Linear Independence Check:
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A set of vectors is linearly independent if no vector in the set can be written as a linear combination of the others. In other words, the only solution to the equation \( c_1v_1 + c_2v_2 + \cdots + c_kv_k = 0 \) is when all coefficients \( c_i = 0 \).
The calculator checks linear independence by:
Explanation: The rank of a matrix represents the maximum number of linearly independent column vectors in the matrix.
Details: Linear independence is fundamental in linear algebra. It determines whether vectors form a basis for a vector space, affects solutions to systems of equations, and is crucial in many areas of mathematics and engineering.
Tips: Enter vectors separated by semicolons (;), with components separated by commas. All vectors must have the same dimension. Example formats:
Q1: What's the difference between linear independence and orthogonality?
A: Orthogonal vectors are always linearly independent, but linearly independent vectors aren't necessarily orthogonal.
Q2: How many vectors in Rⁿ can be linearly independent?
A: At most n vectors can be linearly independent in Rⁿ.
Q3: What if my vectors have complex numbers?
A: This calculator handles real numbers only. Complex vectors require complex linear algebra.
Q4: Can I check linear independence graphically?
A: Only for 2-3 dimensions. Higher dimensions require algebraic methods like this calculator uses.
Q5: What's the relationship with determinant?
A: For n vectors in Rⁿ, they're independent iff the determinant of their matrix is non-zero.