Hi there,
This is Miraz, a Ph.D. student in the "Department of Mathematics" of a reputed university in the United States of America (USA). I love to learn and share math on YouTube. Thanks!
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Types of Linear Transformation: Identity, Zero, Injective(one-to-one), Bijective(onto) & Surjective.
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Thm 2.5 : Let T:V→W be linear. Equivalent statements: T is one-to-one ⇔ T is onto ⇔ rank(T)= dim(V).
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Ex 10: Determine the dim(R(T)) ; where T:P2(R)→M(2×2)(R) and T(f(x)) = ((f(1)-f(2) & 0 @ 0 & f(0))).
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(Dimension/Rank-Nullity Theorem): Statement and proof have been explained in detail to all students.
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Corollary 2 (Replacement Theorm): An independent subset extends (generating set reduced) to a basis.
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Corollary 2 (Replacement Thm): Number of vectors in a generating (independent) set and become basis.
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Thm 1.8: Set β is a basis for V ⇔ each v ∈ V can be uniquely expressed as lin. com. of vectors in β.
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Thm 1.7: Let 𝑆 ⊆ 𝑉 inde. & 𝑣 ∈ 𝑉 that is not in 𝑆. Then 𝑆 ∪ {𝑣} is linearly dependent ⇔ 𝑣 ∈ span(𝑆).
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(Independent & Dependent): Definition and examples of linearly independent & dependent subsets of V.
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(Span & Generate): Defining "Span of S" and "Generating V" with examples (explained key differences)
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Thm 1.5: For S⊆V, span(S) is a subspace of V & span (S) is contained in every subspace containing S.
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Thm 1.1 (Corollary 1, 2): A vector space has a unique additive identity and unique additive inverse.
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