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David Handelman
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The invariance Invariance of the space of Harmonicharmonic functions under derivation associated to a non vanishing-vanishing vector field

Let $X$ be a non vanishing-vanishing real analytic vector field on an open manifold $M$. What kind of obstructions would appear when we search for a Riemannian metric on $M$ such that the space of harmonic functions would be invariant under the derivation operator $f \mapsto X.f$? Note that aA harmonic function is a function $f$ which satisfy $\Delta_g (f)=0$ where $\Delta_g$ is the Laplace operator associated to the metric $g$.

The invariance of the space of Harmonic functions under derivation associated to a non vanishing vector field

Let $X$ be a non vanishing real analytic vector field on an open manifold $M$. What kind of obstructions would appear when we search for a Riemannian metric on $M$ such that the space of harmonic functions would be invariant under the derivation operator $f \mapsto X.f$? Note that a harmonic function is a function $f$ which satisfy $\Delta_g (f)=0$ where $\Delta_g$ is the Laplace operator associated to the metric $g$.

Invariance of the space of harmonic functions under derivation associated to a non-vanishing vector field

Let $X$ be a non-vanishing real analytic vector field on an open manifold $M$. What kind of obstructions would appear when we search for a Riemannian metric on $M$ such that the space of harmonic functions would be invariant under the derivation operator $f \mapsto X.f$? A harmonic function is a function $f$ which satisfy $\Delta_g (f)=0$ where $\Delta_g$ is the Laplace operator associated to the metric $g$.

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Ali Taghavi
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Let $X$ be a non vanishing real analytic vector field on an open manifold $M$. What kind of obstructions would appear when we search for a Riemannian metric on $M$ such that the space of harmonic functions would be invariant under the derivation operator $f \mapsto X.f$? Note that a harmonic function is a function $f$ which satisfy $\Delta_g (f)=0)$$\Delta_g (f)=0$ where $\Delta_g$ is the Laplace operator associated to the metric $g$.

Let $X$ be a non vanishing real analytic vector field on an open manifold $M$. What kind of obstructions would appear when we search for a Riemannian metric on $M$ such that the space of harmonic functions would be invariant under the derivation operator $f \mapsto X.f$? Note that a harmonic function is a function $f$ which satisfy $\Delta_g (f)=0)$ where $\Delta_g$ is the Laplace operator associated to the metric $g$.

Let $X$ be a non vanishing real analytic vector field on an open manifold $M$. What kind of obstructions would appear when we search for a Riemannian metric on $M$ such that the space of harmonic functions would be invariant under the derivation operator $f \mapsto X.f$? Note that a harmonic function is a function $f$ which satisfy $\Delta_g (f)=0$ where $\Delta_g$ is the Laplace operator associated to the metric $g$.

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Ali Taghavi
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Let $X$ be a non vanishing real analytic vector field on an open manifold $M$. What kind of obstructions would appear when we search for a Riemannian metric on $M$ such that the space of harmonic functions would be invariant under the derivation operator $f \mapsto X.f$? Note that a harmonic function is a function $f$ which satisfy $\Delta_g (f)=0)$ where $\Delta_g$ is the Laplace operator associated to the metric $g$.

Let $X$ be a non vanishing real analytic vector field on an open manifold $M$. What kind of obstructions would appear when we search for a Riemannian metric on $M$ such that the space of harmonic functions would be invariant under the derivation operator $f \mapsto X.f$?

Let $X$ be a non vanishing real analytic vector field on an open manifold $M$. What kind of obstructions would appear when we search for a Riemannian metric on $M$ such that the space of harmonic functions would be invariant under the derivation operator $f \mapsto X.f$? Note that a harmonic function is a function $f$ which satisfy $\Delta_g (f)=0)$ where $\Delta_g$ is the Laplace operator associated to the metric $g$.

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Ali Taghavi
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  • 123
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Source Link
Ali Taghavi
  • 356
  • 8
  • 31
  • 123
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