In Problems 39-47, construct a mathematical model in the form of a linear programming problem. Do not solve. Transportation. Three towns are forming a consolidated school district with two high schools. Each high school has a maximum capacity of 2 , 000 students. Town A has 500 high school students, town B has 1 , 200 , and town C has 1 , 800 . The weekly costs of transporting a student from each town to each school are given in the table. In order to balance the enrollment, the school board decided that each high school must enroll at least 40 % of the total student population. Furthermore, no more than 60 % of the students in any town should be sent to the same high school. How many students from each town should be enrolled in each school in order to meet these requirements and minimize the cost of transporting the students?
In Problems 39-47, construct a mathematical model in the form of a linear programming problem. Do not solve. Transportation. Three towns are forming a consolidated school district with two high schools. Each high school has a maximum capacity of 2 , 000 students. Town A has 500 high school students, town B has 1 , 200 , and town C has 1 , 800 . The weekly costs of transporting a student from each town to each school are given in the table. In order to balance the enrollment, the school board decided that each high school must enroll at least 40 % of the total student population. Furthermore, no more than 60 % of the students in any town should be sent to the same high school. How many students from each town should be enrolled in each school in order to meet these requirements and minimize the cost of transporting the students?
Solution Summary: The author describes the mathematical model in the form of a linear programming problem to determine the number of students from each town that must be enrolled in each school in order to satisfy the requirements and minimize the transportation cost.
In Problems 39-47, construct a mathematical model in the form of a linear programming problem. Do not solve.
Transportation. Three towns are forming a consolidated school district with two high schools. Each high school has a maximum capacity of
2
,
000
students. Town
A
has
500
high school students, town
B
has
1
,
200
, and town
C
has
1
,
800
. The weekly costs of transporting a student from each town to each school are given in the table. In order to balance the enrollment, the school board decided that each high school must enroll at least
40
%
of the total student population. Furthermore, no more than
60
%
of the students in any town should be sent to the same high school. How many students from each town should be enrolled in each school in order to meet these requirements and minimize the cost of transporting the students?
=
Q6 What will be the allowable bearing capacity of sand having p = 37° and ydry
19 kN/m³ for (i) 1.5 m strip foundation (ii) 1.5 m x 1.5 m square footing and
(iii)1.5m x 2m rectangular footing. The footings are placed at a depth of 1.5 m
below ground level. Assume F, = 2.5. Use Terzaghi's equations.
0
Ne
Na
Ny
35 57.8 41.4 42.4
40 95.7 81.3 100.4
Q1 The SPT records versus depth are given in table below. Find qan for the raft 12%
foundation with BxB-10x10m and depth of raft D-2m, the allowable
settlement is 50mm.
Elevation, m 0.5 2
2 6.5 9.5 13 18 25
No.of blows, N 11 15 29 32 30 44
0
estigate shear
12%
2
Chapter 6 Solutions
Finite Mathematics for Business, Economics, Life Sciences, and Social Sciences (14th Edition)
A Problem Solving Approach To Mathematics For Elementary School Teachers (13th Edition)
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