520 likes | 533 Views
Calculus Index Cards. Front And Back. Instructions. The odd numbered slides are the front of the index card, the questions The even numbered slides are the back, the answers Write the front of the card and then write the back and carry the stack with you at all times.
E N D
Calculus Index Cards Front And Back
Instructions • The odd numbered slides are the front of the index card, the questions • The even numbered slides are the back, the answers • Write the front of the card and then write the back and carry the stack with you at all times
Given Velocity and Position at t = 0 Front • Find speed • Acceleration • Position Function • Distance traveled
Front • Given position find average velocity from a to b • Given a table of amounts, find the rate of change at one of those amounts • Given a function from a, to b, find the average value • Given velocity from a to b, find the average velocity
Given position find average velocity from a to b old fashion slope from a to b • Given a table of amounts, find the rate of change at one of those amounts Old fashion slope around that point • Given a function from a, to b, find the average value • Given velocity from a to b, find the average velocity
Given A. Use the left hand rule B. Use the right hand rule C. Use the midpoint rule D. Use the trapezoid rule
Given A. Use the left hand rule B. Use the right hand rule C. Use the midpoint rule D. Use the trapezoid rule
Find the equation of the line tangent to the curve • Find the equation of the line normal
Given And the graph of f(x) • Find g(some number) • Find g’(x), find g’(some number) • Find where g has a max/min • Find the point of inflection of g
Given And the graph of f(x) • Find g(some number) • Find g’(x), find g’(some number) • Find where g has a max/min • Find the point of inflection of g
Function is continuous if (informal definition) (Formal definition) Function is differentiable if (informal) (formal)
Function is continuous if (informal definition) (Formal definition) Function is differentiable if (informal) (formal)
Mean Value theorem Extreme Value Theorem
The derivative of this Is this
The derivative of this Is this
The first derivative tells us about • Slope Instantaneous rate of change Increasing or decreasing • Max, min
The second derivative tells us • Concave up concave down • Point of inflection • Rate of change of the slopes • The maximum/minimum slope
Product rule Quotient rule Chain rule
Product rule Quotient rule Chain rule
What is this? or Definition of the derivative
First derivative test • f’<0 when x<a and f’>0 when x>a. What does that mean at x = a • f’>0 when x<a and f’<0 when x>a. What does that mean at x = a
First derivative test • f’<0 when x<a and f’>0 when x>a. What does that mean for x = a • a is a min • f’>0 when x<a and f’<0 when x>a. What does that mean for x = a • a is a max
Second derivative Test • f ’(a) = 0 and f ”(a)<0. What does that mean at f(a)? • f ’(a) = 0 and f ”(a)>0. What does that mean at f(a)?
Second derivative Test • f ’(a) = 0 and f ”(a)<0. What does that mean at f(a)? • f(a) is a max • f ’(a) = 0 and f ”(a)>0. What does that mean at f(a)? • f(a) is a min
underestimate or overestimate? • left hand rule with a function that is increasing • right hand rule with a function that is increasing • tangent line approximation with a curve that is concave down • tangent line approximation with a curve that is concave up
underestimate or overestimate? • left hand rule with a function that is increasing - under • right hand rule with a function that is increasing - over • tangent line approximation with a curve that is concave down - over • tangent line approximation with a curve that is concave up - under
is speed increasing or decreasing • velocity is positive and acceleration is negative • velocity is negative and acceleration is negative
is speed increasing or decreasing • velocity is positive and acceleration is negative - decreasing • velocity is negative and acceleration is negative - increasing