Non-constant Acceleration has me stumped.

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SUMMARY

The discussion focuses on calculating the distance traveled by an object experiencing non-constant acceleration in a frictionless environment. The object accelerates at a rate of 2 m/s² every second for 15 seconds, reaching a maximum acceleration before maintaining that speed for an additional 30 seconds. The relevant equations include the kinematic equation s = ut + ½ at² and the integral forms for velocity and position, v(t) = v(0) + ∫ a(t) dt and x(t) = x(0) + ∫ v(t) dt. The total distance traveled after 60 seconds is derived from these principles.

PREREQUISITES
  • Understanding of kinematic equations, specifically s = ut + ½ at²
  • Knowledge of calculus, particularly integration techniques for velocity and acceleration
  • Familiarity with concepts of non-constant acceleration
  • Basic physics principles regarding motion in a frictionless environment
NEXT STEPS
  • Study the application of kinematic equations in non-constant acceleration scenarios
  • Learn integration techniques for calculating velocity and position functions
  • Explore advanced topics in physics related to motion, such as differential equations
  • Practice similar problems involving variable acceleration to reinforce understanding
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Students studying physics, particularly those tackling problems involving non-constant acceleration, as well as educators seeking to explain these concepts effectively.

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Homework Statement



An object in a frictionless environment accelerates at a rate which increases by 2 m/s2 every second. after 15 seconds, the object reaches is maximum acceleration, and remains constant for a further 30 seconds before all acceleration ceases and it therefore travels at a constant speed for an indefinite period of time. How far had the object traveled after 60 seconds?

u = 0
t = 60

Homework Equations



s = ut + ½ at²

The Attempt at a Solution



I don't even know where to start. I'd like to do it primarily on my own though, so if someone could point me in the right direction, it would be greatly appreciated.
 
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for non-constant acceleration you have

[tex]v(t) = v(0) + \int_{0}^{t} a(t) dt[/tex]


and [tex]x(t) = x(0) + \int_{0}^{t} v(t) dt[/tex]

which you should know how to do if you try this problem.
 

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