chapter 9 capital budgeting © 2000 south-western college publishing
TRANSCRIPT
Chapter 9Chapter 9
Capital BudgetingCapital Budgeting
© 2000 South-Western College Publishing
Capital BudgetingCapital BudgetingA major part of the financial management of the firm
Kinds Of Spending In Business
Short term - to support day to day operations
Long term - to support long lived equipment and projects
Long term spending is called Capital
Capital BudgetingCapital BudgetingPlanning and Justifying How Capital Dollars
Are Spent On Long Term ProjectsProvides methods for evaluating whether projects make financial sense
and for choosing among them
TM 9-1 Slide 1 of 2
Project Types and RiskProject Types and Risk
Projects fall into three general categories characterized by increasing risk:
Replacement
Expansion
New Venture
STAND-ALONE AND MUTUALLY EXCLUSIVE PROJECTS
The Stand-Alone DecisionIs the project a good idea if there's no competition
for the resources to do it
The Mutually Exclusive DecisionSelecting either project excludes the other
Choosing among different ways to do something or among
separate projects competing for limited resources
TM 9-1 Slide 2 of 2
PROJECT CASH FLOWSPROJECT CASH FLOWSThe first step in capital budgeting is to represent all projects as a series of
incremental cash flows
Example: A new venture takes an initial investment of $50,000, will lose $10,000 in the first year, and earn $15,000 per year for five years
C0 ($50,000)
C1 ($10,000)
C2 $15,000
C3 $15,000
C4 $15,000
C5 $15,000
C6 $15,000
TM 9-2 Slide 1 of 2
PROJECT CASH FLOWS (cont.)PROJECT CASH FLOWS (cont.)
The typical pattern involves outflows first
and inflows later
C0, the Initial Outlay, is virtually always negative
(A few of the later flows may also be negative)
Estimating cash flows is the most difficult part of capital budgeting (Chapter 10)
For now, we'll take them as given
TM 9-2 Slide 2 of 2
THE COST OF CAPITALTHE COST OF CAPITALThe average rate of return the firm pays to its long term
investors for the use of their money.
Intuitive Purpose:
An investment makes sense only if it earns more than the
cost of funds put into it.
A weighted average concept where the weights are the proportionate amounts invested in each kind of capital
Portion Return
Equity .75 x 10% = 7.5%
Debt .25 x 8% = 2.0%
Weighted Average Cost of Capital 9.5%
TM 9-3
CAPITAL BUDGETING TECHNIQUESCAPITAL BUDGETING TECHNIQUES
Payback periodNet Present Value (NPV)
Internal Rate of Return (IRR)
Profitability Index (PI)
Each involves calculating a number for every project under consideration and applying decision rules to those numbers
to make accept or reject choices
TM 9-4 Slide 1 of 4
PAYBACK PERIODPAYBACK PERIODMeasure the time it takes for the project to "break even"
in terms of undiscounted cash flows
Example:Year 0 1 2 3 4
Cash Flow (Ci)
($200,000) $60,000 $60,000 $60,000 $60,000
Cumulative Cash Flow
($200,000) ($140,000) ($80,000) ($20,000) $40,000
Payback Period = 3.33 years
TM 9-4 Slide 2 of 4
Payback Decision RulesPayback Decision Rules
It's better to recover invested money sooner than later
Stand-alone Projects:
Businesses generally have stated policies as to the maximum time allowable for capital recovery
Payback period < Policy Maximum AcceptAccept Payback Period > Policy Maximum RejectReject
TM 9-4 Slide 3 of 4
Mutually Exclusive ProjectsMutually Exclusive ProjectsShorter Is Better:
P/BA < P/BB Choose Project AA over Project B
Weaknesses of the Payback Method
Ignores the time value of money
Ignores cash flows after the payback period
TM 9-4 Slide 4 of 4
Example 9-1 Choose between mutually exclusive projects A and B:
Project A Project B
C0 ($1,200) ($1,200)
C1 $400 $400
C2 $400 $400
C3 $400 $350
C4 $200 $800
C5 $200 $800
Solution: P/BA = 3 years
P/BB = slightly more than 3 years
Therefore, Payback chooses Project A, but Project B
is better because of years 4 and 5
Why Use the Payback Method?Quick and easy to apply serves as a rough screening device
before more sophisticated methods TM 9-5
NET PRESENT VALUE (NPV)
The present value of future cash flows is what counts
when making decisions based on value.
