In differential geometry, a one-form (or covector field) on a differentiable manifold is a differential form of degree one, that is, a smooth section of the cotangent bundle. Equivalently, a one-form on a manifold M is a smooth mapping of the total space of the tangent bundle of M to \R whose restriction to each fibre is a linear functional on the tangent space. Let U be an open subset of M and p \in U. Then \begin{align} \omega: U & \rightarrow \bigcup_{p \in U} T^*_p(M) \\ p & \mapsto \omega_p \in T_p^*(M) \end{align} defines a one-form \omega. \omega_p is a covector.
In differential geometry, a one-form (or covector field) on a differentiable manifold is a differential form of degree one, that is, a smooth section of the cotangent bundle. Equivalently, a one-form on a manifold M is a smooth mapping of the total space of the tangent bundle of M to \R whose restriction to each fibre is a linear functional on the tangent space. Let U be an open subset of M and p \in U. Then \begin{align} \omega: U & \rightarrow \bigcup_{p \in U} T^*_p(M) \\ p & \mapsto \omega_p \in T_p^*(M) \end{align} defines a one-form \omega. \omega_p is a covector.
Often one-forms are described locally, particularly in local coordinates. In a local coordinate system, a one-form is a linear combination of the differentials of the coordinates: \alpha_x = f_1(x) \, dx_1 + f_2(x) \, dx_2 + \cdots + f_n(x) \, dx_n , where the f_i are smooth functions. From this perspective, a one-form has a covariant transformation law on passing from one coordinate system to another. Thus a one-form is an order 1 covariant tensor field.
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