Question 2: A Speedy Electron Assume you have a set of parallel plates which are spaced 5cm apart. Then, you place an electron at rest at the very edge of the negative plate, so that it is 5cm away from the positive plate. Then, you turn the parallel plates on. Draw a diagram of the initial setup of the problem showing the parallel plates, the electron, and the electric field lines. What electric field strength is needed to accelerate the electron to a speed of 2.97x108 m/s (99% of the speed of light!) by the time it reaches the positive plate? Ignore relativity (which we haven’t learned yet :). What is the potential difference (voltage) needed for the parallel plates to create the electric field from part b?

Question 2: A Speedy Electron Assume you have a set of parallel plates which are spaced 5cm apart. Then, you place an electron at rest at the very edge of the negative plate, so that it is 5cm away from the positive plate. Then, you turn the parallel plates on. Draw a diagram of the initial setup of the problem showing the parallel plates, the electron, and the electric field lines. What electric field strength is needed to accelerate the electron to a speed of 2.97x108 m/s (99% of the speed of light!) by the time it reaches the positive plate? Ignore relativity (which we haven’t learned yet :). What is the potential difference (voltage) needed for the parallel plates to create the electric field from part b?

Similar questions

a.) Calculate the speed of a proton that is accelerated from rest through an electric potential difference of 149 V. b.) Calculate the speed of an electron that is accelerated through the same potential difference.
In the image provide these exists two parallel plates call A and B the length of both being 5 centimeters and both separated from each other with a distance of 4 centimeters. An electron enters 1 cm above plate B and it is traveling horizontally at speed of 1x10^6 m/s. VA = 20 V and VB = 10 V are the plate potentials, respectively. A) What is the electrical field (vector) between the plates? B) What is the electric potential V at the entry point of the electron and its initial potential energy? C) The electron eventually find the speed one of the plates, find out out witch one and the speed of the electron before the impact. D) What is the location along the place where the electron makes impact (take x =0 as the left edge of the plates). OFocus 81 F 0.
A solid metal sphere has a charge of -80μC and radius of 0.75 m. What is the electric field and absolute electric potential at different distances, r, from the center of the sphere? The + direction is away from the sphere. Include a sketch of the electric force vectors you use to set up your equations
Problem 18.17 - Enhanced - with Solution You may want to review (Page). For related problem-solving tips and strategies, you may want to view a Video Tutor Solution of Parallel plates and conservation of energy. Part A An electron is to be accelerated from a velocity of 3.50x 10 m/s to a velocity of 7.50x105 m/s. Through what potential difference must the electron pass to accomplish this? for Panze for Partido for Part redo foart A refor Part A keyboard shortcuts for Part A help for Part. A Viniital - Viinal= Submit Part B Request Answer Through what potential difference must the electron pass if it is to be slowed from 7.50x105 m/s to a halt? Vinitial - Vinal= Submit for Partfondo for Part redo folet B reor Part B keyboard shortcuts for Part B help for Part B Request Answer V
A particle accelerator is used to accelerate particles... (obviously right?). a) Draw a diagram that would represent an electron, starting from rest, and passing between two plates with a potential difference of 5.3 x 10^5 V and the plates separated 12cm apart. (Include SIGNS on plates), accelerating. b) How fast would the electron be traveling once it gets to the plate? c) What would be the magnitude of the electric field strength? d) What would be the acceleration of the electron?
Particle A has a charge of 10uC and a mass of 0.001kg. Particle A starts out at a speed of v = 1000m/s. At some time later, particle A has come to rest. What is the electric potential difference AV from where particle A started to where it stopped? Ignore gravity.
The physics problem is described in the picture
The figure shows an electron entering a parallel-plate capacitor with a speed of 5.7×106 m/s. The electric field of the capacitor has deflected the electron downward by a distance of 0.618 cm at the point where the electron exits the capacitor. (Figure 1) Figure V + + + -2.25 cm- + + É + + + < 1 of 1 0.618 cm + Part A Find the magnitude of the electric field in the capacitor. 15| ΑΣΦ 3 E- 3662.75 ! Your answer should not contain commas. No credit lost. Try again. Part B Submit Previous Answers Request Answer www ||| ΑΣΦ v=6.36• 106 Submit Find the speed of the electron when it exits the capacitor. Provide Feedback www. ? Previous Answers Request Answer ? N/C m/s X Incorrect; Try Again; 29 attempts remaining Review your calculations and make sure you round to 3 significant figures in the last step.
Answer D
A parallel-plate capacitor has a charge Q and plate separation d, as shown below. We assume that the size of plates is much larger than the separation d. Each particle is initially at rest and then released, allowing it to accelerate. Assuming each particle has the same mass, rank the speeds of the particles when they impact the left plate. 1. A parallel-plate capacitor has a charge Q and plate separation d, as shown below. We assume that the size of plates is much larger than the separation d. Rank the force that each particle feels at its given position within the capacitor. E>D=C>A=B D>E>B=C>A D>B>E>C>A A>E>C>D>B E>A=C>D=B 2. A parallel-plate capacitor has a charge Q and plate separation d, as shown below. We assume that the size of plates is much larger than the separation d. Each particle is initially at rest and then released, allowing it to accelerate. Assuming each particle has the same mass, rank the speeds of the…