Carl's Custom Cans produces small containers which are purchased by candy and snack food producers. The production facility operates 250 days per year and has annual demand of 10,400 units for one of its custom cans. They can produce up to 200 of these cans each day. It costs $20.61 to set up one of their production lines to run this can. (Carl pays $17 per hour for setup labor.) The cost of each can is $3.40 and annual holding costs are $2.60 per can.What is the optimal size of the production run for this can? (Display your answer to the nearest whole number). Given your answer to the previous question, how many production runs will be required each year in order to meet the annual demand? (Round your answer UP to the next whole number.) Suppose the customer for this custom can wants to purchase in quantities of 400 units. What is the required setup cost to make this order quantity an optimal production run quantity for Carl's Custom Cans? (Display your answer to two decimal places.) Based on your answer to the previous question (reduced setup cost), how long (in minutes) should it take to set up this production line? (Display your answer to the nearest whole number.)
Question
Carl's Custom Cans produces small containers which are purchased by candy and snack food producers. The production facility operates 250 days per year and has annual demand of 10,400 units for one of its custom cans. They can produce up to 200 of these cans each day. It costs 17 per hour for setup labor.) The cost of each can is 2.60 per can.What is the optimal size of the production run for this can? (Display your answer to the nearest whole number). Given your answer to the previous question, how many production runs will be required each year in order to meet the annual demand? (Round your answer UP to the next whole number.) Suppose the customer for this custom can wants to purchase in quantities of 400 units. What is the required setup cost to make this order quantity an optimal production run quantity for Carl's Custom Cans? (Display your answer to two decimal places.) Based on your answer to the previous question (reduced setup cost), how long (in minutes) should it take to set up this production line? (Display your answer to the nearest whole number.)
Solution
Sure, let's go through the steps to solve each part of the problem.
Part 1: Optimal Size of the Production Run
To find the optimal size of the production run, we use the Economic Production Quantity (EPQ) formula:
Where:
- is the annual demand (10,400 units)
- is the setup cost per production run ($20.61)
- is the annual holding cost per unit ($2.60)
- is the production rate (200 units per day)
- is the daily demand rate ( units per day)
Plugging in the values:
First, calculate the term inside the square root:
Next, calculate the fraction:
Now, multiply these results:
Finally, take the square root:
So, the optimal size of the production run is approximately 456 units.
Part 2: Number of Production Runs Required Each Year
To find the number of production runs required each year, divide the annual demand by the optimal production run size:
Since we need to round up to the next whole number:
Part 3: Required Setup Cost for an Order Quantity of 400 Units
To find the required setup cost for an order quantity of 400 units to be optimal, we use the EPQ formula and solve for :
Square both sides:
Rearrange to solve for :
Plug in the values:
Calculate the first fraction:
Calculate the second fraction:
Multiply these results:
So, the required setup cost is $15.84.
Part 4: Setup Time in Minutes
Given the setup cost is 17 per hour, we can find the setup time:
Convert hours to minutes:
So, the setup time should be approximately 56 minutes.
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