would be inconsistent with our understanding of physics.

Supersymmetry is the symmetry that relates bosons and fermions. It posits that every boson has a corresponding fermion partner, and vice versa.

Supersymmetry predicts the existence of superpartners for known particles, such as the selectron (superpartner of the electron) and the squark (superpartner of the quark).

The minimal number of supersymmetric generators required in a supersymmetric theory is four, corresponding to the four different types of supersymmetry transformations.

Lorentz transformation is not a type of supersymmetry transformation. Supersymmetry transformations involve the interchange of bosons and fermions, while Lorentz transformations involve rotations and boosts in spacetime.

The gravitino is the hypothetical particle that mediates the force between superpartners. It is the superpartner of the graviton, which mediates the force of gravity.

Supersymmetric theories do not violate Lorentz invariance. Lorentz invariance is a fundamental symmetry of spacetime, and any theory that violates it would be inconsistent with our understanding of physics.