A manufacturing company has an expected usage of 50,000 units of a certain product during next year. The cost of processing an order is Rs. 20 and the carrying cost per unit is Rs. 0.50 for one year. What will be the Economic Ordering Quantity ?
2000 units
The Economic Ordering Quantity (EOQ) is a fundamental concept in inventory management. It represents the optimal order quantity that minimizes the total inventory costs, which include ordering costs and carrying costs.
The question provides the following information:
We need to find the Economic Ordering Quantity (EOQ) using the standard formula.
The formula for calculating the Economic Ordering Quantity (EOQ) is:
\( EOQ = \sqrt{\frac{2DS}{H}} \)
Where:
Now, let's substitute the given values into the EOQ formula:
\( EOQ = \sqrt{\frac{2 \times 50,000 \times 20}{0.50}} \)
First, calculate the numerator:
\( 2 \times 50,000 \times 20 = 100,000 \times 20 = 2,000,000 \)
So the formula becomes:
\( EOQ = \sqrt{\frac{2,000,000}{0.50}} \)
Now, divide the numerator by the carrying cost:
\( \frac{2,000,000}{0.50} = 4,000,000 \)
Finally, take the square root:
\( EOQ = \sqrt{4,000,000} \)
\( EOQ = 2000 \)
Thus, the Economic Ordering Quantity is 2000 units.
Ordering 2000 units at a time is expected to minimize the total cost of ordering and holding inventory for this product, given the specified usage, ordering cost, and carrying cost.
| Parameter | Symbol | Value |
|---|---|---|
| Annual Usage | D | 50,000 units |
| Ordering Cost | S | Rs. 20 |
| Carrying Cost | H | Rs. 0.50 |
| Economic Ordering Quantity (EOQ) | EOQ | 2000 units |
Let's quickly define the components used in the EOQ calculation:
The EOQ model balances the trade-off between ordering costs (which decrease as order size increases) and carrying costs (which increase as order size increases) to find the minimum total cost point.
| Formula | Purpose |
|---|---|
| \( EOQ = \sqrt{\frac{2DS}{H}} \) | Calculates the optimal order quantity to minimize total inventory cost. |
| Number of Orders per Year = \( \frac{D}{EOQ} \) | Calculates how many times an order is placed annually. |
| Time Between Orders = \( \frac{365 \text{ days}}{\text{Number of Orders per Year}} \) (or \( \frac{\text{Working Days}}{\text{Number of Orders per Year}} \)) | Calculates the frequency of placing orders. |
| Total Ordering Cost = \( \frac{D}{EOQ} \times S \) | Calculates the total annual cost of placing orders. |
| Total Carrying Cost = \( \frac{EOQ}{2} \times H \) | Calculates the total annual cost of holding inventory (assuming average inventory is EOQ/2). |
| Total Inventory Cost = Total Ordering Cost + Total Carrying Cost | Calculates the sum of ordering and carrying costs. At EOQ, Total Ordering Cost = Total Carrying Cost. |
The EOQ model is a simple yet powerful tool in inventory control. It operates based on several key assumptions:
While these assumptions may not hold perfectly in real-world scenarios, the EOQ model often provides a good starting point for inventory decisions. Variations of the EOQ model exist to account for factors like quantity discounts or variable demand.
Calculating the correct Economic Ordering Quantity helps companies manage their inventory efficiently, reducing excess stock (and associated carrying costs) while avoiding frequent small orders (and associated high ordering costs). This leads to lower total inventory costs and improved operational efficiency.
Margin of safety in break-even analysis is
For an organization producing a product, the fixed cost per month is Rs. 12000. The variable cost per product is Rs. 24. The unit selling price of the product is Rs. 48. To achieve break-even, the minimum production per month shall be
Break-even point shows that
In perpetual inventory control, the material is checked as it reaches its