NEET Exam > NEET Questions > The magnitude of force acting on a particle m...
Start Learning for Free
The magnitude of force acting on a particle moving along the x-axis where is the time tea as shown in the figure if at t is equal to zero the velocity of particle is v not then it's velocity at is equal to do not will be?
Most Upvoted Answer
The magnitude of force acting on a particle moving along the x-axis wh...
Understanding Force and Velocity
When analyzing the motion of a particle along the x-axis, it's crucial to understand the relationship between force, velocity, and time.
1. Force and Acceleration
- The force acting on the particle is related to its acceleration by Newton's second law (F = ma).
- If the force varies with time, the acceleration of the particle will also change accordingly.
2. Initial Conditions
- At time t = 0, the particle has an initial velocity denoted as v0.
- The nature of the force applied will determine how the velocity changes over time.
3. Velocity Change Over Time
- The change in velocity can be calculated using the impulse-momentum theorem, which states that the change in momentum is equal to the impulse applied.
- The equation for velocity at a later time t can be expressed as:
- v(t) = v0 + ∫(a(t) dt) from 0 to t, where a(t) is the acceleration derived from the force.
4. Final Velocity at t = t0
- To find the velocity at a specific time t0, you need to integrate the acceleration over that time interval.
- The resultant velocity at t = t0 will depend on the specific function of force over time and the initial conditions.
5. Conclusion
- The final velocity of the particle at time t0 will be determined by the magnitude and direction of the force acting on it during the time interval from t = 0 to t = t0.
- A detailed analysis of the force function is essential to accurately determine the velocity at t = t0.
Understanding these concepts is vital for solving problems related to motion in physics, especially in the NEET examination context.
When analyzing the motion of a particle along the x-axis, it's crucial to understand the relationship between force, velocity, and time.
1. Force and Acceleration
- The force acting on the particle is related to its acceleration by Newton's second law (F = ma).
- If the force varies with time, the acceleration of the particle will also change accordingly.
2. Initial Conditions
- At time t = 0, the particle has an initial velocity denoted as v0.
- The nature of the force applied will determine how the velocity changes over time.
3. Velocity Change Over Time
- The change in velocity can be calculated using the impulse-momentum theorem, which states that the change in momentum is equal to the impulse applied.
- The equation for velocity at a later time t can be expressed as:
- v(t) = v0 + ∫(a(t) dt) from 0 to t, where a(t) is the acceleration derived from the force.
4. Final Velocity at t = t0
- To find the velocity at a specific time t0, you need to integrate the acceleration over that time interval.
- The resultant velocity at t = t0 will depend on the specific function of force over time and the initial conditions.
5. Conclusion
- The final velocity of the particle at time t0 will be determined by the magnitude and direction of the force acting on it during the time interval from t = 0 to t = t0.
- A detailed analysis of the force function is essential to accurately determine the velocity at t = t0.
Understanding these concepts is vital for solving problems related to motion in physics, especially in the NEET examination context.
Attention NEET Students!
To make sure you are not studying endlessly, EduRev has designed NEET study material, with Structured Courses, Videos, & Test Series. Plus get personalized analysis, doubt solving and improvement plans to achieve a great score in NEET.
|
Explore Courses for NEET exam
|
|
Similar NEET Doubts
Top Courses for NEETView all
The magnitude of force acting on a particle moving along the x-axis where is the time tea as shown in the figure if at t is equal to zero the velocity of particle is v not then it's velocity at is equal to do not will be?
Question Description
The magnitude of force acting on a particle moving along the x-axis where is the time tea as shown in the figure if at t is equal to zero the velocity of particle is v not then it's velocity at is equal to do not will be? for NEET 2024 is part of NEET preparation. The Question and answers have been prepared according to the NEET exam syllabus. Information about The magnitude of force acting on a particle moving along the x-axis where is the time tea as shown in the figure if at t is equal to zero the velocity of particle is v not then it's velocity at is equal to do not will be? covers all topics & solutions for NEET 2024 Exam. Find important definitions, questions, meanings, examples, exercises and tests below for The magnitude of force acting on a particle moving along the x-axis where is the time tea as shown in the figure if at t is equal to zero the velocity of particle is v not then it's velocity at is equal to do not will be?.
The magnitude of force acting on a particle moving along the x-axis where is the time tea as shown in the figure if at t is equal to zero the velocity of particle is v not then it's velocity at is equal to do not will be? for NEET 2024 is part of NEET preparation. The Question and answers have been prepared according to the NEET exam syllabus. Information about The magnitude of force acting on a particle moving along the x-axis where is the time tea as shown in the figure if at t is equal to zero the velocity of particle is v not then it's velocity at is equal to do not will be? covers all topics & solutions for NEET 2024 Exam. Find important definitions, questions, meanings, examples, exercises and tests below for The magnitude of force acting on a particle moving along the x-axis where is the time tea as shown in the figure if at t is equal to zero the velocity of particle is v not then it's velocity at is equal to do not will be?.
Solutions for The magnitude of force acting on a particle moving along the x-axis where is the time tea as shown in the figure if at t is equal to zero the velocity of particle is v not then it's velocity at is equal to do not will be? in English & in Hindi are available as part of our courses for NEET.
Download more important topics, notes, lectures and mock test series for NEET Exam by signing up for free.
Here you can find the meaning of The magnitude of force acting on a particle moving along the x-axis where is the time tea as shown in the figure if at t is equal to zero the velocity of particle is v not then it's velocity at is equal to do not will be? defined & explained in the simplest way possible. Besides giving the explanation of
The magnitude of force acting on a particle moving along the x-axis where is the time tea as shown in the figure if at t is equal to zero the velocity of particle is v not then it's velocity at is equal to do not will be?, a detailed solution for The magnitude of force acting on a particle moving along the x-axis where is the time tea as shown in the figure if at t is equal to zero the velocity of particle is v not then it's velocity at is equal to do not will be? has been provided alongside types of The magnitude of force acting on a particle moving along the x-axis where is the time tea as shown in the figure if at t is equal to zero the velocity of particle is v not then it's velocity at is equal to do not will be? theory, EduRev gives you an
ample number of questions to practice The magnitude of force acting on a particle moving along the x-axis where is the time tea as shown in the figure if at t is equal to zero the velocity of particle is v not then it's velocity at is equal to do not will be? tests, examples and also practice NEET tests.
|
|
Explore Courses for NEET exam
|
|
Suggested Free Tests
Signup for Free!
Signup to see your scores go up within 7 days! Learn & Practice with 1000+ FREE Notes, Videos & Tests.
|
© EduRev
|
Education Revolution
|
Follow Us
|
Signup to see your scores
go up within 7 days!
Access 1000+ FREE Docs, Videos and Tests
Takes less than 10 seconds to signup