Wiebe Trucking Inc Is Planning A New Warehouse To Serve The
Wiebe Trucking Inc Is Planning A New Warehouse To Serve The Western
Wiebe Trucking, Inc., is planning a new warehouse to serve the western United States. Denver, Santa Fe, and Salt Lake City are under consideration. For each location, annual fixed costs and average variable costs per shipment are provided. Sales projections range from 550,000 to 600,000 shipments per year.
a. Plot the total cost curves for all the locations on a single graph.
b. Determine which city provides the lowest overall costs based on the total cost curves.
Paper For Above instruction
Introduction
The logistics and distribution industry plays a vital role in supply chain management, especially when expanding operations across new geographic regions. For companies like Wiebe Trucking Inc., selecting an optimal location for a new warehouse involves careful analysis of costs associated with different potential sites. This paper explores the process of evaluating the total cost curves for three prospective locations—Denver, Santa Fe, and Salt Lake City—by considering fixed and variable costs, and determines which city offers the most cost-efficient option based on projected shipment volumes.
Understanding Fixed and Variable Costs
Fixed costs are expenses that remain constant regardless of the shipment volume. These include rent, equipment, and insurance costs associated with operating the warehouse. In contrast, variable costs fluctuate with the number of shipments, covering labor, transportation, and utilities. Accurately modeling total costs requires combining these components—fixed costs form the baseline, and variable costs add to this based on shipment volume.
Methodology for Cost Analysis
The analysis involves constructing total cost functions for each city across a range of shipment volumes—specifically from 550,000 to 600,000 shipments per year. The general form of the total cost function is:
Total Cost = Fixed Costs + (Variable Cost per Shipment × Number of Shipments)
Assuming the fixed and variable costs for each location are as follows:
| Location | Fixed Costs ($) | Variable Cost per Shipment ($) |
|---------------|-----------------|------------------------------|
| Denver | $X,XXX | $Y.YY |
| Santa Fe | $X,XXX | $Y.YY |
| Salt Lake City | $X,XXX | $Y.YY |
(Note: Actual numerical data should be inserted here for detailed analysis.)
Plotting Total Cost Curves
The total cost curves are plotted by calculating total costs at shipment volumes of 550,000; 575,000; and 600,000 shipments (or more refined points) for each location, then visualizing these as lines on a single graph. The x-axis represents the number of shipments, while the y-axis shows the total costs. Differences in fixed costs manifest as vertical shifts, and variable costs influence the slopes of the lines.
Results and Analysis
By analyzing the plotted curves, the point at which each cost line intersects the shipment volume range indicates the relative cost efficiency of each location. The location with the lowest total cost across the relevant shipment volume range is considered optimal. Typically, at lower shipment volumes, locations with lower fixed costs are more economical, whereas the higher the volume, the more significant the impact of variable costs becomes.
Comparative Evaluation of Locations
Based on the typical scenario—assuming fixed costs and variable costs are known—the analysis reveals which city provides the lowest overall costs at the projected shipment volumes. For example:
- If Denver has higher fixed costs but lower variable costs, it may be more economical at higher shipment volumes.
- Conversely, Santa Fe might have lower fixed costs but higher variable costs, making it more suitable for lower shipment levels.
Conclusion
Choosing the optimal warehouse location requires balancing fixed and variable costs against anticipated shipment volumes. Plotting total cost curves helps visualize this relationship and aids managerial decision-making. The specific location offering the lowest total costs for shipment projections between 550,000 and 600,000 shipments per year will depend on the actual fixed and variable costs, which need to be analyzed in detail.
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