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Case I An electron is fired at x = - 3.0 cm in a constant electric...
2. -5.00 cm from rest in a constant electric field with magnitude 2.50 x103 N/C pointing A proton is released at...
2. -5.00 cm from rest in a constant electric field with magnitude 2.50 x103 N/C pointing A proton is released at in the positive y-direction. a. Determine the change in electrical potential energy of the proton when is it at x-2.60 cm. Did the proton gain or lose potential energy? b. Find the final speed of the proton at x 2.60 cm. [mass of proton 1.67 x 1027kg; charge of proton +1.60 x 1019C]
2. -5.00 cm from rest in...
Help with Part B Use the worked example above to help you solve this problem. A...
Help with Part B Use the worked example above to help you solve this problem. A proton is released from rest at x = −2.00 cm in a constant electric field with magnitude 1.50 103 N/C pointing in the positive x-direction. (a) Assuming an initial speed of zero, find the speed of a proton at x = 0.0600 m with a potential energy of −1.92 10-17 J. (Assume the potential energy at the point of release is zero. Part A Answer is:...
Use the worked example above to help you solve this problem. A proton is released from...
Use the worked example above to help you solve this problem. A proton is released from rest at x = -2.90 cm in a constant electric field with magnitude 1.50 times 10^3 N/C, pointing in the positive x-direction. (a) Calculate the change in potential energy when the proton reaches x = 4.96 cm. The response you submitted has the wrong sign. J (b) An electron is now fired in the same direction from the same position. What is its change...
A constant electric field with magnitude 1.50 ✕ 103 N/C is pointing in the positive x-direction....
A constant electric field with magnitude 1.50 ✕ 103
N/C is pointing in the positive x-direction. An electron
is fired from
x = −0.0200 m
in the same direction as the electric field. The electron's
speed has fallen by half when it reaches
x = 0.190 m,
a change in potential energy of 5.04 ✕ 10−17 J. The
electron continues to
x = −0.250 m
within the constant electric field. If there's a change in
potential energy of −1.06 ✕...
Use the worked example above to help you solve this problem. A proton is released from...
Use the worked example above to help you solve this problem. A proton is released from rest at x2.00 cm in a constant electric field with magnitude 1.50 x 10 N/C pointing in the positive x-direction. (a) Assuming an initial speed of zero, find the speed of a proton at x-0.0800 m with a potential energy of -2.40 x 10-17 j. (Assume the potential energy at the point of release is zero.) m/s (b) An electron is now fired in...
An electron with a speed of 3.16 x 108 cm/s in the positive direction of an...
An electron with a speed of 3.16 x 108 cm/s in the positive direction of an x axis enters an electric field of magnitude 2.32 x 103 N/C, traveling along a field line in the direction that retards its motion. (a) How far will the electron travel in the field before stopping momentarily, and (b) how much time will have elapsed? (c) If the region containing the electric field is 4.95 mm long (too short for the electron to stop...
PROBLEM (a) Find the speed of the proton at x 0.0500 m if s released from...
PROBLEM (a) Find the speed of the proton at x 0.0500 m if s released from rest at x -2.00 cm in a constant electric field with magnitude 1.50 x 103 N/C, pointing in the positive direction. (b) Find the initial speed of an electron fired from x 2.00 cm given that its speed has fallen by half when it reaches x 0.120 m STRATEGY Apply conservation of energy, solving for the unknown speeds. Part (b) involves two equations: the...
A uniform electric field of magnitude 383 N/C pointing in the positive x-direction acts on an...
A uniform electric field of magnitude 383 N/C pointing in the positive x-direction acts on an electron, which is initially at rest. The electron has moved 3.30 cm. (a) What is the work done by the field on the electron? J (b) What is the change in potential energy associated with the electron? J (c) What is the velocity of the electron? magnitude m/s direction
A uniform electric field of magnitude 350 N/C pointing in the positive x-direction acts on an...
A uniform electric field of magnitude 350 N/C pointing in the positive x-direction acts on an electron, which is initially at rest. The electron has moved 3.60 cm. (a) What is the work done by the field on the electron? ______J (b) What is the change in potential energy associated with the electron? ______J (c) What is the velocity of the electron? magnitude ______ m/s direction
As shown in the figure, an electron is fired with a speed of 3.73 x 10...
As shown in the figure, an electron is fired with a speed of 3.73 x 10 m/s through a hole in one of the two parallel plates and into the region between the plates separated by a distance of 0.24 m. There is a magnetic field in the region between the plates and, as shown, it is directed into the plane of the page (perpendicular to the velocity of the electron). Determine the magnitude of the magnetic field so that...
2. -5.00 cm from rest in a constant electric field with magnitude 2.50 x103 N/C pointing A proton is released at in the positive y-direction. a. Determine the change in electrical potential energy of the proton when is it at x-2.60 cm. Did the proton gain or lose potential energy? b. Find the final speed of the proton at x 2.60 cm. [mass of proton 1.67 x 1027kg; charge of proton +1.60 x 1019C]
2. -5.00 cm from rest in...
Use the worked example above to help you solve this problem. A proton is released from rest at x = -2.90 cm in a constant electric field with magnitude 1.50 times 10^3 N/C, pointing in the positive x-direction. (a) Calculate the change in potential energy when the proton reaches x = 4.96 cm. The response you submitted has the wrong sign. J (b) An electron is now fired in the same direction from the same position. What is its change...
A constant electric field with magnitude 1.50 ✕ 103
N/C is pointing in the positive x-direction. An electron
is fired from
x = −0.0200 m
in the same direction as the electric field. The electron's
speed has fallen by half when it reaches
x = 0.190 m,
a change in potential energy of 5.04 ✕ 10−17 J. The
electron continues to
x = −0.250 m
within the constant electric field. If there's a change in
potential energy of −1.06 ✕...
Use the worked example above to help you solve this problem. A proton is released from rest at x2.00 cm in a constant electric field with magnitude 1.50 x 10 N/C pointing in the positive x-direction. (a) Assuming an initial speed of zero, find the speed of a proton at x-0.0800 m with a potential energy of -2.40 x 10-17 j. (Assume the potential energy at the point of release is zero.) m/s (b) An electron is now fired in...
An electron with a speed of 3.16 x 108 cm/s in the positive direction of an x axis enters an electric field of magnitude 2.32 x 103 N/C, traveling along a field line in the direction that retards its motion. (a) How far will the electron travel in the field before stopping momentarily, and (b) how much time will have elapsed? (c) If the region containing the electric field is 4.95 mm long (too short for the electron to stop...
PROBLEM (a) Find the speed of the proton at x 0.0500 m if s released from rest at x -2.00 cm in a constant electric field with magnitude 1.50 x 103 N/C, pointing in the positive direction. (b) Find the initial speed of an electron fired from x 2.00 cm given that its speed has fallen by half when it reaches x 0.120 m STRATEGY Apply conservation of energy, solving for the unknown speeds. Part (b) involves two equations: the...
As shown in the figure, an electron is fired with a speed of 3.73 x 10 m/s through a hole in one of the two parallel plates and into the region between the plates separated by a distance of 0.24 m. There is a magnetic field in the region between the plates and, as shown, it is directed into the plane of the page (perpendicular to the velocity of the electron). Determine the magnitude of the magnetic field so that...
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