Solving Curvilinear Motion Homework: x & y Components of Velocity & Acceleration

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SUMMARY

The discussion focuses on solving a curvilinear motion problem involving a particle traveling along the path defined by the equation y² = 4x with a constant speed of 4 m/s. Participants emphasize the importance of determining the x and y components of both velocity and acceleration at the point where the particle is at 4 meters along the curve. Key steps include finding the corresponding x-value, utilizing the integral definition of distance for curves, and calculating the derivative to obtain the velocity vector, which is tangent to the curve at all points.

PREREQUISITES
  • Understanding of curvilinear motion and its equations
  • Knowledge of derivatives and their application in physics
  • Familiarity with the integral definition of distance for curves
  • Ability to calculate velocity and acceleration components
NEXT STEPS
  • Study the application of derivatives in curvilinear motion problems
  • Learn how to derive velocity and acceleration components from parametric equations
  • Explore the integral definition of distance for curves in more detail
  • Practice solving similar problems involving velocity and acceleration in curvilinear motion
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Students studying physics, particularly those focusing on mechanics and curvilinear motion, as well as educators seeking to enhance their teaching methods in this area.

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Homework Statement



A particle travels along the path y^2 = 4x with a constant speed of v = 4 m/s.
Determine the x and y components of the particle's velocity and acceleration when the particle is at 4m

Homework Equations



1st and 2nd derivatives??

The Attempt at a Solution



not sure what to do..
 
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Remember that the velocity vector is tangent to the curve at all points. So, you should find at what x-value is the particle at 4m (do you remember the integral definition of distance for a curve?), then find the derivative at that point...

Do you see where to go after that, given the magnitude of the velocity vector?
 

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