Every vector space is a subspace of itself.
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This statement is true.
A subspace is defined as a subset of a vector space that is itself a vector space under the same operations. Every vector space satisfies the axioms of a vector space, including closure under addition and scalar multiplication, associative and commutative properties, identity element(s), and additive inverses.
Therefore, since every vector space satisfies these fundamental axioms of vector space, every vector space can be considered a subset of itself, making it a subspace of itself.
In other words, the vector space itself is the largest possible subset of the vector space that satisfies the axioms of a subspace, and thus every vector space is indeed a subspace of itself.
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