  The Tambara-Yamagami (TY) fusion category symmetry
$\text{TY}(\mathbb{A},\chi,\epsilon)$ describes the enhanced non-invertible
self-duality symmetry of a $2$-dim QFT under gauging a finite Abelian group
$\mathbb{A}$. We generalize the enhanced non-invertible symmetries by
considering twisted gauging which allows stacking $\mathbb{A}$-SPT before and
after the gauging. Such non-invertible symmetries correspond to invertible
anyon permutation symmetries of the $3$-dim SymTFT. Consider a finite group $G$
formed by (un)twisted gaugings of $\mathbb{A}$, a $2$-dim QFT invariant under
topological manipulations in $G$ admits non-invertible $\textit{$G$-ality
defects}$. We study the classification and the physical implication of the
$G$-ality defects using SymTFT and the group-theoretical fusion categories,
with three concrete examples. 1) Triality with $\mathbb{A} = \mathbb{Z}_N
\times \mathbb{Z}_N$ where $N$ is coprime with $3$. The classification is
acquired previously by Jordan and Larson where the data is similar to the
$\text{TY}$ fusion categories, and we determine the anomaly of these fusion
categories. 2) $p$-ality with $\mathbb{A} = \mathbb{Z}_p \times \mathbb{Z}_p$
where $p$ is an odd prime. We consider two such categories
$\mathcal{P}_{\pm,m}$ which are distinguished by different choices of the
symmetry fractionalization, a new data that does not appear in the TY
classification, and show that they have distinct anomaly structures and spin
selection rules. 3) $S_3$-ality with $\mathbb{A} = \mathbb{Z}_N \times
\mathbb{Z}_N$. We study their classification explicitly for $N < 20$ via
SymTFT, and provide a group-theoretical construction for certain $N$. We find
$N=5$ is the minimal $N$ to admit an $S_3$-ality and $N=11$ is the minimal $N$
to admit a group-theoretical $S_3$-ality.
