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2.2-2.3
 Calculus-based
Physics: Free-fall
    Formula
Vocabulary
• Position: the location of a body at a particular time (t)
• Displacement: the change in position of a body (how far
  it is from its starting point)
• Velocity: the rate of change of position with respect to
  time
      * instantaneous velocity = derivative
      * average velocity = algebraic slope
• Speed: the absolute value of velocity
• Acceleration: the rate of change of velocity with respect
  to time
Notation:
• Position Function: s(t)
• Velocity Function: v(t)
• Acceleration Function: a(t)
Units:
• Position: linear units (e.g. m)
• Velocity: linear unit per unit of time
  (e.g. m/s)
• Acceleration: unit of velocity per unit
  of time (e.g. m/s/s or m/s2)
The Calculus...

s(t)
v(t) = s’(t)
a(t) = v’(t) = s”(t)
Position Free-fall Formula
(within a body’s gravitational field)

             1         2
s(t)         2   gt         vot so
  vo    initial velocity
  so    initial position
  g    gravitational constant
       ( 32 ft/sec2 or 9.8 m /sec2 on Earth)

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2.2 2.3 Calc-based Physics - Free-fall no ex

  • 2. Vocabulary • Position: the location of a body at a particular time (t) • Displacement: the change in position of a body (how far it is from its starting point) • Velocity: the rate of change of position with respect to time * instantaneous velocity = derivative * average velocity = algebraic slope • Speed: the absolute value of velocity • Acceleration: the rate of change of velocity with respect to time
  • 3. Notation: • Position Function: s(t) • Velocity Function: v(t) • Acceleration Function: a(t)
  • 4. Units: • Position: linear units (e.g. m) • Velocity: linear unit per unit of time (e.g. m/s) • Acceleration: unit of velocity per unit of time (e.g. m/s/s or m/s2)
  • 5. The Calculus... s(t) v(t) = s’(t) a(t) = v’(t) = s”(t)
  • 6. Position Free-fall Formula (within a body’s gravitational field) 1 2 s(t) 2 gt vot so vo initial velocity so initial position g gravitational constant ( 32 ft/sec2 or 9.8 m /sec2 on Earth)