Assembly of the proved raw §7 tower fields #
This file packages the concrete objects already built over the corrected first chief
factor and the selected KernelMinimal:
R = Additive Phi(K)with the descendedC = Y/Kaction (Section7RawRLayer);M = Additive (K/Phi(K)),T = (K cap S)/Phi(K), and the descendedC-action (Section7ConcreteObjects,Section7SimpleHeadRadical);- head nontriviality and
(M^vee)^C = 0.
The remaining field of Sec7RawTowerPacket is the ambient quotient-image bridge
Subgroup.map (QuotientGroup.mk' (kernelFrattini K)) K.Ksub ~= Multiplicative M.
def
Q2Presentation.Induction.sec7RawModuleData
{p : FramedPair}
(chief : FirstNonScalarChiefFactor p)
(K : KernelMinimal chief.toNonScalarChiefFactor)
:
The raw finite objects in the corrected §7 tower.
Equations
- One or more equations did not get rendered due to their size.
Instances For
def
Q2Presentation.Induction.sec7RawActionData
{p : FramedPair}
(chief : FirstNonScalarChiefFactor p)
(K : KernelMinimal chief.toNonScalarChiefFactor)
:
MinimalBlockRawActionData (sec7RawModuleData chief K)
The descended C-actions on R and M, with stability of T.
Equations
- Q2Presentation.Induction.sec7RawActionData chief K = { actR := Q2Presentation.Induction.towerActR chief K, actM := Q2Presentation.Induction.towerActM K, T_stable := ⋯ }
Instances For
def
Q2Presentation.Induction.sec7RawTowerData
{p : FramedPair}
(chief : FirstNonScalarChiefFactor p)
(K : KernelMinimal chief.toNonScalarChiefFactor)
:
The assembled raw tower data from the concrete objects and actions.
Equations
- One or more equations did not get rendered due to their size.
Instances For
def
Q2Presentation.Induction.sec7HeadNontrivialData
{p : FramedPair}
(chief : FirstNonScalarChiefFactor p)
(K : KernelMinimal chief.toNonScalarChiefFactor)
:
The nonzero simple-head field of lem:simplehead.
Equations
- ⋯ = ⋯
Instances For
def
Q2Presentation.Induction.sec7DualInvariantData
{p : FramedPair}
(chief : FirstNonScalarChiefFactor p)
(K : KernelMinimal chief.toNonScalarChiefFactor)
:
The dual-invariant vanishing field (M^vee)^C = 0.
Equations
- ⋯ = ⋯