The Net Present Value of all of a project's cash flows is its expected contribution to the firm's value and shareholder wealth
PVs are taken at k, the cost of capital
Outflows are Ci with negative values and tend to occur first
NPV is the difference between the present values of all the positives and
all the negatives TM 9-6 Slide 1 of 2
NPV = C0
C
k
C
k
C
k
nn
1 221 1 1( ) ( )
...( )
NPV DECISION RULESStand-alone Projects:
NPV > 0 Accept NPV < 0 Reject
Example 9-2:
Should project Alpha be undertaken if the cost of capital is 12%?
C0 C1 C2 C3
($5,000) $1,000 $2,000 $3,000
Solution: Year Cash Flow PV Factor PV of Cash Flow
0 ($5,000) - ($5,000.00)
1 $1,000 .8929 $892.90
2 $2,000 .7972 $1,594.40
3 $3,000 .7118 $2,135.40
NPV = ($377.30)
Project Alpha's negative NPV REJECT
TM 9-6 Slide 2 of 2
Mutually Exclusive Projects:A bigger NPV is better
NPVA > NPVB Choose Project A over B
The idea is straightforward, but a number of practical questions arise
Example 9-3: Xavier makes outdoor power equipment and is considering two projects:
1) making larger tractors and 2) making snowblowers (snowblowers use similar
technology, but are a new product for Xavier). Management wants to base
the decision on only 5 years of estimated cash flow as follows ($000):
Year Tractor Snowblower
0 ($3,000) ($3,500)
1 ($250) ($700)
2 $500 $800
3 $1,000 $1,200
4 $1,500 $2,000
5 $1,500 $2,000
Evaluate each project as a stand alone and if only $5M in capital is available TM 9-7 Slide 1 of 2
Solution:
Cash Flows PV of Cash FlowsYear Factor Tractor Snowblower Tractor Snowblower
0 ($3,000) ($3,500) ($3,000) ($3,500)
1 .9174 ($250) ($700) ($229) ($642)
2 .8417 $500 $800 $421 $673
3 .7722 $1,000 $1,200 $772 $927
4 .7084 $1,500 $2,000 $1,063 $1,417
5 .6499 $1,500 $2,000 $975 $1,300
NPV's $2 $175
Stand-alone: Both are marginally acceptable
Mutually Exclusive: Snowblower is marginally better
(Both NPVs are small relative to C0s)
TM 9-7 Slide 2 of 2
Reevaluate if management considers two more years of cash flow at the level of 5th year
Cash Flows PV of Cash Flows Year Factor Tractor Snowblower Tractor Snowblower
6 .5963 $1,500 $2,000 $894 $1,193
7 .5470 $1,500 $2,000 $821 $1,094
Addition to NPVs $1,715 $2,287
Previous NPV s $2 $175
New NPVs $1,717 $2,462
Notice the change in the complexion of the problem.
Stand-alone: Both projects clearly favorable
Mutually exclusive: Snowblower seems the obvious choice
However, cash flows become less certain as they are further into the future
TM 9-8 Slide 1 of 2
Are Other Risk Considerations Relevant?Are Other Risk Considerations Relevant?
Yes!!!Yes!!!
Tractors are an expansion - Snowblowers are a new venture
Risks are unlikely to be the same
Is a straight comparison of NPVs appropriate???
