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This final installment
of a three-part series offers a comparison of leasing and financing
and explains how to evaluate both options. (Links
to parts one and two of our series can be found at the end of this
article.)
By Daniel P.
Duffy
The common denominator
for determining the effectiveness of either a loan or lease proposal
is its effect on the operators after-tax income. The goal
of any firm is to maximize its after-tax income. The preferred option,
then, is the one that limits the amount of after-tax cash outflows.
Often a true apples-to-apples comparison requires equating these
outflows to current dollars.
Lease Payments and
After-Tax Cash Flows
Unlike loan payments,
lease payments are considered tax-deductible expenditures on the
operators income statement. Therefore, the key fact to remember
is that a lease payment can be deducted from the operators
before-tax income in the period in which the equipment is utilized.
This tax deduction makes leasing competitive with obtaining financing
to purchase a piece of equipment. The lease payments received by
the lessor are treated as taxable income.
The after-tax cash outflow
of a lease payment is relatively easy to calculate. The outflow
is equal to the lease payment less the tax savings that occurs when
treating the lease payment as a tax-deductible expense. Therefore,
the outflow is equal to the lease payment multiplied by 1
tax rate (as a percentage of ordinary income). Thus, for a company
paying a 30% tax rate, the after-tax cash outflow for a lease payment
would be equal to 70% of the lease payment.
Borrowing and After-Tax
Cash Flows
The calculation of the
cash outflows associated with loan payments is more complicated
and requires two steps. The first step is to determine the annual
interest component of each loan payment. This calculation is done
using standard loan payment formulas that differentiate between
each periods principal and interest payments.
The second step requires
calculating the annual depreciation and the resultant total cash
outflow. The depreciation and interest payments on the loan are
considered an expense and may be deducted as operating expenses
from the firms annual income statement. Similar to lease payments,
these expenses result in a tax savings that is subtracted from the
loan payment to determine the years cash outflow.
Lease or Purchase?
The basic factor in evaluating
the decision to lease or purchase equipment is the present value
(PV) of the projected stream of cash outflows associated with each
option. Inevitably, cash outflows associated with leasing or financing
will occur at different times and for different durations of time.
Therefore, a PV analysis is the only way to obtain an apples-to-apples
comparison.
The appropriate discount
rate for this analysis should be current after-tax cost of debt.
Most factors affecting the decision are known or can be projected
with reasonable accuracy; therefore, this is a decision involving
very low risk. For example, assume that a lessee making a lease
or purchase decision has a current after-tax cost of debt equal
to 6%. The purchase price of the equipment is $24,000. The annual
lease payments are sent to the lessor to guarantee him or her a
14% return on investment. The equipment is expected to have no salvage
value (a simplifying assumption). All maintenance, insurance, and
other costs are borne by the lessee. If the lessor took on the costs
of maintenance, insurance, and so on, the lessor would include the
present value of these payments in his lease payment calculations.
In this instance, since the lessee would bear these costs whether
leasing or buying, the costs dont factor into the decision
to lease or purchase.
As for purchase considerations,
loan terms are five years at 9%. Five-year straight-line depreciation
is applied to the equipment. Tax rates are at 40% on ordinary income.
The cash outflows associated
with leasing are the lease payments themselves plus the tax benefits
associated with the lease payments. The tax benefits result from
being able to expense the leasing payments for tax purposes. The
lease payment (X) is determined by the following formula: $24,000
= (1.000)X + (2.914)X, where 2.914 is the present interest factor
for an annuity discounted at 14% per year. The resultant annual
lease payment in this case is $6,132.
The resultant cash outflow
results from deducting the tax benefits from the lease payments
as shown in the following table.
|
A.
Year
Ending
|
B.
Lease
Payment
|
C.
Tax Benefits
(B
x 40%)
|
D.
Cash Outflow
(B - C)
|
|
0
|
$6,132
|
$0
|
$6,132
|
|
1
|
$6,132
|
$2,453
|
$3,679
|
|
2
|
$6,132
|
$2,453
|
$3,679
|
|
3
|
$6,132
|
$2,453
|
$3,679
|
|
4
|
$6,132
|
$2,453
|
$3,679
|
|
5
|
$0
|
$2,453
|
($2,453)
|
Note that lease payments
are typically upfront costs, paid before each period of the term
of the lease. Hence, the yearly differences between when payments
are made and when tax advantages accrue to the lessee.
For purchase decisions,
the estimated annual cash outflows are more complicated to calculate.
Loan payments in this instance are $6,170 per year. The loan payments
are not expensed, however. Instead, the annual depreciation of the
equipment and interest charges on the loan are expensed and result
in a tax shield. Depreciation expense is $4,800 per year. The resultant
tax savings are deducted from the loan payments to determine actual
cash outflow, as summarized in the following table:
|
A.
Year
Ending
|
B.
Loan
Payment
|
C.
Depreciation
|
D.
Interest
|
E.
Total
Deductions
(C + D)
|
F.
Tax
Benefit
(E x 40%)
|
G.
Cash
Outflow
(B - F)
|
|
0
|
$0
|
$0
|
$0
|
$0
|
$0
|
$0
|
|
1
|
$6,170
|
$4,800
|
$2,160
|
$6,960
|
$2,784
|
$3,386
|
|
2
|
$6,170
|
$4,800
|
$1,799
|
$6,599
|
$2,640
|
$3,530
|
|
3
|
$6,170
|
$4,800
|
$1,406
|
$6,206
|
$2,482
|
$3,688
|
|
4
|
$6,170
|
$4,800
|
$977
|
$5,777
|
$2,311
|
$3,859
|
|
5
|
$6,170
|
$4,800
|
$510
|
$5,310
|
$2,124
|
$4,046
|
The following table summarizes
and compares the two potential streams of cash outflow using a present-value
analysispresent-value interest factor, or PVIFbased
on 6% for the corresponding year:
| |
Lease
Option
|
Lease
Option
|
Lease
Option
|
Purchase
Option
|
Purchase
Option
|
Purchase
Option
|
|
A.
