Answer:
![\huge\underline{\red{A}\blue{n}\pink{s}\purple{w}\orange{e}\green{r} -}](https://img.qammunity.org/2023/formulas/mathematics/high-school/17hg1hm68mzdreq3t10du1pfcs5slnrnak.png)
before looking at what the question says ,
let's have some general information related to the topic of the question !
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Electric field refers to the force generated by a nearby charge in the surroundings.
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Mathematically ,
Electric field =
![(Kq)/(r^(2)) \\](https://img.qammunity.org/2023/formulas/chemistry/high-school/yn9bqzl43ji5gx187z19sd2zhl2542opni.png)
where ,
K = coulomb's constant
q = magnitude of charge
r = distance between the opposite terminals
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Dipole moment , P = 2qd
where ,
q = magnitude of charges
d = distance between the charges
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positive charge tends to throw the field away from it while negative charge tends to pull the field towards it !
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seems like enough of information , so now let's look at the derivation !
refer the attachments in order to see the derivation !
Final answer -
![\bold\pink{E = \frac{2kp}{(x {}^(2) - d {}^(2) ) {}^(2) } } \\](https://img.qammunity.org/2023/formulas/chemistry/high-school/lnrlorrh99d51edpj9xb3xosh5rq84r1jj.png)
while , for a short dipole
![\bold\pink{E = \frac{2pk}{x {}^(3) }} \\](https://img.qammunity.org/2023/formulas/chemistry/high-school/ildw0aiv79sey7akdgademao2yf72aumc3.png)
hope helpful :D