Valuation Methods for Corporate Restructuring Transactions Robert M. Dammon Tepper School of Business Carnegie Mellon University This material is copyright protected and may not be copied, reproduced, or distributed without the written consent from the author. ©2010 Robert M. Dammon 1 Agenda Overview of valuation Discounted cash flow (DCF) valuation Alternative DCF valuation methods Estimating residual values Estimating the cost of capital (discount rate) Multiples valuation Trading multiples Transaction multiples Premiums paid analysis ©2010 Robert M. Dammon 2 Overview of Corporate Valuation ©2010 Robert M. Dammon 3 Overview of Valuation Purpose of valuation: Valuing alternative corporate strategies Valuing an acquisition target Valuing a division as a potential divestiture Valuing a change in financial (capital) structure In theory, asset values depend upon the present value of expected future free cash flows. Value of firm’s assets = PV of expected future FCF ©2010 Robert M. Dammon 4 Overview of Valuation Securities issued by the firm (primarily debt and equity) represent claims to the firm’s future free cash flows. Hence, the current market prices of these securities should reflect the market’s estimate of what the firm’s future free cash flows are worth today. Value of firm’s assets = PV of expected future FCF = Value of debt + Value of equity ©2010 Robert M. Dammon 5 Overview of Valuation In many control contests, outside buyers (acquirers) believe that they can run the firm’s assets more efficiently, or under a new strategy, to create higher future cash flows. Hence, an outside buyer may be willing to pay a control premium for the firm’s securities in order to enhance the value of the firm’s assets. Since equityholders own the control rights of the firm, determining the price that can be paid for the firm’s equity is generally the objective of most valuation exercises. ©2010 Robert M. Dammon 6 Overview of Valuation In valuing an acquisition candidate, it is important to determine the following: Stand-alone value of the target company: What is the target company currently worth on its own? This sets the minimum price that the seller will consider. Synergy value: The value of the revenue enhancements and cost savings that the acquirer can generate from the acquisition. Maximum purchase price: The maximum purchase price is the sum of the stand-alone value and the synergy value. Any price above this will destroy value for the acquirer’s shareholders. The final purchase price will be determined by the relative negotiating positions (and skills) of the two companies. ©2010 Robert M. Dammon 7 Overview of Valuation The value created for the target firm’s shareholders is equal to the takeover premium: Value created for = Purchase - Stand-alone value target shareholders price of target = Takeover premium ©2010 Robert M. Dammon 8 Overview The value created for the acquiring firm’s shareholders is equal to the value of the synergies less the takeover premium: Value created for = Stand-alone value + Value of - Purchase acquirer shareholders of target synergies price = ©2010 Robert M. Dammon Value of - Takeover synergies premium 9 Illustration Assumptions: Stand-alone value of aquirer Stand-alone value of target Value of synergies Purchase price $10,000 $5,000 $2,000 $6,250 Target firm: Purchase price - Stand-alone value of target Value created for target shareholders Pct. Gain for target shareholders $6,250 ($5,000) $1,250 25.00% Acquiring firm: Value of synergies - Takeover premium Value created for acquiring shareholders Pct. Gain for acquiring shareholders $2,000 ($1,250) $750 7.50% ©2010 Robert M. Dammon 10 Valuation Methods There are three common valuation methods used in valuing an acquisition candidate: Discounted cash flow (DCF) Trading Multiples Transaction Multiples (and Premiums Paid Analysis) Each method has its advantages and disadvantages. Multiples valuation is easiest to implement, but also requires a set of truly “comparable” companies to use in the valuation. DCF is the most difficult to implement, but is the most fundamentally sound approach. ©2010 Robert M. Dammon 11 Triangulation DCF Valuation Triangulation provides a range of values that more accurately reflects the actual value of the