Physlib

Physlib.Particles.SuperSymmetry.MSSMNu.AnomalyCancellation.LineY3B3

6 declarations

definition

Linear solution aY3+bB3a Y_3 + b B_3

#lineY₃B₃Charges

Given two rational numbers aa and bb, this function constructs a charge vector in the space of linear solutions to the MSSM anomaly cancellation conditions (LinSols\text{LinSols}) by taking the linear combination aY3+bB3a Y_3 + b B_3. This represents the set of points on the line (or subspace) spanned by the specific solutions Y3Y_3 and B3B_3.

theorem

The line aY3+bB3a Y_3 + b B_3 satisfies accQuad=0\text{accQuad} = 0

#lineY₃B₃Charges_quad

For any rational numbers aa and bb, the quadratic anomaly cancellation condition accQuad\text{accQuad} vanishes for the charge vector formed by the linear combination aY3+bB3a Y_3 + b B_3. That is, accQuad(aY3+bB3)=0\text{accQuad}(a Y_3 + b B_3) = 0.

theorem

accCube(aY3+bB3)=0\text{accCube}(a Y_3 + b B_3) = 0 for all a,bQa, b \in \mathbb{Q}

#lineY₃B₃Charges_cubic

In the context of the Minimal Supersymmetric Standard Model (MSSM) anomaly cancellation conditions, let accCube\text{accCube} be the homogeneous cubic map representing the cubic anomaly cancellation condition. For any rational numbers a,bQa, b \in \mathbb{Q}, the charge vector formed by the linear combination aY3+bB3a Y_3 + b B_3 satisfies the cubic anomaly equation: accCube(aY3+bB3)=0.\text{accCube}(a Y_3 + b B_3) = 0.

definition

Full solution aY3+bB3a Y_3 + b B_3 to the MSSM ACCs

#lineY₃B₃

Given two rational numbers a,bQa, b \in \mathbb{Q}, this function constructs a full solution to the Minimal Supersymmetric Standard Model (MSSM) anomaly cancellation conditions (ACCs) from the linear combination aY3+bB3a Y_3 + b B_3. This construction incorporates the linear combination aY3+bB3a Y_3 + b B_3 (an element of the space of linear solutions) alongside the proofs that it satisfies both the quadratic anomaly condition accQuad(aY3+bB3)=0\text{accQuad}(a Y_3 + b B_3) = 0 and the cubic anomaly condition accCube(aY3+bB3)=0\text{accCube}(a Y_3 + b B_3) = 0. The resulting value is an element of the type `Sols`, representing a charge vector that satisfies all linear, quadratic, and cubic ACCs.

theorem

A(Y3,B3,R)=0A(Y_3, B_3, R) = 0 for all linear solutions RR

#doublePoint_Y₃_B₃

In the context of the anomaly cancellation conditions for the Minimal Supersymmetric Standard Model (MSSM), let AA be the symmetric trilinear form associated with the cubic anomaly equation. For any charge vector RR that satisfies the linear anomaly cancellation conditions, the trilinear form evaluated at the specific charge vectors Y3Y_3, B3B_3, and RR vanishes: A(Y3,B3,R)=0.A(Y_3, B_3, R) = 0.

theorem

Points on the line aY3+bB3a Y_3 + b B_3 are double points of the cubic ACCs (A(X,X,R)=0A(X, X, R) = 0)

#lineY₃B₃_doublePoint

In the context of the Minimal Supersymmetric Standard Model (MSSM) anomaly cancellation conditions (ACCs), let AA be the symmetric trilinear form (represented by `cubeTriLin`) associated with the cubic anomaly equation. For any rational numbers a,bQa, b \in \mathbb{Q} and any charge vector RR that satisfies the linear anomaly cancellation conditions, the trilinear form evaluated at the linear combination aY3+bB3a Y_3 + b B_3 (taken twice) and RR vanishes: A(aY3+bB3,aY3+bB3,R)=0.A(a Y_3 + b B_3, a Y_3 + b B_3, R) = 0. This shows that every point on the line through Y3Y_3 and B3B_3 is a double point of the cubic anomaly equation with respect to the space of linear solutions.