Chipotle, Inc. recently introduced a delivery service. Consequently, each restaurant has to buy two cars which cost $
2
3
,
0
0
0
each, and can be depreciated in straight line for
3
years with a salvage value of $
5
,
0
0
0
(
which can be realized in the fifth year and pays zero tax
)
.
The operation costs of the delivery service are $
1
8
,
0
0
0
per year, and its variable cost is $
1
.
5
0
per delivery. The average charge for each delivery is $
3
.
0
0
.
Chipotle
’
s tax rate is
2
1
%
,
and it uses a
8
%
discount rate. How many meals does Chipotle need to deliver each day before break
-
even?
(
Compare the accounting approach number to the present value approach number
)
Question:
Chipotle, Inc. recently introduced a delivery service. Consequently, each restaurant has to buy two cars which cost $
2
3
,
0
0
0
each, and can be depreciated in straight line for
3
years with a salvage value of $
5
,
0
0
0
(
which can be realized in the fifth year and pays zero tax
)
.
The operation costs of the delivery service are $
1
8
,
0
0
0
per year, and its variable cost is $
1
.
5
0
per delivery. The average charge for each delivery is $
3
.
0
0
.
Chipotle
’
s tax rate is
2
1
%
,
and it uses a
8
%
discount rate. How many meals does Chipotle need to deliver each day before break
-
even?
(
Compare the accounting approach number to the present value approach number
)
This is AI generated Response.
Asked by: Veera manikanta
Created at: 2025-08-03 18:21:25
Final Answer:
RenderedRaw Text
Did you like this answer?
Let's break down the problem step by step:
## **Given Data**
- **Cars per restaurant:** 2
- **Car cost:** \$23,000 each
- **Total car cost:** 2 × \$23,000 = **\$46,000**
- **Depreciation:** Straight line over **3 years** to a salvage value of **\$5,000 (at the end of year 5, not depreciated)**
- **Annual operating costs:** **\$18,000**
- **Variable cost per delivery:** **\$1.50**
- **Average charge per delivery:** **\$3.00**
- **Tax rate:** **21%**
- **Discount rate:** **8%**
- **Salvage value realized in year 5, non-taxable (\$5,000)**
Let **Q** be the number of meals delivered **per year**.
---
## **1. Depreciation Calculation**
- **Depreciable amount:** \$46,000 (cost) – \$5,000 (salvage) = **\$41,000**
- **Annual depreciation:** \$41,000 / 3 = **\$13,666.67/year** (for years 1-3 only)
---
## **2. Annual Profit Equation (Accounting Approach)**
**Annual Revenue:**
\[ \text{Revenue} = Q \times \$3.00 \]
**Annual Costs (excluding depreciation):**
- Operating cost: \$18,000
- Variable cost: \$1.50 × Q
- Depreciation: \$13,666.67 (years 1-3 only)
**EBIT (Earnings Before Interest and Tax):**
\[ \text{EBIT} = (\$3.00 - \$1.50)Q - \$18,000 - \$13,666.67 \]
\[ \text{EBIT} = \$1.50Q - \$31,666.67 \]
**Tax:**
\[ \text{Tax} = 21\% \times \text{EBIT} \]
(Break-even means EBIT = 0, so tax = 0)
**Net Income (at accounting break-even):**
Set EBIT = 0:
\[
\$1.50Q - \$31,666.67 = 0
\]
\[
Q = \frac{31,666.67}{1.50} = 21,111
\]
**Meals per day:**
\[
\frac{21,111}{365} \approx \boxed{58}
\]
---
## **3. Cash Flow Approach (Present Value or NPV Break-Even)**
We need to find the value of **Q** that yields NPV = 0 over the life of the project.
Let's **assume a project life of 5 years** (since salvage is realized in year 5).