company. Trading Multiples Valuation ©2010 Robert M. Dammon Transaction Multiples Valuation 12 Valuation Range 1,000 2,000 Trading Multiples 1,200 2,500 Transaction Multiples 600 1,600 Discounted Cash Flow 1,200 1,600 Range of Overlap ©2010 Robert M. Dammon 13 Discounted Cash Flow Valuation ©2010 Robert M. Dammon 14 Alternative DCF Valuation Methods WACC Approach Appropriate when the firm’s target debt ratio is fixed over time. Value of interest tax shields captured in the discount rate. Adjusted Present Value (APV) Approach Appropriate when the firm’s target debt ratio is changing over time. Value of interest tax shields calculated separately. Capital Cash Flow (CCF) Approach Appropriate when the firm’s target debt ratio is fixed over time. Interest tax shields included in the capital cash flows. Cash Flow to Equity (CFE) Approach Appropriate when the firm’s target debt ratio is fixed over time. Interest tax shields included in the equity cash flows. Most appropriate for valuing financial institutions. ©2010 Robert M. Dammon 15 NOPAT 1. Capital CF Approach 2. WACC Approach 3. APV Approach 4. CF to Equity Approach Plus: Depr. and other non-cash charges Less: CapX and changes in WC Capital Cash Flows 1 Discount at unlevered COC Levered firm value Plus: Interest tax shields 2 Operating FCF Less: A.T. interest and principal pmts. 3 Discount at WACC Levered firm value ©2010 Robert M. Dammon Equity Cash Flows 4 Discount at unlevered COC Discount at levered cost of equity Unlevered firm value Value of equity Plus: PV of ITS Plus: Total debt Levered firm value Levered firm value 16 WACC Approach ©2010 Robert M. Dammon 17 WACC Valuation The WACC approach to valuation is the most common approach used in practice. The WACC approach involves the following steps: Estimate the future free cash flows for a period of 5 to 10 years (forecast period). Estimate a residual (or terminal) value at the end of the forecast period. The residual value captures the value of all free cash flows beyond the forecast period. Estimate the WACC that is appropriate for the risk of the cash flows. Discount the free cash flows and residual value at the WACC. ©2010 Robert M. Dammon 18 WACC Valuation Mathematically, the value of the firm using the WACC approach is: T V t FCFt t (1 W) 1 RVT (1 W) T FCFt = Free cash flow in period t RVT = Residual value at the end of period T W = Weighted average cost of capital V = Total value of the firm (debt plus equity) ©2010 Robert M. Dammon 19 WACC Valuation 0 1 2 3 4 5 … FCF1 FCF2 FCF3 FCF4 FCF5 … T FCFT Present value of FCF over forecast period. T t FCFt t 1 (1 W) RVT (1 W) T RVT Present value of residual value at the end of the forecast period. ©2010 Robert M. Dammon 20 Operating FCF The calculation of Operating FCF includes the following: Operating FCF ignores any and all financing costs (e.g., interest payments, principal payments, dividends, etc.). It is the FCF available to pay all capital providers (debt and equity). Operating FCF ignores any income or expenses generated by nonoperating assets and liabilities (e.g., excess cash, marketable securities, or other financial assets). Taxes are calculated on operating income directly. The taxes on operating income do not include the effects of interest tax shields or the taxes on non-operating income. All non-cash charges (e.g., depreciation, amortization, non-cash compensation expenses, etc.) need to be added back to NOPAT in calculating Operating FCF. ©2010 Robert M. Dammon 21 Operating FCF Capital expenditures represent investment in fixed assets that the company needs to support its future operations. Replacement CapX: Capital expenditures needed to replace worn out plant and equipment. Discretionary CapX: Capital expenditures needed to support the company’s future growth in sales. Working capital investments are needed to support the company’s future growth in sales. Typically, working capital is assumed to be a constant percentage of sales revenues. Unlike the accountant’s definition, working capital should exclude any interest-bearing debt (e.g., short-term debt and current portion of longterm debt), excess cash, and marketable securities. ©2010 Robert M. Dammon 22 WACC WACC Valuation 9.8% 0 1 Forecasts of FCF: Sales Revenues - CGS (excluding depreciation) - Depreciation - SGA Operating Profits - Taxes on Operating Profits NOPAT + Depreciation Operating Cash Flows - Additions to WC - Capital Expenditures Free Cash Flows + Residual Value (levered)1 Present Value (WACC) Value of Operations + Non-operating assets Enterprise value - Existing Debt Equity Value $0 $0 ------------$0 2 $1,000 ($640) ($40) ($120) ------------$200 ($70) ------------$130 $40 ------------$170 ($12) ($112) ------------$46 $0 $42 3 $1,120 ($717) ($45) ($134) ------------$224 ($78) ------------$146 $45 ------------$190 ($11) ($112) ------------$67 $56 4 $1,232 ($788) ($49) ($148) ------------$246 ($86) ------------$160 $49 ------------$209 ($10) ($108) ------------$91 $69 5 $1,331 ($852) ($53) ($160) ------------$266 ($93) ------------$173 $53 ------------$226 ($8) ($101) ------------$117 $81 6 $1,410 ($903) ($56) ($169) ------------$282 ($99) ------------$183 $56 ------------$240 ($7) ($99) ------------$134 $84 7 $1,481 ($948) ($59) ($178) ------------$296 ($104) ------------$193 $59 ------------$252 ($6) ($95) ------------$151 $86 $1,540 ($986) ($62) ($185) ------------$308 ($108) ------------$200 $62 ------------$262 ($7) ($115) ------------$140 $2,761 $1,507 $1,924 $0 (e.g., excess cash, marketable securities, unconsolidated subsidiaries) ------------$1,924 ($350) (e.g. short-term borrowing, long-term debt, and other interest-bearing liabilities) ------------$1,574 (includes the value of preferred stock and any employee stock options) ©2010 Robert M. Dammon 23 Enterprise Value Before we can calculate the total enterprise value we need to add the value of non-operating assets to the value of operations. EV = Value of Operations + Non-operating assets Non-operating assets include: Excess cash and marketable securities Long-term financial assets The value of unconsolidated subsidiaries ©2010 Robert M. Dammon 24 Equity Value To calculate equity value, we need to subtract total debt (longterm plus short-term), preferred stock, and any other contingent liabilities from enterprise value (EV). Equity Value = EV – Debt – Preferred – Other Liabilities Other contingent liabilities include: Unfunded pension and post-retirement liabilities. Capitalized value of operating leases. Employee stock options and deferred compensation Minority interest Off-balance sheet contingent liabilities (e.g., lawsuits). ©2010 Robert M. Dammon 25 Estimating Residual Values ©2010 Robert M. Dammon 26 WACC WACC Valuation 9.8% 0 1 Forecasts of FCF: Sales Revenues - CGS (excluding depreciation) - Depreciation - SGA Operating Profits - Taxes on Operating Profits NOPAT + Depreciation Operating Cash Flows - Additions to WC - Capital Expenditures Free Cash Flows + Residual Value (levered)1 Present Value (WACC) Value of Operations + Non-operating assets Enterprise value - Existing Debt Equity Value $0 $0 ------------$0 2 $1,000 ($640) ($40) ($120) ------------$200 ($70) ------------$130 $40 ------------$170 ($12) ($112) ------------$46 $0 $42 3 $1,120 ($717) ($45) ($134) ------------$224 ($78) ------------$146 $45 ------------$190 ($11) ($112) ------------$67 $56 4 $1,232 ($788) ($49) ($148) ------------$246 ($86) ------------$160 $49 ------------$209 ($10) ($108) ------------$91 $69 5 $1,331 ($852) ($53) ($160) ------------$266 ($93) ------------$173 $53 ------------$226 ($8) ($101) ------------$117 $81 6 $1,410 ($903) ($56) ($169) ------------$282 ($99) ------------$183 $56 ------------$240 ($7) ($99) ------------$134 $84 7 $1,481 ($948) ($59) ($178) ------------$296 ($104) ------------$193 $59 ------------$252 ($6) ($95) ------------$151 $86 $1,540 ($986) ($62) ($185) ------------$308 ($108) ------------$200 $62 ------------$262 ($7) ($115) ------------$140 $2,761 $1,507 $1,924 $0 (e.g., excess cash, marketable securities, unconsolidated subsidiaries) ------------$1,924 ($350) (e.g. short-term borrowing, long-term debt, and other interest-bearing liabilities) ------------$1,574 (includes the value of preferred stock and any employee stock options) ©2010 Robert M. Dammon 27 Estimating Residual Value The residual (terminal) value captures the remaining value of the firm at the end of the forecast period. Residual values can be estimated in a number of different ways: After-tax liquidation value of the