1917
Problem 19.24 (Concluded)
4. Most of the factors mentioned can be quantified. Furthermore, they should be
included in the analysis. All direct and indirect costs as well as costs of in-
tangible factors should be included; otherwise, it is possible to miss out on a
very profitable investment. The exclusion of the environmental fine is espe-
Annual cash flows increase by $135,000 (fines and sales effect) [e.g., cash
inflows increase to $340,200 in Year 1 ($205,200 + $135,000) and $358,200 for
Years 27 ($223,200 + $135,000)].
Payback:
Problem 19.25
1. Traditional equipment (18% rate):
Year Cash Flow df Present Value
310 ……………………………….. 200,000 2.928 585,600
NPV …………………………………………………………………………….. $ 381,000
1918
Problem 19.25 (Continued)
Contemporary technology:
Year Cash Flow df Present Value
0 ………………………………….. $(4,000,000) 1.000 $(4,000,000)
2 ………………………………….. 400,000 0.718 287,200
3 ………………………………….. 600,000 0.609 365,400
46 ………………………………… 800,000 1.323 1,058,400
7 ………………………………….. 1,000,000 0.314 314,000
2. Traditional equipment (14% rate):
Year Cash Flow df Present Value
0 ………………………………….. $(1,000,000) 1.000 $(1,000,000)
1 ………………………………….. 600,000 0.877 526,200
Contemporary technology:
Year Cash Flow df Present Value
0 ………………………………….. $(4,000,000) 1.000 $(4,000,000)
1 ………………………………….. 200,000 0.877 175,400
7 ………………………………….. 1,000,000 0.400 400,000
3. The cost of capital is the rate that should be usedit usually reflects the op-
portunity cost of the funds needed to make the investment. A higher rate will
bias against the acceptance of contemporary technologywhich usually has
1919
Problem 19.25 (Concluded)
4. Traditional equipment:
Year Cash Flow df Present Value
0 ………………………………….. $(1,000,000) 1.000 $(1,000,000)
1 ………………………………….. 600,000 0.877 526,200
Problem 19.26
1. Scrubbers and treatment facility (expressed in thousands):
Present
Year (1 t)Ra (1 t)Cb tNCc CF df Value
0 …….. $(50,000) 1.000 $(50,000)
1 …….. $6,000 $(14,400) $4,000 (4,400) 0.909 (4,000)
2 …….. 6,000 (14,400) 6,400 (2,000) 0.826 (1,652)
a0.6 × $10,000,000 = $6,000,000
b0.6 × $24,000,000 = $14,400,000
cYear 1: 0.4 × (0.2 × $50,000,000)
Year 2: 0.4 × (0.32 × $50,000,000)
1920
Problem 19.26 (Concluded)
Process redesign (expressed in thousands):
Present
Year (1 t)Ra (1 t)Cb tNCc CF df Value
0 …….. $(100,000) 1.000 $(100,000)
1 …….. $18,000 $(6,000) $ 8,000 20,000 0.909 18,180
2 …….. 18,000 (6,000) 12,800 24,800 0.826 20,485
a0.6 × $30,000,000 = $18,000,000
b0.6 × $10,000,000 = $6,000,000
cYear 1: 0.4 × (0.2 × $100,000,000)
2. The modification will add to the cost of the scrubbers and treatment facility
$30.04 and $45.06 million to the first (second) alternative (0.751 × $40,000,000)
and (0.751 × $60,000,000). Adding in the benefit of avoiding the cleanup cost
makes the process redesign alternative profitable (yielding a positive NPV).
Problem 19.27
1. Proposal A:
Year Cash Flow Discount Factor Present Value
0 …………………….. $(250,000) 1.000 $(250,000)
1 …………………….. 150,000 0.909 136,350
2 …………………….. 125,000 0.826 103,250
Proposal B:
Year Cash Flow Discount Factor Present Value
0 …………………….. $(312,500) 1.000 $(312,500)
1 …………………….. (37,500) 0.909 (34,088)
2 …………………….. (25,000) 0.826 (20,650)
2. Proposal A payback period:
First year ……………………………………. 1.00 year $150,000
Proposal B payback period:
First year ……………………………………. 1.00 year $ (37,500)
Second year ……………………………….. 1.00 (25,000)
3. Based on the NPV analysis, both proposals could be accepted as they have
1922
Problem 19.27 (Concluded)
4. Kent Tessman may have accepted only Proposal A because of the fact that
his performance is going to be closely monitored over the next three years.
