Shown in the figure below is a re-creation of the Rutherford experiment. The "target" (green) nucleus is Uranium and has a charge of Q = 1.474e-17 Coulombs and a large mass. You fire a Lithium nucleus, with charge q = 4.806e-19 Coulombs and mass m =1.162e-26 kg at a velocity of v₁ = 2.03e+07 m/s from a location far away from the Uranium nucleus. At moment #2, the separation between the centers of the two nuclei is d₂ = 8.67e-14 meters. We shall treat the Uranium nucleus as stationary throughout theprocess.Very far away, d₁00Moment #1Moment #2Moment #3Calculate all the following:The velocity of the small nucleus at moment #2 V₂ =The distance at moment #3 d3 =md₂PotentialBag-RutherfordV3=0d₂=?m/s

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Robert Millikan was an American physicist who in 1909 performed a classic experiment involving charged oil drops. Millikan adjusted the voltage applied between two metal plates in order to suspend charged drops in the resulting electric field. For a suspended drop, the electrostatic force directed up exactly balances out the weight of the drop. Millikan ultimately determined the charge on an electron and that charge is quantized. This means that charge comes in increments, discrete amounts, rather than any amount.A NEGATIVELY-charged oil drop is suspended between two plates of opposite charge by an electric field of 603 newtons per coulomb. The drop is determined to have a mass of 8.86 x 10-17 kilograms.a. What is the charge on the drop? Include units in your answer. More information.b. How many excess electrons does it carry? Hint: Charge is quantized, so this answer must be just an integer.
A student is able to isolate a single charged oil drop while performing a Millikan oildrop experiment in the physics laboratory. The oil drop, of mass 1.23 x 10-15 kg, is suspended betweentwo horizontal parallel plates spaced 8.0 mm apart when a voltage of 120 V is applied to the platessuch that the lower plate is negative and the upper plate is positive. Does the oil drop have an excess or deficit of electrons? Explain Determine the actual number of excess or deficit electrons on the oil drop What would be the acceleration of the oil drop if the voltage across the plates were tobe increased to 300 V? What would be the acceleration of the oil drop if the voltage across the plates were set to0 V (in other words, the plates are turned off)?
In the Millikan oil drop experiment tiny charged oil droplets generated by a spray are allowed to fall under gravity through a hole in a top electrode, T, towards a bottom electrode B separated from T by 1 cm. When a holding voltage Vh = +0.25V is applied between T and B the droplets are seen to be suspended motionless between the electrodes. What is the specific charge of the droplet q/m? Select one: a. 1.5 C/kg b. 2.7 C/kg c. 0.16 C/kg d. 0.392 C/kg
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J. J. Thomson is best known for his discoveries about the nature of cathode rays. His other important contribution was the invention, together with one of his students, of the mass spectrometer, a device that measures the ratio of mass m to (positive) charge q of an ion. The spectrometer consists of two regions as shown in the figure. (Figure 1) In the first region an electric field accelerates the ion and in the second the ion follows a circular arc in a magnetic field. The radius of curvature of the arc can be measured and then the m/q ratio can be Figure V B • Part A Find the ratio m/q for this particle. Express your answer numerically in kilograms per coulomb. View Available Hint(s) After being accelerated to a speed of 1.21x105 m/s, the particle enters a uniform magnetic field of strength 0.700 T and travels in a circle of radius 35.0 cm (determined by observing where it hits the screen as shown in the figure). The results of this experiment allow one to find m/q. m/q= Submit…
In Millikan's oil-drop experiment, one looks at a small oil drop held motionless between two plates. Take the voltage between the plates to be 2247 V and the plate separation to be 1 cm. The oil drop (of density 0.81 g/cm3) has a diameter of 4.0 ×10-6 m. Find the charge on the drop, in terms of electron units. e
#3. In Millikan oil drop experiment, a negatively charged oil droplet of mass 3 x 10-12 g and charge 1.6 x 10-16C is kept suspended within the chamber. (a) Sketch a diagram to show the electric field and different forces working on the oil droplet. (b) Calculate the minimum electric field required in order to keep it suspended inside the chamber. (c) What is the electric field required to move the charge vertically downward at an acceleration of 5 cm/s2 ?
The distance, r , between the proton and electron in the hydrogen atom is about 10-10 m. Determine the value of the kinetic energy of the electron. Provide your answer in electron- volts (eV). Answer: Choose... +
In an oil-drop experiment similar to Millikan’s, an oil droplet is suspended between two parallel, charged plates. Calculate the magnitude of the charge on the oil droplet if the radius of the oil drop is 4.2 x 10^-6 m, the density of the oil is 7.8 x 10^-2 g/m^3, the distance between the plates is 2.0 cm, and the potential difference between the plates is 99 V.
In the Millikan oil drop experiment tiny charged oil droplets generated by a spray are allowed to fall under gravity through a hole in a top electrode, T, towards a bottom electrode B separated from T by 1 cm. When a holding voltage Vh = +0.25V is applied between T and B the droplets are seen to be suspended motionless between the electrodes. What is the specific charge of the droplet q/m? Select one: a. 2.7 C/kg b. 1.5 C/kg c. 0.16 C/kg d. 0.392 C/kg
In the Millikan oil drop experiment tiny charged oil droplets generated by a spray are allowed to fall under gravity through a hole in a top electrode, T, towards a bottom electrode B separated from T by 1 cm. When a holding voltage Vh = +0.25V is applied between T and B the droplets are seen to be suspended motionless between the electrodes. What is the specific charge of the droplet q/m? Select one: a. 1.5 C/kg b. 0.392 C/kg c. 2.7 C/kg d. 0.16 C/kg
Robert Millikan was an American physicist who in 1909 performed a classic experiment involving charged oil drops. Millikan adjusted the voltage applied between two metal plates in order to suspend charged drops in the resulting electric field. For a suspended drop, the electrostatic force directed up exactly balances out the weight of the drop. Millikan ultimately determined the charge on an electron and that charge is quantized. This means that charge comes in increments, discrete amounts, rather than any amount.A NEGATIVELY-charged oil drop is suspended between two plates of opposite charge by an electric field of 603 newtons per coulomb. The drop is determined to have a mass of 8.86 x 10-17 kilograms. a. What is the charge on the drop? Include units in your answer.

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