Answer:
The answer is "Option d".
Explanation:
To compute the estimated work on master capacity planning, the objective of basic resource allocation is utilized. It is then contrasted to a proven ability that enhances organizational MPS feasibility.
It verifies that you have enough ability at your disposal that satisfy the needs of your master's programs. It is a tool in long-term production scheduling for marketing and production to accomplish the ratio of the capacity required and accessible and to manage changes in the plan and/or looking.
Answer:
$87,567.14
Explanation:
For computing the amount deposited for attaining the goal we need to apply the present value which is to be shown in the attachment
Provided that,
Future value = $300,000
Rate of interest = 8%
NPER = 16 years
PMT = $0
The formula is shown below:
= -PV(Rate;NPER;PMT;FV;type)
So, after applying the above formula, the present value is $87,567.14
Answer:
Contribution margin per unit= $21.6
Explanation:
Giving the following information:
Selling price per unit $34
Variable costs per unit:
Direct material $6
Direct manufacturing labor $2.40
Manufacturing overhead $0.80
Selling costs $3.20
<u>The contribution margin is calculated by deducting from the selling price all the variable components:</u>
Contribution margin per unit= selling price - total unitary variable cost
Contribution margin per unit= 34 - 6 - 2.4 - 0.8 - 3.2
Contribution margin per unit= $21.6
Answer:
C(100) = (75 x 100) + (200 x 100) = $27,500
Explanation:
the initial cost function of producing bikes is:
C(x) = 75F + 100W
the initial cost to produce 1 bike = $75 + $100 = $175
if the cost of wheels increase to $100 each, then the cost function is:
C(x) = 75F + 200W
in this case, there is not much to calculate since every bicycle must have 1 frame and 2 wheels, that means that in order to produce 100 bicycles you will necessarily need 100 frames and 200 wheels. Labor is not considered in this cost function, so any cost minimization strategy is limited to using the minimum amount of parts:
C(100) = (75 x 100) + (200 x 100) = $27,500