assets. Multiple of earnings or cash flows in the terminal period. Perpetuity growth formula. We will focus on using the perpetuity growth formula for estimating residual values. ©2010 Robert M. Dammon 28 Estimating Residual Value The standard formula for the present value of a perpetuity that grows at a constant rate, G, is: RVT FCFT 1 W-G FCFT (1 G) W-G where RVT = residual value of the firm at the end of period T G = long-run nominal growth rate W = the nominal weighted average cost of capital (WACC). ©2010 Robert M. Dammon 29 Estimating Residual Value Recall the definition for free cash flow (FCF): FCF = NOPAT + Depreciation – CapX – WC Now define Net New Investment (NNI) as follows: NNI = CapX – Depreciation + WC This allows us to write FCF as follows: FCF = NOPAT – NNI ©2010 Robert M. Dammon 30 Estimating Residual Values Now we make the simplifying assumption that during the perpetuity period (after date T) the company reinvests a constant fraction of earnings. Define the constant plowback rate, k, as follows: k NNI t , NOPATt for all t T This allows us to write the FCF for period T as follows: FCFT = NOPATT(1 – k) ©2010 Robert M. Dammon 31 Estimating Residual Value Substituting for FCFT in our residual value formula gives us: RVT NOPATT (1 - k)(1 G) W-G The next step is to examine the drivers of the company’s longrun nominal growth rate, G. This will allow us to fine tune our estimate of G and the residual value, RVT. ©2010 Robert M. Dammon 32 Long-Run Growth Rate Let R denote the long-run marginal Return on Invested Capital (ROIC). This allows us to write the long-run growth rate, G, as follows: G NOPATt NOPATt 1 NNI t x R NOPATt kR NNIt = [k x NOPATt] is the Net New Investment made by the company at date t. This marginal investment earns a nominal return of R per period. ©2010 Robert M. Dammon 33 Long-Run Growth Rate G = kR Long-run nominal growth, G, depends upon two things: Plowback Rate (k): Fraction of earnings that are reinvested back into net new investments in the long-run. Return on Invested Capital (R): The marginal rate of return the company earns on investment in the long-run. ©2010 Robert M. Dammon 34 Value Driver Formula The expression for long-run growth allows us to use the Value Driver Formula in estimating the residual value, RVT. RVT NOPATT (1 G)(1- G/R) W-G NOPATT (1 kR)(1 - k) W - kR Notice that you have the flexibility to choose only two of the three variables: R, k, and G. ©2010 Robert M. Dammon 35 Estimating Residual Value Estimates of k, G, and R for the perpetuity period are not always easy to come by. They depend upon many factors, including: The long-run growth prospects for the industry. Barriers to entry in the industry. The firm’s long-run sustainable competitive advantage. Economies of scale and scope in the industry. The durability of physical capital. The rate of technological innovation and obsolescence. As mentioned earlier, k, G, and R are interrelated. One need only estimate two of the three parameters to determine the third. ©2010 Robert M. Dammon 36 Empirical Evidence on ROIC and Growth Estimating ROIC and growth for the residual value formula should reflect the company’s long-run prospects. To understand the sustainability of ROIC and growth over the long-run, it is worth spending some time discussing the empirical evidence. The empirical evidence shown on the following pages comes from Chapter 6 of Valuation: Measuring and Managing the Value of Companies, T. Koller, M. Goedhart, and D. Wessels. ©2010 Robert M. Dammon 37 ROIC Distribution for Non-Financial Companies Source: Valuation: Measuring and Managing the Value of Companies, T. Koller, M. Goedhart, and D. Wessels, Wiley, 4th edition, pg.147. ©2010 Robert M. Dammon 38 ROIC By Industry Group Source: Valuation: Measuring and Managing the Value of Companies, T. Koller, M. Goedhart, and D. Wessels, Wiley, 4th edition, pg.148. ©2010 Robert M. Dammon 39 ROIC Decay Analysis: Non-Financial Companies Source: Valuation: Measuring and Managing the Value of Companies, T. Koller, M. Goedhart, and D. Wessels, Wiley, 4th edition, pg.150. ©2010 Robert M. Dammon 40 ROIC Transition Probability, 1994-2003 Source: Valuation: Measuring and Managing the Value of Companies, T. Koller, M. Goedhart, and D. Wessels, Wiley, 