Figure 22-33 shows five protons that are launched in a uniform
electric field; the magnitude and direction of the launch
velocities are indicated. Rank the protons according to the
magnitude. of their accelerations due to the field, greatest
first.
All will have same acceleration.
Acceleration on charge particle in uniform acceleration is given by
Where q is charge of proton, E is uniform electric field and m is mass of proton.
Since charge and mass of all protons are same and electric field is uniform therefore all will accelerate with equal magnitude.
Figure 22-33 shows five protons that are launched in a uniform electric field; the magnitude and...
8. An electron is launched along the x-direction into a region where both a uniform electric and magnetic field are present. The electric field is known to point along the y- direction and the magnetic field's x-component is known to be zero. Furthermore, the figure below shows the y-component of the net force on the particle as a function of the speed with which it is launched into the field region. This means that different launch speeds amount to different...
The figure below shows a uniform electric field of magnitude E = 440 N/C making an angle of ϕ = 61.0° with a flat surface of area A = 3.60 sq.m. What is the magnitude of the electric flux through this surface (in N · m sq./C)?
what is the 6. (5 pt.) The figure shows three equal currents i, two parallel, one anti-parallel, and four Ampenan loops. Rank the loops according to the magnitude of $ li di along each. greatest first. A. a>b>d>c C coda-b E unknown (5 pt.) The graph gives the magnitude B(t) of a uniform magnetic field that exists throughout a conducting loop, perpendicular to the plane of the loop. It is the special case where Ф,-BA and A is constant. Which...
1. (6 points) The figure shows three situations in which identical projectiles are launched (at the same level) at identical initial speeds and angles. The projectiles do not land on the same terrain, however (a) Rank the situations according to the final speeds of the projectiles just before they land, greatest first. (b) Rank the situations according to the final horizontal speeds of the projectiles just before they land, greatest first.
tion 14 Figure 11 below shows the electric field lines in three different regions of space (A, B, and C). A proton is moving from R to Sin each region. Rank the roton's acceleration (greatest first). 1.6 points R s RS RS A B С BCA CAB A B C ABC
2. In Figure 2, a beam of protons moves through a uniform magnetic field with magnitude 1.3 T, directed along the positive z axis. The protons have a velocity of magnitude 10ʻ m/s in the x-z plane at an angle of 30° to the positive z axis. Find the force (F) on a proton. Find the radius of the orbital of this charge. The charge of the proton is q=1.6x10-19 C. The mass of the proton is 1.67x10-27 kg. (40...
Chapter 22, Problem 012 The figure shows an uneven arrangement of electrons (e) and protons (p) on a circular arc of radius r = 2.50 cm, with angles θι = 27.0°, θ2 = 45.0°, θ3 = 38.0°, and θ4 = 27.0°, what are the (a) magnitude and (b) direction (relative to the positive direction of the x axis) of the net electric field produced at the center of the arc? 12, (a) Number Unit (b) Number Unit
The figure shows three plums that are launched from the same level with the same speed. One moves straight upward, one is launched at a small angle to the vertical, and one is launched along a frictionless incline. Rank the plums according to their speed when they reach the level of the dashed line, greatest first. ia O All plums have the same speed.
Chapter 22, Problem 019 The figure shows an electric dipole. What is the magnitude of the dipole's electric field at point P? Assume that g = 6.75 x 10-6 c, d = 7.23 x 10-5 m, and r = 4.65 cm. Number Units the tolerance is +/-2%
The figure shows two point charges. Calculate the magnitude of the electric field at point P. Use the following data: Q1= + 1.80 μC, Q2= + 1.20 μC, di: 1.40 m, d2-1.80 m Q, P 22 2 Submit Answer Tries 0/99 Calculate the size of the force on a charge Q-_1.20 μC placed at P due to the two charges from the previous problem