### **Cash Flows:**
- **Initial Outlay (Year 0):** **-\$46,000**
- **Annual operating cash flow (Years 1–5):**
- Revenue: \$3.00Q
- Operating cost: \$18,000
- Variable cost: \$1.50Q
- Depreciation: \$13,666.67 (years 1–3), \$0 (years 4–5)
- Tax: 21%
- **Salvage Value (Year 5):** **\$5,000** (not taxed)
#### **Calculate After-tax Cash Flows:**
**Years 1–3:**
- EBIT = \$1.50Q - \$31,666.67
- Tax = 0.21 × EBIT
- Net income = EBIT × (1 - 0.21)
- Add back depreciation (non-cash):
\[
\text{After-tax cash flow} = (\$1.50Q - \$31,666.67) \times (1 - 0.21) + \$13,666.67
\]
\[
= (\$1.50Q - \$31,666.67) \times 0.79 + \$13,666.67
\]
\[
= 1.185Q - 25,016.67 + 13,666.67
\]
\[
= 1.185Q - 11,350
\]
**Years 4–5:**
- No depreciation.
- EBIT = \$1.50Q - \$18,000
- After-tax EBIT = (\$1.50Q - \$18,000) × 0.79
\[
= 1.185Q - 14,220
\]
**Salvage in Year 5:** +\$5,000
---
### **Set Up the NPV Equation**
\[
0 = -46,000
+ \sum_{t=1}^{3} \frac{(1.185Q - 11,350)}{(1.08)^t}
+ \sum_{t=4}^{5} \frac{(1.185Q - 14,220)}{(1.08)^t}
+ \frac{5,000}{(1.08)^5}
\]
Let's calculate the discount factors:
- (1.08)^1 = 1.08
- (1.08)^2 = 1.1664
- (1.08)^3 = 1.2597
- (1.08)^4 = 1.3605
- (1.08)^5 = 1.4693
\[
\frac{1}{1.08^1} = 0.9259
\]
\[
\frac{1}{1.08^2} = 0.8573
\]
\[
\frac{1}{1.08^3} = 0.7938
\]
\[
\frac{1}{1.08^4} = 0.7350
\]
\[
\frac{1}{1.08^5} = 0.6806
\]
Now, let's calculate the present value of each year's cash flow **per 1 unit**, then sum coefficients for Q and constants.
#### **For Q Terms:**
**Years 1–3:**
\[
1.185Q \times (0.9259 + 0.8573 + 0.7938) = 1.185Q \times 2.577
\]
\[
= 3.052Q
\]
**Years 4–5:**
\[
1.185Q \times (0.7350 + 0.6806) = 1.185Q \times 1.4156
\]
\[
= 1.678Q
\]
**Total Q coefficient:** 3.052Q + 1.678Q = **4.73Q**
---
#### **For Constant Terms:**
**Years 1–3:**
\[
-11,350 \times (0.9259 + 0.8573 + 0.7938) = -11,350 \times 2.577 = -29,247
\]
**Years 4–5:**
\[
-14,220 \times (0.7350 + 0.6806) = -14,220 \times 1.4156 = -20,163
\]
**Salvage Value (Year 5):**
\[
\frac{5,000}{1.4693} = 3,403
\]
**Total constants:**
\[
-29,247 - 20,163 + 3,403 = -46,007
\]
---
#### **Now the NPV Equation:**
\[
0 = -46,000 + 4.73Q - 46,007
\]
\[
0 = 4.73Q - 92,007
\]
\[
4.73Q = 92,007
\]
\[
Q = \frac{92,007}{4.73} = 19,452
\]
---
### **Number of Deliveries per Day**
\[
\frac{19,452}{365} = \boxed{53}
\]
---
## **Summary Table**
| Approach | Deliveries per Year | Deliveries per Day |
|--------------------------|--------------------|-------------------|
| **Accounting Break-even**| 21,111 | 58 |
| **NPV Break-even** | 19,452 | 53 |
---
### **Conclusion:**
- **Accounting break-even:** ~58 deliveries per day
- **Present value (NPV) break-even:** ~53 deliveries per day
**The NPV break-even is lower because it accounts for the time value of money and the salvage value.**
---
### **If you need the math in more detail, or in Excel format, let me know!**
VIPSolutions focuses on clear, step‑by‑step explanations so you can learn quickly. Whether you need an AI‑generated walkthrough or a short hint to get unstuck, each solution is organized for fast reading and easy review later.
Search similar questions, compare approaches, and bookmark the best answers for revision. Our goal is simple: quick, reliable study help that feels natural—not noisy.