Suppose V₁, Vm, and W are vector spaces. Prove that L(V₁ × ... X Vm, W) are isomorphic to L(V₁, W) × XL(Vm, W) vector spaces, where X represents the Cartesian Product. There is a shorter proof of this if one assumes that V₁, ..., Vm, and W are all finite dimensional, though one does not need to make this assumption to prove the statement.
Suppose V₁, Vm, and W are vector spaces. Prove that L(V₁ × ... X Vm, W) are isomorphic to L(V₁, W) × XL(Vm, W) vector spaces, where X represents the Cartesian Product. There is a shorter proof of this if one assumes that V₁, ..., Vm, and W are all finite dimensional, though one does not need to make this assumption to prove the statement.
Suppose V₁, Vm, and W are vector spaces. Prove that L(V₁ × ... X Vm, W) are isomorphic to L(V₁, W) × XL(Vm, W) vector spaces, where X represents the Cartesian Product. There is a shorter proof of this if one assumes that V₁, ..., Vm, and W are all finite dimensional, though one does not need to make this assumption to prove the statement.
Assume the vector spaces are finite for this problem. You don't need to do the problem for the vector spaces not being finite.
Quantities that have magnitude and direction but not position. Some examples of vectors are velocity, displacement, acceleration, and force. They are sometimes called Euclidean or spatial vectors.
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