The equation of the paraboloid

 

You will write a report in memo format (sample provided) which fully reflects your work. The mathematical content is of course most important – with all work shown. Analysis of the mathematical content is then to be completed that explains the work to a perhaps lay audience and draws two or more conclusions/recommendations. The questions posed in the project should be answered/addressed in the order posed. Grammar and spelling are also important. The submission will need to be typed and in a format that has a mathematics editor for your mathematical work. Any needed graphs should also be included.

Project 1
In this project, you play the role of a consultant to a plastics manufacturer. In particular, you will use a
number of tools from Calculus III (including solids of revolution, and volume) to advise a client on the construction of plastic cups whose form is roughly that of paraboloid of revolution.
Suppose that we construct objects in the shape of a solid of revolution so that a cross-section of the solid has a parabola as a bounding curve. Such a solid is called a paraboloid of revolution. We will construct the portion of the solid z=1/4p(x^2+y^2) bounded by the plane z=k, for a constant k>0. The circular section cut by the plane is called the aperture and the distance between the origin and the plane is called the depth.
Find the equation of the paraboloid of revolution whose aperture diameter at depth 𝑐𝑐 cm is 10 cm.
For the solid in Question 1, find the coordinates of the focus of the paraboloid.
Find the volume of this solid.
Construct a formula for the cost of this solid if plastic is 0.02 cents per cubic centimeter.
Construct a formula for the cost of a cup if it has aperture diameter at depth 𝑐𝑐 cm is 10 cm, and the wall of the cup must be between 0.5 and 1 cm.
Using Question 5, find the cost (to the nearest cent) per cup for cup wall thickness 0.6 cm and depth 7.5 cm.

 

Sample Solution

at times supplanted by a quick n-bit convey spread viper. A n by n exhibit multiplier requires n2 AND doors, n half adders, and n2 , 2n full adders. The Variable Correction Truncated Multiplication technique gives a proficient strategy to re-ducing the power dissemination and equipment necessities of adjusted exhibit multipliers. With this strategy, the diagonals that produce the t = n , k least critical item pieces are disposed of. To make up for this, the AND doors that create the halfway items for section t , 1 are utilized as contributions to the changed adders in segment t. Since the k excess changed full adders on the right-hand-side of the cluster don’t have to create item bits, they are supplanted by adjusted decreased full adders (RFAs), which produce a convey, yet don’t deliver a total. To add the consistent that revises for adjusting mistake, k , 1 of the MHAs in the second column of the exhibit are changed to altered concentrated half adders (SHAs). SHAs are identical to MFAs that have an informat

This question has been answered.

Get Answer