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Whether this is a A corollary to Stone-Weierstrass theorem? Pls check where proof goes wrong! |
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Whether this is a corollary to Stone-Weierstrass theorem? Pls check where proof goes wrong!Can i get the answer to the following problem. Please point out: Is this very trivialI am having a proof, True or is i feel there a trivial counterexample. Thanks in advance..is something wrong here..Can you please point out! Let $D\subset \mathbb C$ be a simply connected domain, and $\gamma: [0,1]\to D$, be a smooth embedding. Given a continuous one form $\phi$ along $\gamma$ and $\epsilon >0$, Does there exists a holomorphic function $h$ on some open neighborhood $U$ of $\gamma$, $U\subset D$ such that $|dh-\phi|<\epsilon$. Suggested Proof: Without loss of generality we can assume that $0\notin D$. We can write $\phi= \phi_1 d\zeta$, with $\phi_1$ a continuous function on $\gamma$. We can uniformly approximate $\phi_1$ by Laurent polynomials of the form $\psi_1(\zeta)= \sum_{-k}^k a_j\zeta^k$. As $0\notin D$, we have $\psi_1(\zeta)$ analytic on some possibly small simply connected subdomain of $D$ which we will denote by $D$ itself. We know that if D is a simply connected domain and $\psi_1$ is analytic in D, then $\psi_1$ has an antiderivative at all points of D. Hence take $h(z)= \int \psi_1(\zeta)$ which will be our required holomorphic function. |
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Can i get the answer to the following problem. Please point out: Is this very trivial, True or is there a trivial counterexample. Thanks in advance.. Let $D\subset \mathbb C$ be a simply connected domain, and $\gamma: [0,1]\to D$, be a smooth embedding. Given a continuous one form $\phi$ along $\gamma$ and $\epsilon >0$, Does there exists a holomorphic function $h$ on some open subset neighborhood $U$ of $\gamma$, $U\subset D$ such that $|dh-\phi|<\epsilon$. |
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