Every boson has a corresponding fermion with the same mass and spin.

Every fermion has a corresponding boson with the same mass and spin.

Every boson has a corresponding fermion with the same mass but opposite spin.

Every fermion has a corresponding boson with the same mass but opposite spin.

The Lorentz group.

The Poincaré group.

The supersymmetry group.

The conformal group.

A supersymmetric extension of the Standard Model of particle physics.

A non-supersymmetric extension of the Standard Model of particle physics.

A supersymmetric extension of the electroweak theory.

A non-supersymmetric extension of the electroweak theory.

The lightest neutralino.

The lightest chargino.

The lightest slepton.

The lightest squark.

The supersymmetric partner of the graviton.

The supersymmetric partner of the photon.

The supersymmetric partner of the gluon.

The supersymmetric partner of the Higgs boson.

A hypothetical particle that is a candidate for dark matter.

A hypothetical particle that is a candidate for the inflaton.

A hypothetical particle that is a candidate for the Higgs boson.

A hypothetical particle that is a candidate for the graviton.

Supersymmetry is not compatible with the Standard Model of particle physics.

Supersymmetry is not compatible with general relativity.

Supersymmetry is not compatible with quantum mechanics.

Supersymmetry is not compatible with any of the fundamental theories of physics.

Supersymmetry will be confirmed by future experiments.

Supersymmetry will be ruled out by future experiments.

Supersymmetry will remain an open question for future generations of physicists.

Supersymmetry will be irrelevant to future physics.

Supersymmetry is a subset of String Theory.

String Theory is a subset of Supersymmetry.

Supersymmetry and String Theory are unrelated.

Supersymmetry and String Theory are equivalent.

Supersymmetry is a necessary ingredient for Grand Unified Theories.

Grand Unified Theories are a necessary ingredient for Supersymmetry.

Supersymmetry and Grand Unified Theories are unrelated.

Supersymmetry and Grand Unified Theories are equivalent.

Supersymmetry cancels out the large contributions to the Higgs mass from the top quark.

Supersymmetry introduces new particles that cancel out the large contributions to the Higgs mass from the top quark.

Supersymmetry does not play any role in solving the hierarchy problem.

Supersymmetry creates the hierarchy problem.

There is no experimental evidence for Supersymmetry.

There is indirect experimental evidence for Supersymmetry.

There is direct experimental evidence for Supersymmetry.

There is both direct and indirect experimental evidence for Supersymmetry.

Supersymmetric particles are too heavy to be produced in current experiments.

Supersymmetric particles are too light to be detected in current experiments.

Supersymmetric particles are too weakly interacting to be detected in current experiments.

Supersymmetric particles are too unstable to be detected in current experiments.

Supersymmetry can explain the existence of dark matter.

Supersymmetry can explain the existence of dark energy.

Supersymmetry can explain the origin of the universe.

Supersymmetry can explain all of the above.

Supersymmetry research will continue to be a major focus of particle physics.

Supersymmetry research will be abandoned in favor of other theories.

Supersymmetry research will be merged with other theories to form a new theory.

Supersymmetry research will be irrelevant to future physics.