Is Kernel of T a line or a point?

In summary, the conversation discusses the concept of the kernel of a transformation and its geometric representation. The speaker mentions solving for the kernel of T, which is a subspace, and provides an example of a vector that spans the kernel. The conversation also touches on the importance of providing enough information in a question.
  • #1
judahs_lion
56
0

Homework Statement



Linearly speaking the Kernel of T is a ?


Homework Equations



I solved kernel of T to equal {<-5,3,1>}

The Attempt at a Solution



So is Kernel of T is a plane?
 
Physics news on Phys.org
  • #2
What is the exact question? The kernel of a transformation is a subspace.
 
  • #3
You need to provide way more information. I have no idea what you're asking, what you did, what you mean, etc.
 
  • #4
T(x,y,z) = (x+2y -z,2x+3y+z,4x+7y-z)
so Kernel T = (-5, 3, 1)

So geometrically speaking the kernel of T is a _______________?
 
  • #5
That's not the kernel of T. How did you solve for the kernel?
 
  • #6
judahs_lion said:
T(x,y,z) = (x+2y -z,2x+3y+z,4x+7y-z)
so Kernel T = (-5, 3, 1)

So geometrically speaking the kernel of T is a _______________?

<-5, 3, 1> is not the kernel, but it spans the kernel. What does this mean in terms of other vectors in the kernel?
 

FAQ: Is Kernel of T a line or a point?

What is a linear transformation?

A linear transformation is a mathematical function that maps one vector space to another vector space while preserving the basic structure of the original space. It can be represented by a matrix multiplication and is often used in fields such as mathematics, physics, and computer science.

How is a linear transformation different from other types of transformations?

A linear transformation is different from other types of transformations, such as nonlinear transformations, because it preserves the concept of linearity. This means that the output of the transformation is a linear combination of the input, and the transformation itself can be described using a linear equation or matrix.

What are some real-world applications of linear transformations?

Linear transformations have a wide range of applications in various fields. In physics, they are used to represent physical laws and systems, such as in the study of motion and forces. In computer graphics, linear transformations are used to manipulate and transform images. They are also used in data analysis and machine learning to find patterns and make predictions.

How do you determine if a transformation is linear?

To determine if a transformation is linear, you can use the properties of linearity. A transformation is linear if it satisfies two conditions: preservation of addition and preservation of scalar multiplication. If the output of the transformation is a linear combination of the input and the transformation can be represented using a matrix, then it is a linear transformation.

Can a linear transformation have a negative determinant?

Yes, a linear transformation can have a negative determinant. The determinant of a linear transformation matrix represents the scaling factor of the transformation. A negative determinant means that the transformation causes a reflection or a flip in orientation. For example, a transformation that flips an image horizontally will have a negative determinant.

Back
Top