From compatible Riemannian metric to Hermitian metric

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By this notes p.42

It gives a hermitian metric by a compatible Riemannian metric $g$, and from p.23, it extends $g$ to $T_mathbbCM$ complex bilinearly. I wonder if we extend $g$ via the sesquilinear convention, can we still get the same result, which is that we can get a Hermitian metric $h=g+iomega$.
complex-geometry
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up vote
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By this notes p.42

It gives a hermitian metric by a compatible Riemannian metric $g$, and from p.23, it extends $g$ to $T_mathbbCM$ complex bilinearly. I wonder if we extend $g$ via the sesquilinear convention, can we still get the same result, which is that we can get a Hermitian metric $h=g+iomega$.
complex-geometry
add a comment |Â
up vote
2
down vote
favorite
up vote
2
down vote
favorite
By this notes p.42

It gives a hermitian metric by a compatible Riemannian metric $g$, and from p.23, it extends $g$ to $T_mathbbCM$ complex bilinearly. I wonder if we extend $g$ via the sesquilinear convention, can we still get the same result, which is that we can get a Hermitian metric $h=g+iomega$.
complex-geometry
By this notes p.42

It gives a hermitian metric by a compatible Riemannian metric $g$, and from p.23, it extends $g$ to $T_mathbbCM$ complex bilinearly. I wonder if we extend $g$ via the sesquilinear convention, can we still get the same result, which is that we can get a Hermitian metric $h=g+iomega$.
complex-geometry
asked Aug 16 at 3:29
Danny
818312
818312
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Extending $g$ sesquilinearly you get another metric, say $tildeg$, on $TMotimes mathbbC$ but they are related by $$left. tildegright|_T^1,0M = frac12h$$
See Lemma 1.2.17 in page 30 of Huybrechts' book
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1 Answer
1
active
oldest
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1 Answer
1
active
oldest
votes
active
oldest
votes
active
oldest
votes
up vote
0
down vote
Extending $g$ sesquilinearly you get another metric, say $tildeg$, on $TMotimes mathbbC$ but they are related by $$left. tildegright|_T^1,0M = frac12h$$
See Lemma 1.2.17 in page 30 of Huybrechts' book
add a comment |Â
up vote
0
down vote
Extending $g$ sesquilinearly you get another metric, say $tildeg$, on $TMotimes mathbbC$ but they are related by $$left. tildegright|_T^1,0M = frac12h$$
See Lemma 1.2.17 in page 30 of Huybrechts' book
add a comment |Â
up vote
0
down vote
up vote
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down vote
Extending $g$ sesquilinearly you get another metric, say $tildeg$, on $TMotimes mathbbC$ but they are related by $$left. tildegright|_T^1,0M = frac12h$$
See Lemma 1.2.17 in page 30 of Huybrechts' book
Extending $g$ sesquilinearly you get another metric, say $tildeg$, on $TMotimes mathbbC$ but they are related by $$left. tildegright|_T^1,0M = frac12h$$
See Lemma 1.2.17 in page 30 of Huybrechts' book
answered 2 hours ago
Alan Muniz
915520
915520
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