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Advanced Engineering Mathematics, Lecture 1.2: Linear independence and spanning sets
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Advanced Engineering Mathematics, Lecture 1.2: Linear independence and spanning sets
In any vector space V, a set S is linearly independent if there are no non-trivial ways to write the zero vector as a linear combination of elements in S. In contrast, the set S spans V if every vector in v can be expressed as a linear combination of elements in S. Finally a set B is a basis for V if it is (i) linearly independent, and (ii) spans V. Think of this as the "Goldilocks condition": B is big enough to generate V, but not too big that it has any redundancies. An equivalent definition of of basis is that every vector in V can be written *uniquely* as a linear combination of elements in B.
In any vector space V, a set S is linearly independent if there are no non-trivial ways to write the zero vector as a linear combination of elements in S. In contrast, the set S spans V if every vector in v can be expressed as a linear combination of elements in S. Finally a set B is a basis for V if it is (i) linearly independent, and (ii) spans V. Think of this as the "Goldilocks condition": B is big enough to generate V, but not too big that it has any redundancies. An equivalent definition of of basis is that every vector in V can be written *uniquely* as a linear combination of elements in B.
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