Probably not - Stay tuned until Chapter 10
TM 9-8 Slide 2 of 2
INTERNAL RATE OF RETURN (IRR)INTERNAL RATE OF RETURN (IRR)Define IRR in two ways:
The return a project earns on invested funds or
In terms of the NPV equation
The Project as an InvestmentView a project as an investment similar to the purchase of
a financial asset
The initial outlay is the "price" of receiving the future inflows
IRR is the return on the investment (equates the PV of future
cash flows to the price today)
Finding a project's IRR is analogous to finding a bond's yield
at a given price
TM 9-9 Slide 1 of 2
Defining IRR Through the NPV Equation
At the IRR the PVs of project inflows and
outflows are equal, so
NPV = 0
A project's IRR is the solution to this equation for a given set of Ci
TM 9-9 Slide 2 of 2
0 = C0
C
IRR
C
IRR
C
IRR
nn
1 221 1 1( ) ( )
...( )
IRR Decision RulesFollow from thinking in terms of a return on investment
Stand-alone Projects: Invest only if IRR exceeds k, the cost of capital
IRR > k Accept
IRR < k Reject
Mutually Exclusive Projects: a bigger IRR is better
IRRA > IRRB Choose Project A over Project B
Calculating IRRsIRR equation is an nth order polynomial in the unknown IRR
Can't generally be solved algebraically
Use an iterative approach in the NPV equation starting with a guess at k
Calculate NPV, if not zero guess again moving closer to solution
TM 9-10
Example 9-4
Find IRR for cash flows of Example 9-2:
C0 C1 C2 C3
($5,000) $1,000 $2,000 $3,000
Is the project acceptable if k = 8%, 10%?
Solution:
Use NPV equation and find value of k where NPV = 0
TM 9-11 Slide 1 of 3
NPV = C0
C
k
C
k
C
k
nn
1 221 1 1( ) ( )
...( )
Rationale:
Larger interest rates shrink positive Ci in the distant future more than
early negative Ci , especially C0
Hence NPV for normal projects decreases as k increases
NPV
k
IRR
Figure 9-1 NPV Profile
TM 9-11 Slide 2 of 3
Finding an IRR is equivalent to locating the crossover point
of the NPV Profile by testing points on either side
Set up a two column table and calculate as in Example 9-2
Interest Calculated
Rate Guess NPV
12% ($377)
10% ($184)
9% ($83)
8% $22
7% $130
IRR is between 8% and 9% (where NPV changes sign)
k = 8% project is marginally favorable
k = 9% project is unfavorable(Technique is similar to finding bond yields)
TM 9-11 Slide 3of 3
TECHNICAL PROBLEMS WITH IRRTECHNICAL PROBLEMS WITH IRRMultiple Solutions
IRR equation can have as many as n solutions
(positive, negative, or imaginary)
Only as many positive solutions as sign reversals
Only one is generally reasonable
The Reinvestment AssumptionImplicitly assumes reinvestment of inflows at the IRR
Unlikely to be possible if IRR very high
Overstates calculated IRR somewhat
Rarely affects acceptance or ranking
(Note: NPV's reinvestment assumption is usually easily satisfied)
Technical problems rarely present practical difficulties
TM 9-12
COMPARING IRR AND NPVCOMPARING IRR AND NPV
NPV and IRR May Occasionally Give Conflicting Results
in Mutually Exclusive Decisions
NPV
NPVB k2
NPVA
NPVA k1 A NPVB
B
k2 k1
IRRB IRRA
Figure 9-2 Projects For Which IRR and NPV Can Give Different Solutions
TM 9-13 Slide 1 of 2
k
In Case of Conflict The NPV Method is Preferred
Reinvestment assumption is more easily satisfied.
