Consider the following system: Six trucks are used to haul coal from a mine to the rail road. There are two loaders and one weighing scale. After loading a truck immediately moves to the scale for weighing using FIFS policy. After weighing a truck begins a travel time and then returns to loader queue with the distribution of travel time as: Travel time (Mins) 40 60 80 100 Probability 0.3 0.4 0.1 0.2 Further the distribution of loading time and weighing time are as: Loading time (Mins) 5 10 15 Probability 0.5 0.3 0.2 Construct simulation table to trace the six trucks and: (a) Compute average waiting time of loading (b) Compute average time in system (loading and scaling times) (c) Compute waiting probability for scaling (d) Estimate the loader and scale utilization Weighing time (Mins) 12 16 Probability 0.6 0.4

inequality:

620-37.4p ≥ 450

the minimum amount of packages needed to be removed from the elevator is 5.

step-by-step explanation:

in 4 days he will run   12/14

step-by-step explanation:

to determine the unit cost your would divide the total cost by the number sold.

7 bagels for $4.41       $4.41/7 = $.63 each at fresh side

5 bagels for $3.60         $3.60/5 = $.72 each at value mart

(2x + 16) + (x) = 180

step-by-step explanation:

given,

abcd is a quadrilateral inscribed in a circle

angle a is labeled x plus 16, (x + 16)

angle b is labeled x degrees, (x)

angle c is labeled 6x minus 4, (6x – 4)

angle d is labeled 2x plus 16, (2x + 16)

what equation can be used to solve for angle b?

we know that the sum of the opposite angles of a simple quadrilateral inscribed in a circle is 180 degrees.

angle b is opposite angle d

therefore, angle b + angle d = 180

(x) + (2x + 16) = 180 

same as (2x + 16) + (x) = 180