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In a standing wave on a string rigidly fixed at both ends.
  • a)
    In one time period all the particles are simultaneously at rest twice.
  • b)
    All the particles must be at their positive extremes simultaneously once in one time period 
  • c)
    All the particles may be at their positive extremes simultaneously once in one time period.
  • d)
    All the particles are never at rest simultaneously.
Correct answer is option 'A,C'. Can you explain this answer?
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Standing Wave on a String:

A standing wave on a string occurs when two waves of the same frequency and amplitude traveling in opposite directions interfere with each other. This interference results in the formation of nodes and antinodes along the string. The nodes are points where the amplitude of the wave is always zero, while the antinodes are points where the amplitude of the wave is maximum.

Understanding the Statements:

a) In one time period, all the particles are simultaneously at rest twice.
b) All the particles must be at their positive extremes simultaneously once in one time period.
c) All the particles may be at their positive extremes simultaneously once in one time period.
d) All the particles are never at rest simultaneously.

Explanation:

a) In one time period, all the particles are simultaneously at rest twice.
- This statement is true for a standing wave. At the nodes of the standing wave, the particles of the string do not undergo any displacement. They remain at rest. In one time period, as the wave oscillates back and forth, the particles at the nodes will be at rest twice.

b) All the particles must be at their positive extremes simultaneously once in one time period.
- This statement is not true for a standing wave. In a standing wave, the particles at the nodes are at rest, and the particles at the antinodes undergo maximum displacement. Therefore, the particles at the positive extremes (antinodes) do not occur simultaneously for all particles in one time period.

c) All the particles may be at their positive extremes simultaneously once in one time period.
- This statement is true for a standing wave. In one time period, there will be a moment when all the particles in the string simultaneously reach their positive extremes (antinodes). This occurs when the wave reaches its maximum displacement and is at a specific phase.

d) All the particles are never at rest simultaneously.
- This statement is not true for a standing wave. As mentioned earlier, the particles at the nodes of the standing wave are at rest. Therefore, there will be moments in one time period when all the particles at the nodes are simultaneously at rest.

Conclusion:

The correct answers are options 'A' and 'C'. In a standing wave on a string, all the particles are simultaneously at rest twice in one time period, and all the particles may be at their positive extremes simultaneously once in one time period.
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In a standing wave on a string rigidly fixed at both ends.a)In one time period all the particles are simultaneously at rest twice.b)All the particles must be at their positive extremes simultaneously once in one time periodc)All the particles may be at their positive extremes simultaneously once in one time period.d)All the particles are never at rest simultaneously.Correct answer is option 'A,C'. Can you explain this answer?
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