Exam 4: Applications of the Derivative

arrow
  • Select Tags
search iconSearch Question
  • Select Tags

What can you conclude about the graph of What can you conclude about the graph of   from the following table? -1 -6   + 0 - - -   + 0 - 0 -  A)   is concave down on   and    B)   is an inflection point and    C)   is an inflection point and    D)   is concave up on   and   is increasing on  from the following table? -1 -6 What can you conclude about the graph of   from the following table? -1 -6   + 0 - - -   + 0 - 0 -  A)   is concave down on   and    B)   is an inflection point and    C)   is an inflection point and    D)   is concave up on   and   is increasing on  + 0 - - - What can you conclude about the graph of   from the following table? -1 -6   + 0 - - -   + 0 - 0 -  A)   is concave down on   and    B)   is an inflection point and    C)   is an inflection point and    D)   is concave up on   and   is increasing on  + 0 - 0 - A) What can you conclude about the graph of   from the following table? -1 -6   + 0 - - -   + 0 - 0 -  A)   is concave down on   and    B)   is an inflection point and    C)   is an inflection point and    D)   is concave up on   and   is increasing on  is concave down on What can you conclude about the graph of   from the following table? -1 -6   + 0 - - -   + 0 - 0 -  A)   is concave down on   and    B)   is an inflection point and    C)   is an inflection point and    D)   is concave up on   and   is increasing on  and What can you conclude about the graph of   from the following table? -1 -6   + 0 - - -   + 0 - 0 -  A)   is concave down on   and    B)   is an inflection point and    C)   is an inflection point and    D)   is concave up on   and   is increasing on  B) What can you conclude about the graph of   from the following table? -1 -6   + 0 - - -   + 0 - 0 -  A)   is concave down on   and    B)   is an inflection point and    C)   is an inflection point and    D)   is concave up on   and   is increasing on  is an inflection point and What can you conclude about the graph of   from the following table? -1 -6   + 0 - - -   + 0 - 0 -  A)   is concave down on   and    B)   is an inflection point and    C)   is an inflection point and    D)   is concave up on   and   is increasing on  C) What can you conclude about the graph of   from the following table? -1 -6   + 0 - - -   + 0 - 0 -  A)   is concave down on   and    B)   is an inflection point and    C)   is an inflection point and    D)   is concave up on   and   is increasing on  is an inflection point and What can you conclude about the graph of   from the following table? -1 -6   + 0 - - -   + 0 - 0 -  A)   is concave down on   and    B)   is an inflection point and    C)   is an inflection point and    D)   is concave up on   and   is increasing on  D) What can you conclude about the graph of   from the following table? -1 -6   + 0 - - -   + 0 - 0 -  A)   is concave down on   and    B)   is an inflection point and    C)   is an inflection point and    D)   is concave up on   and   is increasing on  is concave up on What can you conclude about the graph of   from the following table? -1 -6   + 0 - - -   + 0 - 0 -  A)   is concave down on   and    B)   is an inflection point and    C)   is an inflection point and    D)   is concave up on   and   is increasing on  and What can you conclude about the graph of   from the following table? -1 -6   + 0 - - -   + 0 - 0 -  A)   is concave down on   and    B)   is an inflection point and    C)   is an inflection point and    D)   is concave up on   and   is increasing on  is increasing on What can you conclude about the graph of   from the following table? -1 -6   + 0 - - -   + 0 - 0 -  A)   is concave down on   and    B)   is an inflection point and    C)   is an inflection point and    D)   is concave up on   and   is increasing on

(Short Answer)
4.8/5
(33)