Year
Ending
|
B.
Cash
Outflow
|
C.
PVIF
|
D.
PV of
Leasing
Outflows
(B x C)
|
E.
Cash
Outflow
|
F.
PVIF
|
G.
PV of
Purchase
Outflows
(E x F)
|
|
0
|
$6,132
|
1.000
|
$6,132
|
$0
|
1.000
|
$0
|
|
1
|
$3,679
|
0.943
|
$3,469
|
$3,386
|
0.943
|
$3,193
|
|
2
|
$3,679
|
0.890
|
$3,274
|
$3,530
|
0.890
|
$3,142
|
|
3
|
$3,679
|
0.840
|
$3,090
|
$3,688
|
0.840
|
$3,098
|
|
4
|
$3,679
|
0.792
|
$2,914
|
$3,859
|
0.792
|
$3,056
|
|
5
|
($2,453)
|
0.747
|
($1,832)
|
$4,046
|
0.747
|
$3,022
|
|
Total
|
|
|
$17,047
|
|
|
$15,511
|
The incremental savings
achieved by borrowing instead of leasing is $1,536. Therefore, borrowing
instead of leasing saves the operator $1,536 in todays dollars.
In this example, borrowing is the preferred alternative.
Unfortunately, the analysis
is seldom this simple. Rarely, if ever, does a lease term coincide
exactly with a loan period in regard to when they begin, when they
end, and their duration. A mixed stream of cash flows involving
equipment, replacement equipment, and varying costs and term durations
might be required for an accurate analysis. Tax rates and the after-tax
cost of debt on which the entire analysis depends may be changed
during the course of the loan or the lease agreements. Thus, other
types of depreciation might be more applicable instead of simple
straight-line depreciation. Given the potential unknowns, the lease-or-purchase
decision remains more art than science.
Equipment Replacement
Decisions
Before you make the decision
to buy or lease, you have to make a decision that might be even
more difficult: when to let go of old equipment and vehicles. This
decision is made more complicated by the unequal operating lifetimes
of the equipment in your fleet. Two approaches are common:
In the first approach,
a comparison is made between the estimated resale values of new
equipment (purchased now) at the time the old equipments operating
life has expired. For example, an existing piece of equipment has
a projected remaining operational lifetime (based on operators
experience and manufacturers information) of three years,
at which time it will have a projected salvage value of $10,000.
Lets assume that a new piece of equipment purchased to replace
the existing equipment has a projected operating lifetime of seven
years. Three years from now, the newly purchased equipment will
have a salvage value of $12,000. Therefore, it makes financial sense
to purchase the new equipment.
The second approach makes
a comparison over a longer time span, allowing for a common termination
date for both pieces of equipment. This approach includes a prediction
of the replacement cost of the older machine at the later date.
What matters here is the greatest value that the operator can expect
from each piece of equipment at the end of the longer operating
lifetime.
Typically the main problem
with both approaches is the lack of a realistic common termination
date. Whether the comparison is made over the remaining life of
the old equipment or the projected life of the new equipment, some
estimate of salvage value is required. Matching up the lifetimes
of the equipment can become very complicated.
For example, new equipment
"A" is projected to last 10 years. Existing equipment
"B" has a projected life of six years, after which it
has to be replaced by equipment "C." Equipment C will
be four years old at the end of the 10-year lifetime of A. Therefore,
a proper analysis requires a comparison of the 10-year value of
A with the four-year value of equipment C. A daisy chain of comparisons
can result unless realistic assumptions regarding residual values
are made for a common termination date.
Theres the rub.
As anyone who has sold a personal automobile can attest, the official
projected "Blue Book" value doesnt count for much
in the real world. However, an official accounting projection of
the equipments salvage value is all that can be expected.
Whether a used piece of equipment is sold for more or less than
book value depends on forces beyond the control of the seller (e.g.,
economic activity, demand, technical improvements made to similar
equipment in the interim).
Summary and Conclusions
Whether the business
is a lemonade stand or a major construction contractor with a large
fleet of iron, its reason for existing is either wealth maximization
or profit maximization. Wealth maximization is defined as
the strategy of maximizing the value of the owners investment
in the firm (usually measured by its stock price if its a
publicly held company) over the long term. This strategy does not
permit the sacrifice of long-term returns for current earnings and
therefore is not always consistent with the second strategy. Profit
maximization is defined as a short-term approach that does not
consider risk or the timing of cash flows. Both are legitimate approaches,
with wealth maximization considered the traditional approach and
profit maximization preferred by most investors currently.
Although it might be
a bit of an oversimplification, financing equipment purchases, and
the advantages of ownership (depreciation, salvage value, and so
on) that come with it, lends itself to a wealth-maximization strategy.
Leasing, with its short-term focus and minimum upfront costs, is
more applicable to a profit-maximization strategy. Even though the
preferred strategy will influence the lease or purchase decision,
the two goals are not mutually exclusive; profit maximization can
be a part of a wealth-maximization strategy. In the final analysis,
a mixed approach involving both leasing and purchasing might be
the optimum strategy. That way you get the best of both worlds.
Guest author Daniel
P. Duffy, P.E., is an environmental engineer for Rumpke Waste Inc.
in Cincinnati, OH
To
read Part 1 of this series click
here
For Part 2 click here
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