Direct link to shareholder wealth
Businesspeople Tend to Prefer IRR Over NPV
More used to working with rates of return
PV'd dollars are a little abstract
TM 9-13 Slide 2 of 2
PROJECTS WITH A SINGLE PROJECTS WITH A SINGLE OUTFLOW AND REGULAR INFLOWSOUTFLOW AND REGULAR INFLOWS
Many projects are characterized by an initial outflow and equal regular inflows:
PV of annuity formula makes pattern easy to work with
NPV: NPV = C0 + C [PVFAk,n]
IRR: 0 = C0 + C [PVFAIRR,n]
TM 9-14
PROFITABILITY INDEXPROFITABILITY INDEX
A variation on the NPV methodA variation on the NPV method
Compares PV of future cash flows with initial outlay in a ratio
(NPV works with the difference between inflows and outflows)
(Also known as the Benefit/Cost Ratio)
Concept poorly defined if some early Cs after C0 are negative
TM 9-15 Slide 1 of 2
PI
C
k
C
k
C
kC
nn
1 22
0
1 1 1( ) ( )....
( )
PIPV Inflows
PV Outflows
DECISION RULESDECISION RULES
Stand-alone Projects: PI > 1.0 AcceptAccept
PI < 1.0 RejectReject
Mutually Exclusive Projects:PIA > PIB Choose Project A over Project B
TM 9-15 Slide 2 of 2
COMPARING PROJECTS WITH UNEQUAL LIVESCOMPARING PROJECTS WITH UNEQUAL LIVES
C0 C1 C2 C3 C4 C5 C6
Short Lived Project
($1,500) $750 $750 $750
IRR = 23.4% NPV = $432.82
Long Lived Project
($2,600) $750 $750 $750 $750 $750 $750
IRR = 18.3% NPV = $867.16
Figure 9-3 Comparing Projects with Different Lives
NPV method adds up six years of benefits for one project and three years for the other. Hence longer lived machine gets a higher NPV.
TM 9-16 Slide 1 of 2
The Replacement Chain Method
Chain short projects to cover the time span of the longer project.
Two Short-Lived Projects Back-to-Back
($1,500) $750 $750 $750
($1,500) $750 $750 $750 ($750)
NPV = $776.41
Figure 9-4 A Three-Year Project Chained into Six Years
A problem exists if a large number of replacements are necessary.
TM 9-16 Slide 2 of 2
The Equivalent Annual Annuity (EAA) MethodThe Equivalent Annual Annuity (EAA) Method
Replace each link in the chain by its NPVReplace each link in the chain by its NPV
Then replace each NPV with an annuity of the same length Then replace each NPV with an annuity of the same length
and equal NPV and equal NPV
Example: Shorter project has n = 3 yrs and NPV = $432.82.
PVA = PMT [PVFAk,n]
$432.82 = PMT [PVFA8,3]
$432.82 = PMT (2.5771)
PMT = $167.95
= EAA
TM 9-17 Slide 1 of 3
First link Second link
0 1 2 3 4 5 6
(1,500) $750 $750 $750
PROJECTS ($1,500) $750 $750 $750
NPVs $432.82 $432.82
EAA $167.95 $167.95 $167.95 $167.95 $167.95 $167.95
Figure 9-5 Replacing a Project with its NPV and EAA
TM 9-17 Slide 2 of 3
Since the project can be chained forward indefinitely,
it can be represented by an indefinitely long EAA.
Can calculate an EAA for any project
For the longer project:
PVA = PMT [PVFAk,n]
$867.16 = PMT [PVFA8,6]
$867.16 = PMT (4.6229)
PMT = $187.58
= EAA
So choose the longer project since it has the larger EAA
TM 9-17 Slide 3 of 3
CAPITAL RATIONINGCAPITAL RATIONING
k% Possible $16M Funds Limitation
15%
10% Cost of Capital
5%
$8 $13 $19 $22 $28 $35 $
Cumulative Capital Investment
(for the year in $M)
The Capital BudgetCapital Budget is generally less than the total of projects available
Requires selecting projects to maximize total NPV
TM 9-18
A
B C D
E F