A chemist in an imaginary universe, where electrons have a different charge than they do in our universe, performs the Millikan oil drop experiment to measure the electrons

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Ben Owens · Accepted Answer

Step 1  The Millikan experiment consisted of finding the minimum possible charge by obtaining the smallest drop possible. He then inferred that the charge of the electron was due to the fact that it was not possible to find a lower charge.  Drop #ChargeA −6.9×10−19CB −9.2×10−19CC −11.5×10−19CD −4.6×10−19C  Step 2  We must find a number that when we divide in the four drop # it would give us a quotient that is a whole number. We can do this by doing trial and error.  By trial and error, we found out that the number is −2.3×10−19C  DROP A: −6.9×10−19C−2.3×10−19C=3  DROP B: −9.2×10−19C−2.3×10−19C=4  DROP C: −11.5×10−19C−2.3×10−19C=5  DROP D: −4.6×10−19C−2.3×10−19C=2  Answer: −2.3×10−19C

Kindlein6h · Accepted Answer

Millikan experiment consisted in finding the minimum possible charge by obtaining the tiniest drop possible.   Then, he inferred that was the charge of the electron, given that it was not possible to find a lower charge.   Given these recorded data:   −6.9⋅10−19   −9.2⋅10−19   −11.5⋅10−19   −4.6⋅10−19   You must find a number that divide the four data and yields a whole number.   This number is −2.3⋅10−19.   In that way you find:   −6.9⋅10−19−2.3⋅10−19=3⇒3 electrons   −9.2⋅10−19−2.3⋅10−19=4⇒4 electrons   −11.5⋅10−19−2.3⋅10−19=5⇒5 electrons   −4.6⋅10−19−2.3⋅10−19=2⇒2 electrons   And you can conclude that the charge of the electron is −2.3⋅10−19   Answer: −2.3⋅10−19

nick1337 · Accepted Answer

Step 1The idea is the number of electrons is a whole number. So to find a charge that a “whole multiple” will satisfy all the charges on the drops.Step 2Let X = the charge….A, B, C and D are whole.AX=-5.7×10-19C.BX=-7.6×10-19C.CX=-9.5×10-19C.DX=-3.8×10-19C.Difference between BX and CX is&amp;nbsp;1.910-19. &amp;nbsp;That’s the smallest difference.Step 3Therefore,3×(-1.910-19)=-5.7×10-19C4×(-1.910-19)=-7.6×10-19C5×(-1.910-19)=-9.5×10-19C2×(-1.910-19)=-3.8×10-19C.So the charge of imaginary electron is&amp;nbsp;-1.910-19C

Andre BalkonE · Accepted Answer

In an imaginary universe, let&#039;s assume that the charge of electrons, denoted as e, is different from our universe. A chemist performs the Millikan oil drop experiment to measure the charge of electrons in this universe.The Millikan oil drop experiment involves suspending tiny oil droplets in an electric field and measuring their motion to determine the charge of the droplets. To begin, the chemist first adjusts the electric field such that the oil droplets are in equilibrium, neither rising nor falling.The force experienced by an oil droplet in the electric field is given by the equation:Felectric=q·Ewhere Felectric is the electric force, q is the charge of the oil droplet, and E is the strength of the electric field.The weight of the droplet can be expressed as:Fgravity=m·gwhere Fgravity is the gravitational force, m is the mass of the droplet, and g is the acceleration due to gravity.Since the droplet is in equilibrium, the electric force and the gravitational force must balance each other:Felectric=Fgravityq·E=m·gThe chemist then measures the terminal velocity of the droplet, which is the velocity at which the droplet is no longer accelerating in the electric field. This terminal velocity can be related to the droplet&#039;s mass and the properties of the fluid in which it is suspended.By knowing the terminal velocity and using the equations above, the chemist can determine the charge of the oil droplet. However, since the charge of electrons in this imaginary universe is different from our universe, the chemist needs to account for the different value of e in the calculations.To summarize, in this imaginary universe with different electron charge e, the chemist performs the Millikan oil drop experiment to measure the charge of the oil droplets. The equilibrium between the electric force and the gravitational force is used, and the terminal velocity of the droplets is measured to calculate their charge.

A chemist in an imaginary universe, where electrons have a different c

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