General calculus required for AP/college physics problems?

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SUMMARY

Understanding calculus is essential for tackling introductory physics problems, particularly in kinematics. Key calculus concepts include derivatives, integrals, limits, and infinite series, with derivatives being crucial for determining position functions from acceleration. The position function can be derived using the formula s = (1/2)at² + v₀t + s₀, where acceleration is the second derivative of displacement. While calculus is not heavily featured in basic physics problems, familiarity with these concepts enhances comprehension and problem-solving skills.

PREREQUISITES
  • Understanding of derivatives and their applications in physics
  • Knowledge of integrals and their role in calculating work and energy
  • Familiarity with kinematic equations and their derivations
  • Basic grasp of limits and infinite series in calculus
NEXT STEPS
  • Study the derivation of kinematic equations using calculus
  • Practice solving problems involving derivatives and integrals in physics
  • Explore applications of calculus in potential energy calculations
  • Learn about free body diagrams and their relationship with calculus concepts
USEFUL FOR

Students preparing for AP or college-level physics, educators teaching introductory physics, and anyone looking to strengthen their calculus skills for practical applications in physics.

Jewish_Vulcan
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I am supposed to take calculus next school year but I want to do some physics work over the summer. Can anyone provide me the the most common calculus problems in physics? I was thinking that derrivatives, integrals, limits, and infinite series would be the main ones but I am likely wrong.
 
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Typically the first bit of calculus one sees in physics is in kinematics. Namely, the question of how to find a position function given a constant acceleration, knowing that acceleration is the second derivative of the displacement (with the velocity being the second derivative). After that, you can use calculus to find the work done by a varying force, it can be used in potential energy calculations (particularly when dealing with Newtonian gravitation). But I'm not so sure calculus is used that often in an introductory course in physics. It is used to prove certain things or to derive equations, but students typically don't see that many problems actually involving calculus. There are a lot of free body diagrams and energy calculations, but calculus only shows up in the less-than-ideal problems.

An example of its use to derive something is, for example, the position function given a constant acceleration. Given \frac{d^2 s}{dt^2} = a and the initial values s(0) = s_0 and s'(0) = v(0) = v_0, we can integrate twice to get s = \frac{1}{2}at^2 + v_0 t + s_0 But this is merely to derive the formula, and unless you really hate memorizing formulas, it's not typically done more than once.
 
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Learn how to take a derivative inside and out.
Beyond basic derivatives and integration techniques you won't need much in a first semester physics course. It is of course, to your advantage to get a head and I suggest learning intimately the kinematic equations posted earlier and how they are derived. How the derivative of the position function is the velocity and the derivative of the velocity function is acceleration.
 
RJLiberator Agree
Firest you have to start from derivation and integration, then move to more complex problems
 
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Yes. 100% agreed. To me, differentiation and integration is like the 'addition and subtraction' of calculus.
 

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