A proton is initially at rest. At time t = 0, it is accelerated upward with an acceleration of 1.2 x 10¹8 m/s2 for a very short time. We make observations at location A, 14 m from the proton as in the figure below. a = 1.2 × 10¹8 m/s² • Proton +----- 14 m A What is the ratio of the magnitude of the radiative electric field (when the pulse reaches A) to the magnitude of static or Coulomb electric field at A due to the proton? Take the speed of light to be c = 3 × 108 m/s. 1. 420 2. 186.667 3. 266.667 4. 373.333 5. 220 6. 326.667 7. 171.111 8. 511.111 9. 466.667 10. 533.333

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A proton is initially at rest. At time t = 0,
it is accelerated upward with an acceleration
of 1.2 x 10¹8 m/s² for a very short time. We
make observations at location A, 14 m from
the proton as in the figure below.
a = 1.2 x 10¹8 m/s²
1
• Proton
+----- 14 m --
A
What is the ratio of the magnitude of the
radiative electric field (when the pulse reaches
A) to the magnitude of static or Coulomb
electric field at A due to the proton? Take the
speed of light to be c = 3 × 108 m/s.
1. 420
2. 186.667
3. 266.667
4. 373.333
5. 220
6. 326.667
7. 171.111
8. 511.111
9. 466.667
10. 533.333
Transcribed Image Text:A proton is initially at rest. At time t = 0, it is accelerated upward with an acceleration of 1.2 x 10¹8 m/s² for a very short time. We make observations at location A, 14 m from the proton as in the figure below. a = 1.2 x 10¹8 m/s² 1 • Proton +----- 14 m -- A What is the ratio of the magnitude of the radiative electric field (when the pulse reaches A) to the magnitude of static or Coulomb electric field at A due to the proton? Take the speed of light to be c = 3 × 108 m/s. 1. 420 2. 186.667 3. 266.667 4. 373.333 5. 220 6. 326.667 7. 171.111 8. 511.111 9. 466.667 10. 533.333
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