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![2. A partial ring of circular shape centered at the origin is located in the first quadrant (0 < < π/2) of the x-y
plane and carries a uniform surface charge density of ps = k, but only for a radius of a < p < b. The charge
density is zero elsewhere. (k is a constant, and (p, , z) are the usual cylindrical coordinates.) Determine an
expression for the the z-component of the electric field at any location on the z-axis. [NOTE: We are only asking
for the z-component of the electric field. The x- and y-components exist but they are a little messy. You can
certainly attempt to figure them out, but you don't have to.]](https://content.bartleby.com/qna-images/question/e5a97c28-5510-4804-9dd7-0c060f8b2947/96dc3e70-2f89-445f-be90-ace669028f5a/5ybxbah_processed.png)
Transcribed Image Text:2. A partial ring of circular shape centered at the origin is located in the first quadrant (0 < < π/2) of the x-y
plane and carries a uniform surface charge density of ps = k, but only for a radius of a < p < b. The charge
density is zero elsewhere. (k is a constant, and (p, , z) are the usual cylindrical coordinates.) Determine an
expression for the the z-component of the electric field at any location on the z-axis. [NOTE: We are only asking
for the z-component of the electric field. The x- and y-components exist but they are a little messy. You can
certainly attempt to figure them out, but you don't have to.]
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