I have to prove that vectors in spherical coordinates are clockwise

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Vectors in spherical coordinates can be analyzed using the cross product to determine their orientation. The discussion highlights confusion regarding the right-handed orthonormal basis formed by the unit vectors, specifically whether it should be represented as ##\hat r, \hat \phi, \hat \theta## or ##\hat r, \hat \theta, \hat \phi##. An example calculation using the cross product is requested to clarify the concept. The conversation reflects a broader uncertainty about the meaning of "clockwise" in this context. Understanding the basis and the cross product is essential for proving the desired orientation of vectors in spherical coordinates.
Danielle46
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Homework Statement
I have to prove that vectors in spherical coordinates are clockwise.
Relevant Equations
see here: https://math.stackexchange.com/questions/243142/what-is-the-general-formula-for-calculating-dot-and-cross-products-in-spherical
I should use the cross product but I don´t know how. I tried to calculate it but it didn´t work out as expected. Please can you give me one example how to do it ?
 
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Danielle46 said:
Homework Statement:: I have to prove that vectors in spherical coordinates are clockwise.
I have to admit. I don't even know what this means.
 
At first, I derived that: $$\nabla \frac 1{\mu}=-\frac 1{{\mu}^3}\left((1-\beta^2)+\frac{\dot{\vec\beta}\cdot\vec R}c\right)\vec R$$ (dot means differentiation with respect to ##t'##). I assume this result is true because it gives valid result for magnetic field. To find electric field one should also derive partial derivative of ##\vec A## with respect to ##t##. I've used chain rule, substituted ##\vec A## and used derivative of product formula. $$\frac {\partial \vec A}{\partial t}=\frac...