Do trace properties of matrix hold for $(1,1)-$ tensors
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If $h, k$ be $(1,1)-$tensors on a Riemannian manifold $(M,g)$ then (similar to matrices) does the following property hold?
$$operatornametr(hcirc k)=operatornametr(kcirc h).$$
More generally if $s$ be another $(1,1)-$tensor then does the following property hold?
$$operatornametr (hcirc k circ s)=operatornametr(scirc hcirc k).$$
linear-algebra linear-transformations tensors
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up vote
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If $h, k$ be $(1,1)-$tensors on a Riemannian manifold $(M,g)$ then (similar to matrices) does the following property hold?
$$operatornametr(hcirc k)=operatornametr(kcirc h).$$
More generally if $s$ be another $(1,1)-$tensor then does the following property hold?
$$operatornametr (hcirc k circ s)=operatornametr(scirc hcirc k).$$
linear-algebra linear-transformations tensors
add a comment |Â
up vote
0
down vote
favorite
up vote
0
down vote
favorite
If $h, k$ be $(1,1)-$tensors on a Riemannian manifold $(M,g)$ then (similar to matrices) does the following property hold?
$$operatornametr(hcirc k)=operatornametr(kcirc h).$$
More generally if $s$ be another $(1,1)-$tensor then does the following property hold?
$$operatornametr (hcirc k circ s)=operatornametr(scirc hcirc k).$$
linear-algebra linear-transformations tensors
If $h, k$ be $(1,1)-$tensors on a Riemannian manifold $(M,g)$ then (similar to matrices) does the following property hold?
$$operatornametr(hcirc k)=operatornametr(kcirc h).$$
More generally if $s$ be another $(1,1)-$tensor then does the following property hold?
$$operatornametr (hcirc k circ s)=operatornametr(scirc hcirc k).$$
linear-algebra linear-transformations tensors
edited Aug 6 at 15:05
Bernard
110k635103
110k635103
asked Aug 6 at 14:58
C.F.G
1,3111521
1,3111521
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1 Answer
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accepted
Every $(1,1)$ tensor can be written as a matrix accepting a vector and a covector as a column and row, respectively. Moreover, trace is coordinate-free, so it doesn't even matter how you choose to calculate the trace of these matrices.
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1 Answer
1
active
oldest
votes
1 Answer
1
active
oldest
votes
active
oldest
votes
active
oldest
votes
up vote
3
down vote
accepted
Every $(1,1)$ tensor can be written as a matrix accepting a vector and a covector as a column and row, respectively. Moreover, trace is coordinate-free, so it doesn't even matter how you choose to calculate the trace of these matrices.
add a comment |Â
up vote
3
down vote
accepted
Every $(1,1)$ tensor can be written as a matrix accepting a vector and a covector as a column and row, respectively. Moreover, trace is coordinate-free, so it doesn't even matter how you choose to calculate the trace of these matrices.
add a comment |Â
up vote
3
down vote
accepted
up vote
3
down vote
accepted
Every $(1,1)$ tensor can be written as a matrix accepting a vector and a covector as a column and row, respectively. Moreover, trace is coordinate-free, so it doesn't even matter how you choose to calculate the trace of these matrices.
Every $(1,1)$ tensor can be written as a matrix accepting a vector and a covector as a column and row, respectively. Moreover, trace is coordinate-free, so it doesn't even matter how you choose to calculate the trace of these matrices.
answered Aug 6 at 15:08
Alfred Yerger
9,7952044
9,7952044
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