- 1(current)
Q. No.The speed-time graph of a particle moving along a fixed direction is shown in the figure. Then the distance traversed by the particle between \(t=0\) s to \(10\) s is:
1. \(70\) m
2. \(60\) m
3. \(50\) m
4. \(40\) m
Various velocity-time graphs are given below. The graph representing motion where velocity changes direction is:
| (a) |  |
(b) |  |
| (c) |  |
(d) |  |
1. graph (a)
2. graph (b)
3. graph (c)
4. graph (d)
Different position-time graphs are given for objects moving in different conditions. The graph representing object moving with positive acceleration is:
1. Graph \(\mathrm a\)
2. Graph \(\mathrm b\)
3. Graph \(\mathrm c\)
4. None of the above
| 1. | \(180~\text{m}\) | 2. | \(60~\text{m}\) |
| 3. | \(80~\text{m}\) | 4. | \(18~\text{m}\) |
A particle shows the distance-time curve as given in this figure. The maximum instantaneous velocity of the particle is around the point:
1. \(B\)
2. \(C\)
3. \(D\)
4. \(A\)
| (a) | Quantity \(B\) may represent time. |
| (b) | Quantity \(A\) is velocity if motion is uniform. |
| (c) | Quantity \(A\) is displacement if motion is uniform. |
| (d) | Quantity \(A\) is velocity if motion is uniformly accelerated. |
1. (a), (c), (d)
2. (a) only
3. (b) only
4. (d) only
| 1. |  |
2. |  |
| 3. |  |
4. |  |
The acceleration \((a)\)-time \((t)\) graph that best suits this motion is:
| 1. |  |
2. |  |
| 3. |  |
4. |  |
The figure given below shows the displacement and time, \((x\text -t)\) graph of a particle moving along a straight line:
The correct statement, about the motion of the particle, is:
| 1. | the particle moves at a constant velocity up to a time \(t_0\) and then stops. |
| 2. | the particle is accelerated throughout its motion. |
| 3. | the particle is accelerated continuously for time \(t_0\) then moves with constant velocity. |
| 4. | the particle is at rest. |
| 1. |  |
2. |  |
| 3. |  |
4. |  |
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Q. No.
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