∴ Find p from ∇p=ρF in the case where
F=(ax−by,ay+bx,a) and ρ=(x2+y2)−z,
with constants a,b.
Solution by Steps
step 1
To find p from ∇p=ρF, we need to solve the equation given the vector field F and the scalar field ρ
step 2
Given F=(ax−by,ay+bx,a) and ρ=(x2+y2)−z, we can equate ∇p to ρF
step 3
Solving the equation 200πp=(x2+y2)−z(ax−by,ay+bx,a) for p, we get different cases for the solution
step 4
For the case where b=−a and x=0 and y=1, we find p=π200a
step 5
For the case where x=0 and (x2+41(1−−4x2+4x+1)2)z=0, we find p=π200a(x2+41(1−−4x2+4x+1)2)−z and b=2xa(−4x2+4x+1+1) and y=21(1−−4x2+4x+1)
step 6
For the case where x=0 and (x2+41(−4x2+4x+1+1)2)z=0, we find p=π200a(x2+41(−4x2+4x+1+1)2)−z and b=−2xa(−4x2+4x+1−1) and y=21(−4x2+4x+1+1)
step 7
For the case where p=0 and (y−1)y(y2)z=0, we find a=0 and b=0 and x=0
Answer
The value of p depends on the specific case and values of a, b, x, y, and z. The solutions are given by the cases in steps 4 to 7.
Key Concept
Gradient and Scalar Field Multiplication
Explanation
The key concept involves solving for a scalar field p when its gradient is given by the product of another scalar field ρ and a vector field F. The solution requires equating the gradient of p to this product and solving for p under different conditions for the variables involved.