EMBRY RIDDLE MATH112 all discussion (module 1-9)

Upon completion of this assignment, you will have an overview of calculus and discover the tools that are available for you to use in this course.
In each module, you will work two custom problems based on your unique Calculus Identification Number (CIN) provided by your instructor. Your instructor will assign this five digit CIN once you have sent an confirmation email as instructed in the Start Here module (you may already have received it). The letters that are in bold in brackets below correspond to you CIN. The first digit is [a], the second digit is [b], etc.You are encouraged to view and comment on your classmates' posts. Sometimes it is helpful if you are having difficulty to ask how they arrive at their solutions. To do this, use the Reply button associated with their orignal post.
Problems
- Find the slope of the line passing through the points ([c], [d]) and (1, [b]). The write-up for this problem should be one line in MathType. Round your answer to two decimal places.
- If
and
, find
a)
b)
Round your answers to two decimal places.
mdoule 2
When you read the textbook introduction pages to the four
chapters that we cover in this course (Chapters 23-27), you are
introduced to a number of famous mathematicians. Sir Isaac Newton and
Gottfried Leibnitz are the two mathematicians who are credited with the
creation of calculus. They are our persons of interest for this
discussion activity.
Your discussion activity for this module is
to research these two men and write a couple of sentences about each of
them. Your goal is to add a new fact to the Discussion Board about each
of these men.
module 3
In the discussion area, solve your two custom application problems using the concepts you have learned. Apply your CINs in the bracketed spaces (the first digit is [a], the second digit is [b], and so forth.)
Problems
Find
the first derivative of the following functions and evaluate at the
given point. Show supporting work and underline your answer. Please use
MathType for your supporting work.
module 4
In the discussion area, solve your two custom application problems using the concepts you have learned. Apply your CINs in the bracketed spaces (the first digit is [a], the second digit is [b], and so forth.)
ProblemsFor both problems, show supporting work and underline your answer. Please use MathType.
- Find the second derivative of
and evaluate it at
.
- Find the equation of the line tangent to the following curve at x = 1. Write your answer in y = mx + b format.
module 5
In the discussion area, solve your two custom application problems using the concepts you have learned. Apply your CINs in the bracketed spaces (the first digit is [a], the second digit is [b], and so forth.)
Problems- The x- and y-coordinates of a moving particle are given by two parametric equations..
Find the magnitude and direction of velocity at t = 3 sec. Distance is measured in meters. Round your answers to one decimal place and don't forget to use the degree symbol. - A 6-ft tall man walks away from a [a]*[c]-ft tall streetlight at [b] ft/sec. How fast is his shadow increasing when he is [e] feet from the streetlight?
module 6
In the discussion area, solve your two custom application problems using the concepts you have learned. Apply your CINs in the bracketed spaces (the first digit is [a], the second digit is [b], and so forth.)
Problems- A rock is thrown upward from the edge of a cliff. The rock follows the equation below.
What is the greatest height above the ground that this rock will go? - You are designing a rectangular enclosure with [a] rectangular interior sections separated by parallel walls. If you have 300*[c] feet of fencing, what is the maximum area that can be enclosed?
module 7
In the discussion area, solve your two custom application problems using the concepts you have learned. Apply your CINs in the bracketed spaces (the first digit is [a], the second digit is [b], and so forth.)
ProblemsThe constant of integration can be found if you know one point on the curve. For the following problem, find the constant of integration. These problems may be easier if you have worked problem #13 from the MML HW Mod 7.
- Find the constant of integration, C if:
dx and the curve passes through the point ([a], [e]).
- Find the constant of integration, C if:
dxand the curve passes through the point ([c], [d]).
module 8
[e]
In the discussion area, solve your two custom application problems using the concepts you have learned. Apply your CINs in the bracketed spaces (the first digit is [a], the second digit is [b], and so forth.)
Problems- Evaluate
dx and round your answer to two decimal places.
- Approximate the area under the curve defined by the following data points.
x 1 4 7 10 13 16 19 22 25 y [a] 4.6 [b] 6.2 [c] 5.5 [d] 7.8 [e]
mdoule 9
In the discussion area, solve your two custom application problems using the concepts you have learned. Apply your CINs in the bracketed spaces (the first digit is [a], the second digit is [b], and so forth.)
Problems- The acceleration of a particle is given by the equation:
Find S at t=2 sec. - Find the area between the curves for the equations below and round your answer to one decimal place.

-
Rating:
5/
Solution: EMBRY RIDDLE MATH112 all discussion (module 1-9)