Higher Order Derivatives

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Presentation transcript:

Higher Order Derivatives OBJECTIVE Find derivatives of higher order. Given a formula for distance, find velocity and acceleration.

1.8 Higher Order Derivatives Consider the function given by Its derivative f  is given by The derivative function f  can also be differentiated. We can think of the derivative f  as the rate of change of the slope of the tangent lines of f . It can also be regarded as the rate at which is changing.

1.8 Higher Order Derivatives Higher-Order Derivatives (continued): We use the notation  for the derivative . That is, We call  the second derivative of f. For the second derivative is given by

1.8 Higher Order Derivatives Higher-Order Derivatives (continued): Continuing in this manner, we have When notation like gets lengthy, we abbreviate it using a symbol in parentheses. Thus is the nth derivative.

1.8 Higher Order Derivatives Higher-Order Derivatives (continued): For we have

1.8 Higher Order Derivatives Higher-Order Derivatives (continued): Leibniz’s notation for the second derivative of a function given by y = f (x) is read “the second derivative of y with respect to x.” The 2’s in this notation are NOT exponents.

1.8 Higher Order Derivatives 2012 Pearson Education, Inc. All rights reserved 1.8 Higher Order Derivatives Higher-Order Derivatives (concluded): If then

1.8 Higher Order Derivatives Example 1: For find

1.8 Higher Order Derivatives Example 2: For find and . By the Extended Chain Rule, Using the Product Rule and Extended Chain Rule,

1.8 Higher Order Derivatives Quick Check 1 a.) Find : (i) (ii) (iii) b.) Find

1.8 Higher Order Derivatives Quick Check 1 Solution a.) For the following problems, remember that (i) (ii) (iii)

1.8 Higher Order Derivatives 2012 Pearson Education, Inc. All rights reserved 1.8 Higher Order Derivatives Quick Check 1 Solution Concluded b.) Find

1.8 Higher Order Derivatives DEFINITION: The velocity of an object that is s(t) units from a starting point at time t is given by

1.8 Higher Order Derivatives DEFINITION:

1.8 Higher Order Derivatives Example 3: For s(t) = 10t2 find v(t) and a(t), where s is the distance from the starting point, in miles, and t is in hours. Then, find the distance, velocity, and acceleration when t = 4 hr.

1.8 Higher Order Derivatives Quick Check 2 A pebble is dropped from a hot-air balloon. Find how far it has fallen, how fast it is falling, and its acceleration after 3.5 seconds. Let , where t is in seconds, and s is in feet. Distance: Velocity: Acceleration:

1.8 Higher Order Derivatives Section Summary The second derivative is the derivative of the first derivative of a function. In symbols, The second derivative describes the rate of change of the rate of change. In other words, it describes the rate of change of the first derivative.

1.8 Higher Order Derivatives Section Summary Concluded A real-life example of a second derivative is acceleration. If represents distance as a function of time of a moving object, then describes the speed (velocity) of the object. Any change in the speed of the object is acceleration: The common notation for the nth derivative of a function is or