Proposal B had negative cash flows projected for the first three years. This
would hurt his divisional profits during that time, and he may feel that this
would hurt his chances for promotion to higher management. It is also pos-
Problem 19.28
1. df = Investment/Annual cash flow
= $2,250,000/$450,000
= 5.0
2. Since I = P for the IRR, the minimum cash flow is:
I = df × CF
$2,250,000 = 5.650* × CF
5.650 × CF = $2,250,000
CF = $2,250,000/5.650
1923
Problem 19.28 (Concluded)
3. For a life of eight years:
df = I/CF
The IRR is between 10 percent and 12 percent (approximately 11.83 percent).
The system is about at the break-even point (point of indifference).
Minimum cash flow at 12 percent for eight years:
I = df × CF
$2,250,000 = 4.968 × CF
Problem 19.29
Keep old MRI equipment:
Present
Year (1 t)Ra (1 t)Cb tNCc CF df Value
1 ………. $(600,000) $320,000 $(280,000) 0.893 $ (250,040)
2 ………. (600,000) 320,000 (280,000) 0.797 (223,160)
a0.60 × $100,000
b0.60 × $1,000,000
1924
Problem 19.29 (Concluded)
Buy new MRI equipment:
Present
Year (1 t)Ra (1 t)Cb tNCc Otherd CF df Value
0 …. $600,000 $(4,500,000) $(3,900,000) 1.000 $(3,900,000)
1 …. $(300,000) 400,000 100,000 0.893 89,300
2 …. (300,000) 640,000 340,000 0.797 270,980
a0.60 × ($1,000,000 Book value), where Book value = $5,000,000 $4,712,000.
b0.60 × $500,000.
cYear 0: Tax savings from loss on sale of asset: 0.40 × $1,500,000 [(The loss on
the sale of the old computer is $1,500,000 ($2,000,000 $500,000.)]
Note: The asset is disposed of at the end of the fifth yearthe end of its class
lifeso the asset is held for its entire class life, and the full amount of deprecia-
tion can be claimed in Year 5.
Problem 19.30
1. Old system (dollars in thousands):
Present
Year (1 t)Ra (1 t)Cb tNCc Cash Flow df Value
0 ……… $ 0 1.000 $ 0
19 ……. $18,000 $(13,440) $240 4,800 4.031 19,349
a100,000 × $300 = $30,000,000 × 0.6 = $18,000,000
1925
Problem 19.30 (Continued)
New system (dollars in thousands):
Present
Year (1 t)R (1 t)Ca tNCb Otherc Cash Flow df Value
0 ……… $ 960 $(51,000) $(50,040) 1.000 $(50,040)
aDirect materials (0.75 × $80) ……………… $ 60
Direct labor (0.4 × $90) ……………………… 36
Volume-related overhead ($20 $4) ….. 16
Direct fixed overhead ($34 $17) ………. 17
2. Old system (dollars in thousands):
Present
Year (1 t)R (1 t)C tNC CF df Value
0 ……… $ 0 1.000 $ 0
19 ……. $18,000 $(13,440) $240 4,800 5.328 25,574
New system (dollars in thousands):
Present
Year (1 t)R (1 t)C tNC Other CF df Value
0 …… $ 960 $(51,000) $(50,040) 1.000 $(50,040)
1926
Problem 19.30 (Concluded)
