Kernel to Orthogonal Matrix relationship
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Let $B$ be a matrix. How can I tell which ($mathrmimg(B)$, $mathrmker(B^T)$, $mathrmimg(B^T)$) spaces are necessarily orthogonal to $mathrmker(B)$ under standard dot product?
What are the implications of orthogonality from dot product?
linear-algebra matrices linear-transformations orthogonality
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up vote
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Let $B$ be a matrix. How can I tell which ($mathrmimg(B)$, $mathrmker(B^T)$, $mathrmimg(B^T)$) spaces are necessarily orthogonal to $mathrmker(B)$ under standard dot product?
What are the implications of orthogonality from dot product?
linear-algebra matrices linear-transformations orthogonality
It's not clear what you mean by the second part of your question, "what are the implications of orthogonality from dot product?"
– Omnomnomnom
Aug 3 at 13:50
@Omnomnomnom how do we derive orthogonality from dot product procedures? Sorry for the lack of clarity.
– seekingalpha23
Aug 3 at 13:51
Are $A$ and $B$ supposed to be different matrices? Or, are you asking why $ker(A)$ is orthogonal to $operatornameimage(A^T)$?
– Omnomnomnom
Aug 3 at 13:53
@Omnomnomnom sorry I edited as suggested
– seekingalpha23
Aug 3 at 14:13
add a comment |Â
up vote
1
down vote
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up vote
1
down vote
favorite
Let $B$ be a matrix. How can I tell which ($mathrmimg(B)$, $mathrmker(B^T)$, $mathrmimg(B^T)$) spaces are necessarily orthogonal to $mathrmker(B)$ under standard dot product?
What are the implications of orthogonality from dot product?
linear-algebra matrices linear-transformations orthogonality
Let $B$ be a matrix. How can I tell which ($mathrmimg(B)$, $mathrmker(B^T)$, $mathrmimg(B^T)$) spaces are necessarily orthogonal to $mathrmker(B)$ under standard dot product?
What are the implications of orthogonality from dot product?
linear-algebra matrices linear-transformations orthogonality
edited Aug 3 at 13:59
asked Aug 3 at 13:44
seekingalpha23
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156
It's not clear what you mean by the second part of your question, "what are the implications of orthogonality from dot product?"
– Omnomnomnom
Aug 3 at 13:50
@Omnomnomnom how do we derive orthogonality from dot product procedures? Sorry for the lack of clarity.
– seekingalpha23
Aug 3 at 13:51
Are $A$ and $B$ supposed to be different matrices? Or, are you asking why $ker(A)$ is orthogonal to $operatornameimage(A^T)$?
– Omnomnomnom
Aug 3 at 13:53
@Omnomnomnom sorry I edited as suggested
– seekingalpha23
Aug 3 at 14:13
add a comment |Â
It's not clear what you mean by the second part of your question, "what are the implications of orthogonality from dot product?"
– Omnomnomnom
Aug 3 at 13:50
@Omnomnomnom how do we derive orthogonality from dot product procedures? Sorry for the lack of clarity.
– seekingalpha23
Aug 3 at 13:51
Are $A$ and $B$ supposed to be different matrices? Or, are you asking why $ker(A)$ is orthogonal to $operatornameimage(A^T)$?
– Omnomnomnom
Aug 3 at 13:53
@Omnomnomnom sorry I edited as suggested
– seekingalpha23
Aug 3 at 14:13
It's not clear what you mean by the second part of your question, "what are the implications of orthogonality from dot product?"
– Omnomnomnom
Aug 3 at 13:50
It's not clear what you mean by the second part of your question, "what are the implications of orthogonality from dot product?"
– Omnomnomnom
Aug 3 at 13:50
@Omnomnomnom how do we derive orthogonality from dot product procedures? Sorry for the lack of clarity.
– seekingalpha23
Aug 3 at 13:51
@Omnomnomnom how do we derive orthogonality from dot product procedures? Sorry for the lack of clarity.
– seekingalpha23
Aug 3 at 13:51
Are $A$ and $B$ supposed to be different matrices? Or, are you asking why $ker(A)$ is orthogonal to $operatornameimage(A^T)$?
– Omnomnomnom
Aug 3 at 13:53
Are $A$ and $B$ supposed to be different matrices? Or, are you asking why $ker(A)$ is orthogonal to $operatornameimage(A^T)$?
– Omnomnomnom
Aug 3 at 13:53
@Omnomnomnom sorry I edited as suggested
– seekingalpha23
Aug 3 at 14:13
@Omnomnomnom sorry I edited as suggested
– seekingalpha23
Aug 3 at 14:13
add a comment |Â
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It's not clear what you mean by the second part of your question, "what are the implications of orthogonality from dot product?"
– Omnomnomnom
Aug 3 at 13:50
@Omnomnomnom how do we derive orthogonality from dot product procedures? Sorry for the lack of clarity.
– seekingalpha23
Aug 3 at 13:51
Are $A$ and $B$ supposed to be different matrices? Or, are you asking why $ker(A)$ is orthogonal to $operatornameimage(A^T)$?
– Omnomnomnom
Aug 3 at 13:53
@Omnomnomnom sorry I edited as suggested
– seekingalpha23
Aug 3 at 14:13