4th edition, pg.152. ©2010 Robert M. Dammon 41 Revenue Growth By Industry Source: Valuation: Measuring and Managing the Value of Companies, T. Koller, M. Goedhart, and D. Wessels, Wiley, 4th edition, pg.154. ©2010 Robert M. Dammon 42 Revenue Growth Decay Analysis Source: Valuation: Measuring and Managing the Value of Companies, T. Koller, M. Goedhart, and D. Wessels, Wiley, 4th edition, pg.158. ©2010 Robert M. Dammon 43 Revenue Growth Transition Probability, 1994-2003 Source: Valuation: Measuring and Managing the Value of Companies, T. Koller, M. Goedhart, and D. Wessels, Wiley, 4th edition, pg.159. ©2010 Robert M. Dammon 44 Implications for Residual Values The empirical evidence on the sustainability of ROIC and growth has important implications for estimating residual values. Companies with barriers to entry and sustainable competitive advantage, such as patents and brands, tend to earn high ROICs. Companies in competitive industries with few barriers to entry tend to earn relatively low ROICs. High ROICs tend to decline over time, but are still somewhat persistent. High growth rates are unsustainable and decay quickly. Companies growing faster than 20% per year (in real terms) typically grow at only 8% within 5 years and 5% within 10 years. In the long-run, no company can grow faster than the overall economy. ©2010 Robert M. Dammon 45 Residual Value Calculation The residual value included in the WACC valuation shown earlier was based upon the following assumptions: Perpetuity Assumptions: Nominal ROI (R ) Nominal growth rate (G) 15.0% 4.5% Perpetuity Calculations: Plowback rate (k) Residual Value (levered) 30.0% $2,761 ©2010 Robert M. Dammon 46 Residual Value Calculation Substituting the values of R, G, and k into the Value Driver Formula yields the following residual value: RVT NOPATT (1 G)(1 G/R) W-R $200(1.045)(1 .045/.15) $2,761 .098 - .045 ©2010 Robert M. Dammon 47 Using Multiples to Estimate Residual Values Sometimes I-Bankers will use a multiple of NOPAT (or other income item such as Sales, EBIT, or EBITDA) to estimate residual values. RVT Multiple x NOPATT Using the Value Driver formula, an explicit expression can be derived for the I-Bankers’ NOPAT multiple: Multiple ©2010 Robert M. Dammon (1 G)(1 - k) W-G 48 Common Mistakes There are two common mistakes in estimating residual values that can have a major impact on the valuation analysis: Underestimating the amount of capital investment needed to support long-run growth. Using a multiple to calculate the residual value that implies an unrealistically high long-run growth rate, G, or long-run ROIC. To illustrate, consider the following changes to the forecasts in the terminal year of our earlier WACC valuation (FCF forecasts for years 1-6 remain unchanged): Capital expenditures = Depreciation Residual Value = 18 x NOPAT What do these assumptions imply about long-run growth, G, and long-run ROIC? Do they seem reasonable? ©2010 Robert M. Dammon 49 WACC 9.8% 0 7 Fore ca sts of FCF: Sales Revenues - CGS (excluding depreciation) - Depreciation - SGA Operating Profits - Taxes on Operating Profits NOPAT + Depreciation Operating Cash Flows - Additions to WC - Capital Expenditures Free Cash Flows + Residual Value (levered)1 Present Value (WACC) Value of Operations + Non-operating assets Enterprise value - Existing Debt Equity Value ©2010 Robert M. Dammon $0 $0 ------------$0 $0 $2,390 $0 ------------$2,390 ($350) ------------$2,040 $1,540 ($986) ($62) ($185) ------------$308 ($108) ------------$200 $62 ------------$262 ($7) ($62) ------------$193 $3,604 $1,973 CapX = Dep. RV = 18 x NOPAT Equity value increase of $466 or 29.6% 50 Common Mistakes We can use the perpetuity formula to back out from the residual value the long-run growth rate, G, that is implied by the NOPAT multiple of 18x. RVT $3,604 FCFT (1 G) W -G $193(1 G) .098 - G G 4.22% The implied long-run growth rate is actually lower than we had assumed initially (4.5%), despite the fact that the residual value itself is now higher than before ($2,761). ©2010 Robert M. Dammon 51 Common Mistakes: An Illustration The problem is that the residual value is based on an unreasonably low plowback rate, k: NNI T NOPATT k $7 3.5% $200 With a terminal growth rate of G = 4.22% and a plowback rate of