Suppose that a function Suppose that a function   satisfies the following equation for small values of   :   . Also,   and   .  A) Find the linearization of   at   .  B) Replace   by its linearization and find a quadratic equation for   .  C) Estimate the roots of the quadratic equation in   to 4 decimal digits using linearization for   . satisfies the following equation for small values of Suppose that a function   satisfies the following equation for small values of   :   . Also,   and   .  A) Find the linearization of   at   .  B) Replace   by its linearization and find a quadratic equation for   .  C) Estimate the roots of the quadratic equation in   to 4 decimal digits using linearization for   . : Suppose that a function   satisfies the following equation for small values of   :   . Also,   and   .  A) Find the linearization of   at   .  B) Replace   by its linearization and find a quadratic equation for   .  C) Estimate the roots of the quadratic equation in   to 4 decimal digits using linearization for   . . Also, Suppose that a function   satisfies the following equation for small values of   :   . Also,   and   .  A) Find the linearization of   at   .  B) Replace   by its linearization and find a quadratic equation for   .  C) Estimate the roots of the quadratic equation in   to 4 decimal digits using linearization for   . and Suppose that a function   satisfies the following equation for small values of   :   . Also,   and   .  A) Find the linearization of   at   .  B) Replace   by its linearization and find a quadratic equation for   .  C) Estimate the roots of the quadratic equation in   to 4 decimal digits using linearization for   . . A) Find the linearization of Suppose that a function   satisfies the following equation for small values of   :   . Also,   and   .  A) Find the linearization of   at   .  B) Replace   by its linearization and find a quadratic equation for   .  C) Estimate the roots of the quadratic equation in   to 4 decimal digits using linearization for   . at Suppose that a function   satisfies the following equation for small values of   :   . Also,   and   .  A) Find the linearization of   at   .  B) Replace   by its linearization and find a quadratic equation for   .  C) Estimate the roots of the quadratic equation in   to 4 decimal digits using linearization for   . . B) Replace Suppose that a function   satisfies the following equation for small values of   :   . Also,   and   .  A) Find the linearization of   at   .  B) Replace   by its linearization and find a quadratic equation for   .  C) Estimate the roots of the quadratic equation in   to 4 decimal digits using linearization for   . by its linearization and find a quadratic equation for Suppose that a function   satisfies the following equation for small values of   :   . Also,   and   .  A) Find the linearization of   at   .  B) Replace   by its linearization and find a quadratic equation for   .  C) Estimate the roots of the quadratic equation in   to 4 decimal digits using linearization for   . . C) Estimate the roots of the quadratic equation in Suppose that a function   satisfies the following equation for small values of   :   . Also,   and   .  A) Find the linearization of   at   .  B) Replace   by its linearization and find a quadratic equation for   .  C) Estimate the roots of the quadratic equation in   to 4 decimal digits using linearization for   . to 4 decimal digits using linearization for Suppose that a function   satisfies the following equation for small values of   :   . Also,   and   .  A) Find the linearization of   at   .  B) Replace   by its linearization and find a quadratic equation for   .  C) Estimate the roots of the quadratic equation in   to 4 decimal digits using linearization for   . .

(Essay)
4.7/5
(41)

The radius The radius   of a sphere is measured at 4 m. Use linear approximation to estimate the maximum error in the surface area of the sphere if   is accurate to within   m. of a sphere is measured at 4 m. Use linear approximation to estimate the maximum error in the surface area of the sphere if The radius   of a sphere is measured at 4 m. Use linear approximation to estimate the maximum error in the surface area of the sphere if   is accurate to within   m. is accurate to within The radius   of a sphere is measured at 4 m. Use linear approximation to estimate the maximum error in the surface area of the sphere if   is accurate to within   m. m.

(Essay)
4.7/5
(47)

Sketch the graph of the function. Indicate the asymptotes, local extrema, and points of inflection. Sketch the graph of the function. Indicate the asymptotes, local extrema, and points of inflection.

(Essay)
4.9/5
(41)

Apply Newton's Method to Apply Newton's Method to   with an initial guess of   to calculate   ,   , and   . with an initial guess of Apply Newton's Method to   with an initial guess of   to calculate   ,   , and   . to calculate Apply Newton's Method to   with an initial guess of   to calculate   ,   , and   . , Apply Newton's Method to   with an initial guess of   to calculate   ,   , and   . , and Apply Newton's Method to   with an initial guess of   to calculate   ,   , and   . .

