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To determine if the vector field ( mathbf{E} = yz , mathbf{i} + xz , mathbf{j} + xy , mathbf{k} ) is solenoidal, we need to check if its divergence is zero.
The divergence of a vector field ( mathbf{F} = P , mathbf{i} + Q , mathbf{j} + R , mathbf{k} ) is given by:
[
nabla cdot mathbf{F} = frac{partial P}{partial x} + frac{partial Q}{partial y} + frac{partial R}{partial z}
]
For the vector field ( mathbf{E} ), we identify:
– ( P = yz )
– ( Q = xz )
– ( R = xy )
We calculate each partial derivative:
1. ( frac{partial P}{partial x} = frac{partial}{partial x}(yz) = 0 )
2. ( frac{partial Q}{partial y} = frac{partial}{partial y}(xz) = 0 )
3. ( frac{partial R}{partial z} = frac{partial}{partial z}(xy) = 0 )
Now, substituting these results into the divergence formula:
[
nabla cdot mathbf{
Answer: a
Explanation: Div(E) = Dx(yz) + Dy(xz) + Dz(xy) = 0. The divergence is zero, thus vector is divergentless or solenoidal.