3. Old system with declining sales (dollars in thousands):
Present
Year (1 t)R (1 t)C* tNC CF df Value
0 ……… $ 0 1.000 $ 0
1 ……… $18,000 $(13,440) $240 4,800 0.893 4,286
2 ……… 16,200 (12,300) 240 4,140 0.797 3,300
3 ……… 14,400 (11,160) 240 3,480 0.712 2,478
4. For the new system, salvage value would increase after-tax cash flows in
Year 10 by $2,400,000 (0.6 × $4,000,000). Using the discount factor of 0.322,
5. Requirement 2 illustrates the importance of using the correct discount rate.
The rate of 20 percent made the automated alternative look totally unappeal-
ing. By using the correct rate, the alternative showed a large net present val-
1927
Problem 19.31
1. Schedule of cash flows:
Year Item CF
2014 Equipment $(945,000)
Discount 18,900
Freight (11,000)
2015 Operating expenses* $(627,000)
Depreciation tax shield** 127,987
Total $(499,013)
2016 Operating expenses* $(627,000)
Depreciation tax shield** 170,688
Total $(456,312)
*Unit cost:
DM ………………….. $10 × 0.75 $ 7.50
Year
2015 Variable costs: $20 × 50,000 = $1,000,000 × 0.6 = $600,000
Fixed costs: $45,000 × 0.6 = $ 27,000 $627,000
2016 Variable costs: $20 × 50,000 = $1,000,000 × 0.6 = $600,000
Fixed costs: $45,000 × 0.6 = $ 27,000 $627,000
Problem 19.31 (Continued)
1928
2019 Variable costs: $20 × 55,000 = $1,100,000 × 0.6 = $660,000
Fixed costs: $45,000 × 0.6 = $ 27,000 $687,000
**Depreciation tax shield:
Year Value*** Rate Allowance Tax Rate Shield
2015 $960,000 0.3333 $319,968 0.40 $127,987
2016 960,000 0.4445 426,720 0.40 170,688
NPV:
Year CF df Present Value
2014 ……………. $(956,600) 1.000 $ (956,600)
2015 ……………. (499,013) 0.893 (445,619)
2016 ……………. (456,312) 0.797 (363,681)
2. Schedule of cash flows:
Year Item CF
2014 Salvageold (0.6 × $1,500) = $ 900
2015 Purchase cost: $27 × (50,000 × 0.6) = (810,000)
2016 Purchase cost: $27 × (50,000 × 0.6) = (810,000)
NPV:
Year CF df Present Value
2014 ……………. $ 900 1.000 $ 900
2015 ……………. (810,000) 0.893 (723,330)
1929
Problem 19.31 (Concluded)
3. The analysis favors internal production because it has a lower cost than pur-
Problem 19.32
1. After-tax cash flows:
Manual system:
Year (1 t)Ra (1 t)Cb tNCc Cash Flows
a0.60 × $400,000 (sales)
Robotic system:
Year (1 t)Ra (1 t)Cb tNCc Otherd Cash Flows
0 ….. $64,000 $(480,000) $(416,000)
1 ….. $240,000 $(124,320) 29,723 145,403
2 ….. 270,000 (132,960) 50,939 187,979
3 ….. 300,000 (141,600) 36,379 194,779
aYear 1: 0.60 × $400,000; Year 2: 0.60 × $450,000; Year 3: 0.60 × $500,000;
bAfter-tax cash expenses:
Fixed:
Direct labor …….. $20,000 × 0.60 = $12,000 (one operator)
1930
Problem 19.32 (Continued)
Variable:
Direct materials ……. (0.16 × Sales) × 0.75 × 0.60 = 0.0720 × Sales
Variable overhead (0.09 × Sales) × 0.6667 × 0.60 = 0.0360 × Sales
cYear 0: Tax savings on loss: [($200,000 $40,000) × 0.40]
Years 18: MACRS: 0.1429 × ($520,000 × 0.40) 0.2449 × ($520,000 × 0.40) etc.
dNet investment:
Purchase costs …………………… $520,000
2. Manual system:
Year Cash Flow Discount Factor Present Value
0 ………….. $ 0 1.000 $ 0
Robotic system:
Year Cash Flow Discount Factor Present Value
0 ………….. $(416,000) 1.000 $(416,000)
1 ………….. 145,403 0.893 129,845
2 ………….. 187,979 0.797 149,819
3 ………….. 194,779 0.712 138,683
1931
Problem 19.32 (Concluded)
3. Managers may use a higher discount rate as a way to deal with the uncertain-
ty in future cash flows. The higher rate “protects” the manager from
unpleasant surprises. Since a higher rate favors investments that provide
returns quickly, managers may be motivated by personal short-run consider-
ations (e.g., bonuses and promotion opportunities).
Using a discount rate of 12%:
Year Cash Flow Discount Factor Present Value
0 ………….. $(340,000) 1.000 $(340,000)
110 ……….. 80,000 5.650 452,000
NPV ………………………………………………………… $ 112,000
110 ……….. 80,000 4.192 335,360
NPV ………………………………………………………… $ (4,640)
If the 20 percent discount rate is used, the company would not acquire the
robotic system.
CYBER RESEARCH CASE
19.33
Answers will vary.
The Collaborative Learning Exercise Solutions can be found on the
1932
The following problems can be assigned within CengageNOW and are auto-
graded. See the last page of each chapter for descriptions of these new assign-
ments.
Integrative ExerciseCVP, Break-Even Analysis, Theory of Constraints (Co-
vers chapters 16, 19, and 20)