(Essay)
4.9/5
(35)

Find the linearization of the given function centered at Find the linearization of the given function centered at   , and use it to estimate   .  A)    B)  , and use it to estimate Find the linearization of the given function centered at   , and use it to estimate   .  A)    B)  . A) Find the linearization of the given function centered at   , and use it to estimate   .  A)    B)  B) Find the linearization of the given function centered at   , and use it to estimate   .  A)    B)

(Essay)
4.8/5
(47)

Show that the equation Show that the equation   has a root   in the interval   and use Newton's Method to approximate it to four decimal places. has a root Show that the equation   has a root   in the interval   and use Newton's Method to approximate it to four decimal places. in the interval Show that the equation   has a root   in the interval   and use Newton's Method to approximate it to four decimal places. and use Newton's Method to approximate it to four decimal places.

(Essay)
4.9/5
(31)

Use Newton's Method to approximate the only positive root for Use Newton's Method to approximate the only positive root for   to within an error of at most  to within an error of at most Use Newton's Method to approximate the only positive root for   to within an error of at most

(Short Answer)
4.8/5
(45)

Find the intervals on which the function is concave up and concave down and indicate the points of inflection A) Find the intervals on which the function is concave up and concave down and indicate the points of inflection A)    B)  B) Find the intervals on which the function is concave up and concave down and indicate the points of inflection A)    B)

(Essay)
4.8/5
(39)

The minimum and maximum of which of the following functions does not occur at a critical point in the open interval:

(Multiple Choice)
4.8/5
(36)

Show that the equation Show that the equation   has a root in the interval   and use Newton's Method to approximate it with an error of at most   . has a root in the interval Show that the equation   has a root in the interval   and use Newton's Method to approximate it with an error of at most   . and use Newton's Method to approximate it with an error of at most Show that the equation   has a root in the interval   and use Newton's Method to approximate it with an error of at most   . .

(Essay)
4.9/5
(34)

Find all the critical points of the function A) Find all the critical points of the function A)    B)  B) Find all the critical points of the function A)    B)

(Essay)
4.8/5
(40)

Which of the following functions has a local maximum at a point in the interval Which of the following functions has a local maximum at a point in the interval   :  A)    B)    C)    D)  : A) Which of the following functions has a local maximum at a point in the interval   :  A)    B)    C)    D)  B) Which of the following functions has a local maximum at a point in the interval   :  A)    B)    C)    D)  C) Which of the following functions has a local maximum at a point in the interval   :  A)    B)    C)    D)  D) Which of the following functions has a local maximum at a point in the interval   :  A)    B)    C)    D)

(Essay)
4.8/5
(37)

Estimate Estimate   using linear approximation. using linear approximation.

(Essay)
4.9/5
(36)

Find the intervals on which the function is concave up and concave down and indicate the points of inflection A) Find the intervals on which the function is concave up and concave down and indicate the points of inflection A)    B)  B) Find the intervals on which the function is concave up and concave down and indicate the points of inflection A)    B)

(Essay)
4.7/5
(40)

The following is the graph of The following is the graph of   Where do the points of inflection of   occur, and on which intervals is   concave up?  Where do the points of inflection of The following is the graph of   Where do the points of inflection of   occur, and on which intervals is   concave up?  occur, and on which intervals is The following is the graph of   Where do the points of inflection of   occur, and on which intervals is   concave up?  concave up? The following is the graph of   Where do the points of inflection of   occur, and on which intervals is   concave up?

(Essay)
4.7/5
(34)

Estimate the roots of the equation Estimate the roots of the equation   using the linear approximation for   . using the linear approximation for Estimate the roots of the equation   using the linear approximation for   . .

(Essay)
4.7/5
(44)
Showing 61 - 77 of 77
close modal

Filters

  • Essay(0)
  • Multiple Choice(0)
  • Short Answer(0)
  • True False(0)
  • Matching(0)