Question

Consider C as a vector space over R in the natural way. Here vector addition and...

Consider C as a vector space over R in the natural way. Here vector addition and scalar
multiplication are the usual addition and multiplication of complex numbers. Show that {1 − i, 1 + i} is
linearly independent. Consider C as a vector space over C in the natural way. Here vector addition is the
usual addition of complex numbers and the scalar multiplication is the usual multiplication of a real number
by a complex number. Show that {1 − i, 1 + i} is not linearly independent.

Homework Answers

Know the answer?
Your Answer:

Post as a guest

Your Name:

What's your source?

Earn Coins

Coins can be redeemed for fabulous gifts.

Not the answer you're looking for?
Ask your own homework help question
Similar Questions
Let S={(0,1),(1,1),(3,-2)} ⊂ R², where R² is a real vector space with the usual vector addition...
Let S={(0,1),(1,1),(3,-2)} ⊂ R², where R² is a real vector space with the usual vector addition and scalar multiplication. (i) Show that S is a spanning set for R²​​​​​​​ (ii)Determine whether or not S is a linearly independent set
Consider the vector space M2x2 with the usual addition and scalar multiplication. Let it be the...
Consider the vector space M2x2 with the usual addition and scalar multiplication. Let it be the subspace of M2x2 defined as follows: H= { | a b | | c d |    with b= c} consider matrices A= | 1 2 |    B= |-2 2 |    C= | 1 8 |    | 1 3 | , | 1 -3 | ,    | 4 6 | Do they form a basis for H? justify the answer
Prove that C is a real vector space with the usual sum and scalar multiplication.
Prove that C is a real vector space with the usual sum and scalar multiplication.
Determine whether the set with the definition of addition of vectors and scalar multiplication is a...
Determine whether the set with the definition of addition of vectors and scalar multiplication is a vector space. If it is, demonstrate algebraically that it satisfies the 8 vector axioms. If it's not, identify and show algebraically every axioms which is violated. Assume the usual addition and scalar multiplication if it's not defined. V = R, x + y = max( x , y ), cx=(c)(x) (usual multiplication.
Show that Mm,n with standard addition and scalar multiplication is a vector space.
Show that Mm,n with standard addition and scalar multiplication is a vector space.
Let V be the set of all triples (r,s,t) of real numbers with the standard vector...
Let V be the set of all triples (r,s,t) of real numbers with the standard vector addition, and with scalar multiplication in V defined by k(r,s,t) = (kr,ks,t). Show that V is not a vector space, by considering an axiom that involves scalar multiplication. If your argument involves showing that a certain axiom does not hold, support your argument by giving an example that involves specific numbers. Your answer must be well-written.
Determine whether the set with the definition of addition of vectors and scalar multiplication is a...
Determine whether the set with the definition of addition of vectors and scalar multiplication is a vector space. If it is, demonstrate algebraically that it satisfies the 8 vector axioms. If it's not, identify and show algebraically every axioms which is violated. Assume the usual addition and scalar multiplication if it's not defined. V = R^2 , < X1 , X2 > + < Y1 , Y2 > = < X1 + X2 , Y1 +Y2> c< X1 , X2...
Q 1 Determine whether the following are real vector spaces. a) The set C with the...
Q 1 Determine whether the following are real vector spaces. a) The set C with the usual addition of complex numbers and multiplication by R ⊂ C. b) The set R2 with the two operations + and · defined by (x1, y1) + (x2, y2) = (x1 + x2 + 1, y1 + y2 + 1), r · (x1, y1) = (rx1, ry1)
Let P4 denote the space of polynomials of degree less than 4 with real coefficients. Show...
Let P4 denote the space of polynomials of degree less than 4 with real coefficients. Show that the standard operations of addition of polynomials, and multiplication of polynomials by a scalar, give P4 the structure of a vector space (over the real numbers R). Your answer should include verification of each of the eight vector space axioms (you may assume the two closure axioms hold for this problem).
Let V be the set of all ordered pairs of real numbers. Consider the following addition...
Let V be the set of all ordered pairs of real numbers. Consider the following addition and scalar multiplication operations V. Let u = (u1, u2) and v = (v1, v2). • u ⊕ v = (u1 + v1 + 1, u2 + v2 + ) • ku = (ku1 + k − 1, ku2 + k − 1) Show that V is not a vector space.