Question

If we have any two vectors in space, can we always find a plane that contains...

If we have any two vectors in space, can we always find a plane that contains them? Please explain.

Homework Answers

Answer #1

It is possible when they are subspace of a same vector space .

Suppose U and V are subspace of a vector space W . Also suppose that { u1 , u2 , .....,un } forms a basis of U and { v1 , v2 , v3 , ,,,,vm } be a basis of V .

Then , Span { u1 , u2 ,.....,un , v1 , v2 , v3 ....,vm } is a plane containing both of U and V .

But if U and V are subspace of different vector space then it is not possible to find a plane containing both of them .

For example let ,

U = Span { ( 1 , 0 ) } then U is a subspace of

V = Span { ( 1 , 0 , 0 ) } then V is a subspace of

Then it is not possible to find a plane containg both of them .

.

.

.

If you have any doubt or need more clarification at any step please comment .

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
Can we always find a plain that contains any two vectors in space? So this is...
Can we always find a plain that contains any two vectors in space? So this is my third time asking in Chegg, one expert answered: "Yes, just as we can connect any two points, we can find a plane that contains any two lines/vectors". The other expert answered: "No, if they are subspace of different vector spaces, we cannot find a plane the two vectors lies in". . . I am confused. I tried picturing finding a plane for some...
How should we describe a line in space using Algebra? Hint: 1. We can think of...
How should we describe a line in space using Algebra? Hint: 1. We can think of a plane as a collection of vectors in space which satisfies an equation of the form ax + by + cz = d. False, because we can move vectors around, which will mess up the plane. 2. We can think of a plane as a collection of vectors in space whose starting point must be at the origin which satisfies an equation of the...
Find two vectors of length 15 that are perpendicular to <5,6> in an xy-plane.
Find two vectors of length 15 that are perpendicular to <5,6> in an xy-plane.
Find a basis for the space spanned by the following vectors, (1,1,1) (-2,3,5) (4,-1,3) (-7,3,7) Please...
Find a basis for the space spanned by the following vectors, (1,1,1) (-2,3,5) (4,-1,3) (-7,3,7) Please explain.
Show complete solution. 1. Find two unit vectors that are parallel to the ?? −plane and...
Show complete solution. 1. Find two unit vectors that are parallel to the ?? −plane and are orthogonal to the vector ? = 3? − ? + 3?.
The cross product of 2 vectors, A and B, gives a vector C that is perpendicular...
The cross product of 2 vectors, A and B, gives a vector C that is perpendicular to the plane AB. But we can't always contain two vectors in a plane (so we can't always find a plane AB) right? Would the cross product be valid in this case? What would be the result of the cross product? Thanks in advance
Suppose that u and v are two non-orthogonal vectors in an inner product space V,< ,...
Suppose that u and v are two non-orthogonal vectors in an inner product space V,< , >. Question 2: Can we modify the inner product < , > to a new inner product so that the two vectors become orthogonal? Justify your answer.
We have two vectors A = (2, 4) and B = (-2, 1). The components are...
We have two vectors A = (2, 4) and B = (-2, 1). The components are given with respect to a coordinate system x-y. We chose now another system of axis x΄- y΄ which is rotated at an angle φ = -300 with respect to x-y. Find out: a) The components of the two vectors in the new system b) The scalar product of the two vectors in both systems
Find any two vectors which are orthogonal to the bector <2,5,-3>
Find any two vectors which are orthogonal to the bector <2,5,-3>
Question 1:  Is there a vector space that can not be an inner product space? Justify your...
Question 1:  Is there a vector space that can not be an inner product space? Justify your answer. Part 2: Suppose that u and v are two non-orthogonal vectors in an inner product space V,< , >. Question 2: Can we modify the inner product < , > to a new inner product so that the two vectors become orthogonal? Justify your answer.