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The functor $F$ is pseudomonic.
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The functor $F$ satisfies the following conditions:
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The functor $F$ is faithful, i.e. for each $A,B\in \text{Obj}\webleft (\mathcal{C}\webright )$, the action on morphisms
\[ F_{A,B} \colon \textup{Hom}_{\mathcal{C}}\webleft (A,B\webright ) \to \textup{Hom}_{\mathcal{D}}\webleft (F_{A},F_{B}\webright ) \]
of $F$ at $\webleft (A,B\webright )$ is injective.
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For each $A,B\in \text{Obj}\webleft (\mathcal{C}\webright )$, the restriction
\[ F^{\textup{iso}}_{A,B} \colon \textup{Iso}_{\mathcal{C}}\webleft (A,B\webright ) \to \textup{Iso}_{\mathcal{D}}\webleft (F_{A},F_{B}\webright ) \]
of the action on morphisms of $F$ at $\webleft (A,B\webright )$ to isomorphisms is surjective.
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We have an isocomma square of the form in $\mathsf{Cats}_{\mathsf{2}}$ up to equivalence.
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We have an isocomma square of the form in $\mathsf{Cats}_{\mathsf{2}}$ up to equivalence.
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For each $\mathcal{X}\in \text{Obj}\webleft (\mathsf{Cats}\webright )$, the postcomposition1 functor
\[ F_{*}\colon \mathsf{Fun}\webleft (\mathcal{X},\mathcal{C}\webright )\to \mathsf{Fun}\webleft (\mathcal{X},\mathcal{D}\webright ) \]
is pseudomonic.