A manufacturing plant makes two types of inflatable boats––a two-person boat and a four-person boat. Each two-person boat requires 0.9 labor-hour from the cutting department and 0.8 labor-hour from the assembly department. Each four-person boat requires 1.8 labor-hours from the cutting department and 1.2 labor-hours from the assembly department. The maximum labor-hours available per month in the cutting department and the assembly department are 864 and 672 , respectively. The company makes a profit of $ 25 on each two-person boat and $ 40 on each four-person boat. (A) Identify the decision variables. (B) Summarize the relevant material in a table similar to Table 1 in Example 1. (C) Write the objective function P . (D) Write the problem constraints and nonnegative constraints. (E) Graph the feasible region. Include graphs of the objective function for P = $ 5 , 000 , P = $ 10 , 000 , P = $ 15 , 000 , and P = $ 21 , 600 . (F) From the graph and constant-profit lines, determine how many boats should be manufactured each month to maximize the profit. What is the maximum profit?
A manufacturing plant makes two types of inflatable boats––a two-person boat and a four-person boat. Each two-person boat requires 0.9 labor-hour from the cutting department and 0.8 labor-hour from the assembly department. Each four-person boat requires 1.8 labor-hours from the cutting department and 1.2 labor-hours from the assembly department. The maximum labor-hours available per month in the cutting department and the assembly department are 864 and 672 , respectively. The company makes a profit of $ 25 on each two-person boat and $ 40 on each four-person boat. (A) Identify the decision variables. (B) Summarize the relevant material in a table similar to Table 1 in Example 1. (C) Write the objective function P . (D) Write the problem constraints and nonnegative constraints. (E) Graph the feasible region. Include graphs of the objective function for P = $ 5 , 000 , P = $ 10 , 000 , P = $ 15 , 000 , and P = $ 21 , 600 . (F) From the graph and constant-profit lines, determine how many boats should be manufactured each month to maximize the profit. What is the maximum profit?
A manufacturing plant makes two types of inflatable boats––a two-person boat and a four-person boat. Each two-person boat requires
0.9
labor-hour from the cutting department and
0.8
labor-hour from the assembly department. Each four-person boat requires
1.8
labor-hours from the cutting department and
1.2
labor-hours from the assembly department. The maximum labor-hours available per month in the cutting department and the assembly department are
864
and
672
, respectively. The company makes a profit of
$
25
on each two-person boat and
$
40
on each four-person boat.
(A) Identify the decision variables.
(B) Summarize the relevant material in a table similar to Table 1 in Example 1.
(C) Write the objective function
P
.
(D) Write the problem constraints and nonnegative constraints.
(E) Graph the feasible region. Include graphs of the objective function for
P
=
$
5
,
000
,
P
=
$
10
,
000
,
P
=
$
15
,
000
, and
P
=
$
21
,
600
.
(F) From the graph and constant-profit lines, determine how many boats should be manufactured each month to maximize the profit. What is the maximum profit?
3. (i) Consider the following R code:
wilcox.test(UK Supermarkets $Salary ~ UKSupermarkets $Supermarket)
(a) Which test is being used in this code?
(b) What is the name of the dataset under consideration?
How would be adapt this code if we had ties? What other command
can be used which deals with ties?
(ii) Consider the following R code:
install packages("nortest")
library(nortest)
lillie.test (Differences)
(a) Assuming the appropriate dataset has been imported and attached,
what is wrong with this code?
(b) If this code were to be corrected, what would be determined by run-
ning it?
[3 Marks]
1. (i) Give the definition of a metric on a set X.
[5 Marks]
(ii) Let X = {a, b, c} and let a function d : XxX → [0, ∞) be defined
as d(a, a) = d(b,b) = d(c, c) 0, d(a, c) = d(c, a) 1, d(a, b) = d(b, a) = 4,
d(b, c) = d(c,b) = 2. Decide whether d is a metric on X. Justify your answer.
=
(iii) Consider a metric space (R, d.), where
=
[10 Marks]
0
if x = y,
d* (x, y)
5
if xy.
In the metric space (R, d*), describe:
(a) open ball B2(0) of radius 2 centred at 0;
(b) closed ball B5(0) of radius 5 centred at 0;
(c) sphere S10 (0) of radius 10 centred at 0.
[5 Marks]
[5 Marks]
[5 Marks]
(c) sphere S10 (0) of radius 10 centred at 0.
[5 Marks]
2. Let C([a, b]) be the metric space of continuous functions on the interval
[a, b] with the metric
doo (f,g)
=
max f(x)g(x)|.
xЄ[a,b]
= 1x. Find:
Let f(x) = 1 - x² and g(x):
(i) do(f, g) in C'([0, 1]);
(ii) do(f,g) in C([−1, 1]).
[20 Marks]
[20 Marks]
Need a deep-dive on the concept behind this application? Look no further. Learn more about this topic, subject and related others by exploring similar questions and additional content below.
Solve ANY Optimization Problem in 5 Steps w/ Examples. What are they and How do you solve them?; Author: Ace Tutors;https://www.youtube.com/watch?v=BfOSKc_sncg;License: Standard YouTube License, CC-BY
Types of solution in LPP|Basic|Multiple solution|Unbounded|Infeasible|GTU|Special case of LP problem; Author: Mechanical Engineering Management;https://www.youtube.com/watch?v=F-D2WICq8Sk;License: Standard YouTube License, CC-BY