Proposition 1.10.7(ii): if X and Y admit right duals X' and Y', then Y' ⊗ X' is
naturally a right dual of X ⊗ Y via the standard exact pairing built from the duals of the factors.
Proposition 1.10.7(ii): the right dual of X ⊗ Y is Yᘁ ⊗ Xᘁ.
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Proposition 1.10.7(ii): the left dual of X ⊗ Y is (ᘁY) ⊗ (ᘁX).
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Proposition 1.10.9(i), first equation: the natural Hom-adjunction
Hom(U ⊗ V, W) ≃ Hom(U, W ⊗ Vᘁ) when V has a right dual.
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Proposition 1.10.9(i), second equation: the natural Hom-adjunction
Hom(Vᘁ ⊗ U, W) ≃ Hom(U, V ⊗ W) when V has a right dual.
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Proposition 1.10.9(i): the functor - ⊗ V is left adjoint to - ⊗ Vᘁ when V has a right dual.
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Proposition 1.10.9(i): the functor Vᘁ ⊗ - is left adjoint to V ⊗ - when V has a right dual.
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Proposition 1.10.9(ii), first equation: the natural Hom-adjunction
Hom(U ⊗ ᘁV, W) ≃ Hom(U, W ⊗ V) when V has a left dual.
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Proposition 1.10.9(ii), second equation: the natural Hom-adjunction
Hom(V ⊗ U, W) ≃ Hom(U, ᘁV ⊗ W) when V has a left dual.
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Proposition 1.10.9(ii): the functor - ⊗ ᘁV is left adjoint to - ⊗ V when V has a left dual.
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Proposition 1.10.9(ii): the functor V ⊗ - is left adjoint to ᘁV ⊗ - when V has a left dual.
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Proposition 1.10.9: the pair of tensor-dual adjunctions associated to a right dualizable object, packaging both the right-tensor and left-tensor adjunctions in a single statement.