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The degree-two Jordan-quiver Hall product

Example

Let k=Fq, let S=I1 be the simple Jordan-quiver representation, and let I2 be the indecomposable length-two Jordan block. Then [S]∗[S]=(q+1)[I(1,1)]+[I2].

Facts & Assumptions

Given: A finite field k=Fq, the nilpotent Jordan-quiver category Jk, and its untwisted Hall product.

[F1]

The middle isomorphism classes are indexed by partitions and Iλ=⨁jIλj (Jordan-quiver isomorphism classes are indexed by partitions).

[F2]

[M]∗[N] counts subobjects isomorphic to N with quotient isomorphic to M (The untwisted Hall algebra of a finitary abelian category).

[F3]

The Jordan-quiver category over a finite field is finitary, and its subobjects are invariant subspaces (Jordan-quiver categories are abelian; finite-field models are finitary).

Verification

technique · direct
1.1F1F2F3

The category is finitary by [F3], so its Hall product is defined. Any middle object contributing to [S]∗[S] has vector-space dimension two. By [F1], its type is either (1,1) or (2).

1.2F1F2F3

In I(1,1)=S⊕S, the nilpotent operator is zero, so every one-dimensional subspace is an invariant subobject by [F3], and its quotient is S. There are (q2−1)/(q−1)=q+1 such lines.

1.3F1F2F3

In I2, an invariant one-dimensional subspace must be annihilated by the nilpotent operator, so it is contained in ker⁡x. This kernel is one-dimensional, hence it is the unique such subobject by [F3], and the quotient is S.

2.1step 1.1step 1.2step 1.3∎

The two possible middle types and their counts from steps 1.1–1.3 yield the displayed Hall product.

Depends on

Used by

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Sources