k = 3.5%, the implied long-run marginal ROIC is unreasonably high: R ©2010 Robert M. Dammon G k 4.22% 120.6% 3.5% 52 Common Mistakes: An Illustration This example illustrates the importance of making forecasts of FCF and residual values that are consistent with the fundamental relationship: G=kR The table on the next page shows the plowback rates, k, and NOPAT multiples that are internally consistent with various combinations of long-run growth, G, and long-run ROIC. ©2010 Robert M. Dammon 53 Common Mistakes: An Illustration WACC ROIC 10.0% 12.5% 15.0% 17.5% 20.0% ROIC 10.0% 12.5% 15.0% 17.5% 20.0% 9.8% 0.00% 0.0% 0.0% 0.0% 0.0% 0.0% 0.00% 10.2 10.2 10.2 10.2 10.2 1.50% 15.0% 12.0% 10.0% 8.6% 7.5% Required Plowback Rates, k Long-Run Growth Rate, G 3.00% 4.50% 6.00% 7.50% 30.0% 45.0% 60.0% 75.0% 24.0% 36.0% 48.0% 60.0% 20.0% 30.0% 40.0% 50.0% 17.1% 25.7% 34.3% 42.9% 15.0% 22.5% 30.0% 37.5% 9.00% 90.0% 72.0% 60.0% 51.4% 45.0% 1.50% 10.4 10.8 11.0 11.2 11.3 Implied NOPAT Multiple Long-Run Growth Rate, G 3.00% 4.50% 6.00% 7.50% 10.6 10.8 11.2 11.7 11.5 12.6 14.5 18.7 12.1 13.8 16.7 23.4 12.6 14.6 18.3 26.7 12.9 15.3 19.5 29.2 9.00% 13.6 38.2 54.5 66.2 74.9 ©2010 Robert M. Dammon 54 Estimating the Cost of Capital ©2010 Robert M. Dammon 55 Estimating the WACC The textbook formula for the nominal WACC is: W R D (1- t c ) D V RE E V where RD = cost of debt RE = cost of equity tc = corporate tax rate D/V = debt-to-value ratio (based upon market values) E/V = equity-to-value ratio (based upon market values) ©2010 Robert M. Dammon 56 Estimating the WACC The WACC should reflect the risk and debt capacity of the cash flows that are being valued. The WACC that is used to value a target company should reflect the risk and debt capacity of the target. This means that the cost of capital for the acquiring company is irrelevant for valuing the cash flows of the target company. What matters to your shareholders is that they receive a return on the investment that compensates them for the risk of the investment being made. The cost of capital must always reflect the risk of the marginal investment, not the risk of the company’s existing assets. ©2010 Robert M. Dammon 57 Cost of Capital To illustrate, suppose Company A is considering an acquisition of Company T. Company A is in a low-risk business and has a WACC = 8%. Company T is in a high-risk business and has a WACC = 15%. Company A plans to finance the acquisition with cash that is currently invested in Treasury bills that earn an after-tax return of 2%. What is the most appropriate cost of capital to use to evaluate an investment in Company T? What rate of return would Company A’s shareholders be able to earn on a similar investment in the capital markets? If Company A acquires Company T, what will likely happen to Company A’s WACC? ©2010 Robert M. Dammon 58 Cost of Capital Risk-adjusted cost of capital Company T’s Cost of Capital Company A’s Cost of Capital Rate of return on T bills Risk Risk of Company A’s business ©2010 Robert M. Dammon Risk of Company T’s business 59 Cost of Equity The cost of equity is the rate of return (dividends plus capital appreciation) that investors expect to earn from holding the company’s equity. The cost of equity is typically estimated using some equilibrium asset pricing model such as the CAPM or multi-factor model. For example, the CAPM provides the following estimate of the cost of equity: RE ©2010 Robert M. Dammon R F [R M - R F ] E 60 Cost of Equity RF is the risk-free interest rate. Since equity is a long-term security, we typically use the YTM on the 30-year government bond as an estimate of Rf. [RM – RF] is the market risk premium. The MRP measures the expected difference between the rate of return on a well-diversified portfolio of stocks and the long-term government bond rate. Historically, in the U.S., stocks have outperformed long-term government bonds by about 6% per annum since 1928. In recent years, academics and practitioners have forecasted an equity risk premium closer to the 4% to 6% range. ©2010 Robert M. Dammon 61 Historical Returns and Risk Premia 1928-2009 Arithmetic Average Annual Returns and Risk Premia, 1928-2009 Stocks Treasury Bills Treasury Bonds Stocks Bills Stocks Bonds 1928-2009 11.27% 3.74% 5.24% 7.53% 