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Physlib.Particles.SuperSymmetry.SU5.ChargeSpectrum.OfFieldLabel

7 declarations

definition

Finite set of charges for field label FF in spectrum xx

#ofFieldLabel

Given a charge spectrum xx and a field label FF in an SU(5)SU(5) Grand Unified Theory, the function ofFieldLabel(x,F)\text{ofFieldLabel}(x, F) returns the finite set of charges in Z\mathcal{Z} associated with that label. For labels representing the 5ˉ\bar{\mathbf{5}} (Higgs and matter) and 10\mathbf{10} (matter) representations, it returns the corresponding set of charges defined in the spectrum xx. For labels representing the conjugate representations, it returns the set of negated charges {zzS}\{ -z \mid z \in S \}, where SS is the set of charges associated with the non-conjugated field label.

theorem

ofFieldLabel(,F)=\text{ofFieldLabel}(\emptyset, F) = \emptyset for all field labels FF

#ofFieldLabel_empty

For any field label FF in an SU(5)SU(5) Grand Unified Theory, the finite set of charges in Z\mathcal{Z} associated with that label in the empty charge spectrum \emptyset is the empty set \emptyset.

theorem

xy    ofFieldLabel(x,F)ofFieldLabel(y,F)x \subseteq y \implies \text{ofFieldLabel}(x, F) \subseteq \text{ofFieldLabel}(y, F)

#ofFieldLabel_mono

For any two SU(5)SU(5) charge spectra x,yChargeSpectrum Zx, y \in \text{ChargeSpectrum } \mathcal{Z}, if xyx \subseteq y, then for any field label FFieldLabelF \in \text{FieldLabel}, the finite set of charges associated with FF in xx is a subset of those in yy, i.e., ofFieldLabel(x,F)ofFieldLabel(y,F)\text{ofFieldLabel}(x, F) \subseteq \text{ofFieldLabel}(y, F).

theorem

xy.ofFieldLabel(fiveHd)    xy.ofFieldLabel(fiveBarHd)x \in y.\text{ofFieldLabel}(\text{fiveHd}) \iff -x \in y.\text{ofFieldLabel}(\text{fiveBarHd})

#mem_ofFieldLabel_fiveHd

In an SU(5)SU(5) Grand Unified Theory with a charge spectrum yy, a charge xZx \in \mathcal{Z} is a member of the set of charges associated with the field label fiveHd\text{fiveHd} if and only if its negative x-x is a member of the set of charges associated with the conjugate field label fiveBarHd\text{fiveBarHd}.

theorem

xy.ofFieldLabel(fiveHu)    xy.ofFieldLabel(fiveBarHu)x \in y.\text{ofFieldLabel}(\text{fiveHu}) \iff -x \in y.\text{ofFieldLabel}(\text{fiveBarHu})

#mem_ofFieldLabel_fiveHu

In an SU(5)SU(5) Grand Unified Theory with a charge spectrum yy, a charge xZx \in \mathcal{Z} is an element of the set of charges associated with the up-type Higgs field label fiveHu\text{fiveHu} if and only if its negative x-x is an element of the set of charges associated with the conjugate up-type Higgs field label fiveBarHu\text{fiveBarHu}.

theorem

xy.ofFieldLabel(fiveMatter)    xy.ofFieldLabel(fiveBarMatter)x \in y.\text{ofFieldLabel}(\text{fiveMatter}) \iff -x \in y.\text{ofFieldLabel}(\text{fiveBarMatter})

#mem_ofFieldLabel_fiveMatter

In an SU(5)SU(5) Grand Unified Theory with a charge spectrum yy, a charge xZx \in \mathcal{Z} is an element of the set of charges associated with the matter field label fiveMatter\text{fiveMatter} if and only if its negative x-x is an element of the set of charges associated with the conjugate matter field label fiveBarMatter\text{fiveBarMatter}.

theorem

(F,x.ofFieldLabel(F)=y.ofFieldLabel(F))    x=y(\forall F, x.\text{ofFieldLabel}(F) = y.\text{ofFieldLabel}(F)) \implies x = y

#ext_ofFieldLabel

Let xx and yy be two charge spectra over a charge type Z\mathcal{Z} in an SU(5)SU(5) Grand Unified Theory. If for every field label FF, the finite set of charges associated with xx for that label is equal to the finite set of charges associated with yy for that label (i.e., ofFieldLabel(x,F)=ofFieldLabel(y,F)\text{ofFieldLabel}(x, F) = \text{ofFieldLabel}(y, F) for all FF), then the charge spectra xx and yy are equal (x=yx = y).