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(16 of 17) Ch.14 - Flotation costs: 2 examples - YouTube
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Let's look at the following example.
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A company wants to invest $15 million into
a new project.
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Eighty percent will be raised through new
equity.
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Twenty percent will be raised through new
debt.
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Flotation costs on equity are 10%.
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Flotation costs on debt are 5%.
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Two questions: what is the weighted average
flotation cost and what is the true investment
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needed for this new project?
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To answer the first question, we need to use
the weighted average flotation cost formula.
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Because we are only raising money from two
sources -- equity and debt -- there is no
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preferred stock part in the weighted average
flotation cost formula.
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So, we just have the weight of equity times
the flotation cost of equity plus the weight
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of debt times the flotation cost of debt.
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Plugging in the numbers, we have 0.8 times
0.10 plus 0.2 times 0.05 which gives 0.09
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or a 9% overall flotation cost.
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So whatever money we raise by selling common
stock shares and bonds, 9% of that will be
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gone.
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It will be paid to some third party as a fee
for helping us go through this process of
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issuing the new financial securities.
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Now let's answer the second question: what
is the true investment that's needed?
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Using the formula from one of the earlier
slides, we need to take $15 million which
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is what the investment requires us to spend
upfront and divide it by one minus the weighted
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average flotation cost, 0.09.
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This gives $54.95 million.
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What different step do proportions of money
coming from new equity or new debt are not
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80% and 20% but equal proportions, 50% and
50%?
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Which part of our calculations for the two
questions would be updated?
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Well, the weights come up in the calculation
of the weighted average flotation cost.
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So, where we have 0.8 and 0.2, we will now
have 0.5 and 0.5.
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And that will change our weighted average
flotation cost from 0.09 to 0.075.
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So, because we will have less of the more
expensive type of financing, the overall flotation
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cost will drop.
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And that's exactly what we see from our calculations.
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And then the new flotation cost will affect
the true initial investment for our investment
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project.
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We will now divide 15 million by one minus
0.075 which will give us 54.05.
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So, it won't cost us as much to start the
new project when the financing of the -- when
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the flotation costs for the new financing
for this project will become relatively cheaper.
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Let's look at the following example.
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A project requires $50 million in initial
costs.
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So, we are actually using the same numbers
as on the previous slide.
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Eighty percent will be raised from new equity
and 20% will be raised from new bonds.
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The flotation cost for equity is 10%.
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The flotation cost for bonds is 5%, just like
on the last slide.
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What else do we know?
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The investment project is expected to generate
$32 million for two years.
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So, it's a two-year project.
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We also know that the pre-tax cost of debt
to the firm is 8% per year and the cost of
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equity for the firm is 14% per year.
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We also know that the company faces a corporate
income tax rate of 34%.
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Is the project worth it?
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Let's calculate the project's net present
value.
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Let's do it the wrong way and the correct
way, the wrong way being ignoring flotation
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costs completely.
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Like, we don't know anything about them.
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We don't know what those are.
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And the right way will be with the flotation
costs.
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The first step to calculating the project's
net present value is finding its discount
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rate.
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We are going to use the weighted average cost
of capital formula for the discount rate.
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Of course, this assumes -- by using the firm's
WACC we are assuming that we are --
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So plugging in the numbers, the weight of
equity is 0.8.
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The cost of equity is 0.14.
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The weight of debt is 0.2.
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The pretax cost of debt is 0.08.
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And we then multiply the pretax cost of debt
by one minus 0.34.
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By the way, in some numerical problems, you
are given the tax rate and you are given the
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after-tax cost of debt.
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This is a trick.
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If you are given the after-tax cost of debt,
then you are given RD times one minus TC.
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So, you don't need to then multiply it again
by one minus TC because that's already done
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in the number you're given for the after-tax
cost of debt.
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So, keep that in mind.
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Read the wording carefully.
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The weighted average cost of capital gives
0.12256.
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If you ignore the flotation costs, then we
would then use the initial investment of $50
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million for this project.
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If you do not ignore the flotation costs,
we would realize that $50 million is not going
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to be the true cost of this project because
it needs to be kind of adjusted up for the
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flotation costs, the cost of raising money.
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The overall flotation cost when the money
comes from two sources -- new equity and new
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bonds -- we will calculate it by taking the
weight of equity, 0.8, just like the weight
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we used in the WACC formula.
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So, notice how we use it two times for two
different things.
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The weight of equity, 0.8, is then multiplied
by the flotation cost of equity which is given,
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10% or 0.1 in decimals.
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Then we add the weight of debt, 0.2, multiplied
by the flotation cost of debt, 5% or 0.05
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in decimals which gives us 0.09.
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So, 9% of the money that we raise will be
paid to the third party helping us go through
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this issuing process and what's left will
be exactly $50 million that we need for the
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project.
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So how much extra do we need to raise to make
up for the 9% flotation cost?
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That's calculating the true initial investment.
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Fifty million that we needed divided by one
minus the overall flotation cost.
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Fifty million divided by one minus 0.09 gives
$54.95 million.
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So, if you ignore the flotation costs, then
the net present value would equal minus 50
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million plus the first year's cashflow, $32
million, discounted using the WACC as the
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discount rate, so divided by one plus 0.12256.
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And then we add the second year's cashflow,
another $32 million, discounted that by two
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years using the WACC as the discount rate,
so divided by one plus 0.12256 squared.
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And that will give us $3.9 million.
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And we would say that because the number is
above zero, the project should be accepted.
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It's worth it.
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However, the mistake here is using -- Fifty
million dollars for the initial investment.
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That's too little.
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The cost is actually higher when the flotation
costs are considered.
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The true year zero cashflow is negative $54.95
million.
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And that will change the true net present
value for our project to negative $1.05 million.
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Because it's negative, the correct decision
regarding this project should be rejecting
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it.
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The project is not worth it.
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So, you see how ignoring or not ignoring flotation
costs may make a difference between accepting
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a project and rejecting it.
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So, flotation costs are very important.
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Too high flotation costs may result in a too
high initial investment which will make the
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net present value negative.
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If we ignore flotation costs, we may mistakenly
get a positive NPV.
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So, we may mistakenly accept a project which,
in fact, should be rejected.
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