We will write equations of motion in x and y directions separately.
EL These two parallel metal plates of length L-1.0 m have a uniform electric field of...
A small object with mass m, charge q, and initial speed v0 5.00x103 m/s is projected into a uniform electric field between two parallel metal plates of length 26.0 cm (Figure 1). The electric field between the plates is directed downward and has magnitude E 800 N/C. Assume that the field is zero outside the region between the plates. The separation between the plates is large enough for the object to pass between the plates without hitting the lower plate....
Two large parallel copper plates are 4.86 cm apart and have a uniform electric field of magnitude E = 5.60 N/C between them (see Figure). An electron is released from the negative plate at the same time that a proton is released from the positive plate. Neglect the force of the particles on each other and find their distance from the positive plate when they pass each other.
Two large parallel copper plates are 6.32 cm apart and have a uniform electric field of magnitude E = 4.41 N/C between them (see the figure). An electron is released from the negative plate at the same time that a proton is released from the positive plate. Neglect the force of the particles on each other and find their distance from the positive plate when they pass each other Positive plate P Negative plate
Two large parallel copper plates are 3.35 cm apart and have a uniform electric field of magnitude E - 3.21 N/C between them (see the figure). An electron is released from the negative plate at the same time that a proton is released from the positive plate. Neglect the force of the particles on each other and find their distance from the positive plate when they pass each other. Positive plate P Negative plate Number Units
Consider a uniform electric field in the gap between two oppositely charged plates. A singly charged negative ion of mass, m, enters the field with an initial velocity, v(), straight to the right, as shown in the diagram below. The trajectory of the negative ion is such that it enters from the left side of the gap, near the negative plate, and just barely missing hitting the positive plate as it exits the device, as indicated by the dashed line...
Two large parallel copper plates are 3.73 cm apart and have a uniform electric field of magnitude E = 7.98 N/C between them (see the figure). An electron is released from the negative plate at the same time that a proton is released from the positive plate. Neglect the force of the particles on each other and find their distance from the positive plate when they pass each other.
A proton travels with speed 1.0 x 107 m/s between two parallel charged plates as shown below. The plates are separated by 1.0 cm and are charged by a 200 V battery. What magnetic field strength and direction will allow the proton to pass between the plates without being deflected? 10 el s 1.0 cm 200 no
Consider a uniform electric field in the gap between two oppositely charged plates. A singly charged negative ion of mass, mm, enters the field with an initial velocity, v(−), straight to the right, as shown in the diagram below. The trajectory of the negative ion is such that it enters from the left side of the gap, near the negative plate, and just barely missing hitting the positive plate as it exits the device, as indicated by the dashed line...
The electric field between two square metal plates is 130 N/C. The plates are 1.3 m on a side and are separated by 4.0 cm. What is the charge on each plate (assume equal and opposite)? Neglect edge effects.
In the diagram P1 and P2 are two parallel horizontal plates that are 5.4 mm apart in a vacuum and have a potential difference of 189 volts maintained between them, the upper plate being positive. Also, there is a horizontal magnetic field of 0.068. A horizontal beam of electrons is directed between the plates so that it is moving at right angles to the magnetic field as shown. a. Determine the magnitude of the force due to the electric field...