6.03% 1960-2009 10.81% 5.33% 7.03% 5.48% 3.78% 2000-2009 1.15% 2.74% 6.62% -1.59% -5.47% ©2010 Robert M. Dammon 62 Levered Equity Betas E is the levered equity beta. It reflects two things: The systematic business risk of the company as measured by the asset (unlevered) beta, U The financial risk of the company as measured by the target debtto-equity ratio, D/E. Betas are not directly observable, but must be statistically estimated from historical returns. Typically, betas are estimated using historical monthly returns over the previous 5 year period. Estimates of beta can be found from a number of different sources (e.g., Value Line Investment Survey, Yahoo!Finance, Google, etc.). Industry betas tend to be more stable and, therefore, more reliable than company betas. ©2010 Robert M. Dammon 63 Asset Betas and Levered Equity Betas Miller and Modigliani argued that the total market value of the firm’s debt and equity securities must be equal to the value of the firm’s assets, including the interest tax shields on debt. VL = VU + VITS = D + E Taking this a step further, the risk of a portfolio of the firm’s debt and equity securities must be equal to the risk of the firm’s assets. U VU VL ©2010 Robert M. Dammon ITS VITS VL D D VL E E VL 64 Asset Betas and Levered Equity Betas The previous relationship can be rearranged to provide a general expression for the asset (unlevered) beta: U D D VU E E VU VITS VU ITS Rearranging the above formula provides a general expression for the levered equity beta: E ©2010 Robert M. Dammon U VU E ITS VITS E D D E 65 Special Cases The formulas on the previous page are not very practical without some additional assumptions that will allow us to pin down ITS and/or VITS. There are four cases in particular that we want to consider: 1. Modigliani-Miller (1958): No corporate taxes (tc = 0). 2. Modigliani-Miller (1963): Company maintains a constant dollar amount of debt, D, in its capital structure for the indefinite future. 3. Harris-Pringle (1985): Company continuously adjusts its capital structure to maintain a constant D/V ratio. 4. Miles-Ezzell (1980): Company adjusts its capital structure on an annual basis back to its target D/V ratio. The table on the next page summarizes the results. The derivations can be found in the appendix. ©2010 Robert M. Dammon 66 Asset Betas and Levered Equity Betas Under Different Capital Structure Policies. Theories Assumptions Implications Asset Beta Levered Equity Beta Modigliani -Miller (1958) No corporate taxes. VITS = 0 BU = BD(D/V) + BE(E/V) BE = BU + (BU –BD)(D/E) Modigliani -Miller (1963) Constant and perpetual debt level, D. VITS = tCD BITS = BD BU = BD(1-tc)(D/V) + BE(E/V) BE = BU + (BU –BD)(1tc)(D/E) HarrisPringle (1985) Continuous adjustment to maintain a constant D/V ratio. VITS > 0 BITS = BU BU = BD(D/V) + BE(E/V) BE = BU + (BU –BD)(D/E) MilesEzzell (1980) Annual adjustment back to the target D/V ratio. VITS > 0 BD < BITS < BU BU = BD(1-tcq)[D/(V-tCqD)] + BE[E/(V-tCqD)] BE = BU + (BU –BD)(1tcq)(D/E) 1. In all formulas, D and E represent the market values of debt and equity, respectively, and V = D+E is the value of the levered firm. 2. In the Miles-Ezzell (1980) formulas, q = RD/(1+RD). ©2010 Robert M. Dammon 67 Some Comments on Harris-Pringle (1985) Notice that the Harris-Pringle (1985) beta formulas are the same as those without corporate taxes! Without corporate taxes the value of the interest tax shields is zero, VITS = 0. When the firm continuously adjusts its capital structure to maintain a constant D/V ratio the risk of the interest tax shields is the same as the risk of the assets themselves, ITS = U (see appendix). Both sets of assumptions result in an asset beta, U, that is a weighted average of the debt beta, D, and equity beta, E. Both sets of assumptions will also produce the same unlevered cost of capital, RU, and the levered cost of equity, RE. However, because interest is tax deductible, the WACC will be lower in the presence of corporate taxes. ©2010 Robert M. Dammon 68 Which Model Should Be Used in Practice? It is preferable to use either the Miles-Ezzell (1980) or the HarrisPringle (1985) formulas for levering and unlevering betas: Although firms do not adjust their capital structures continuously, or even annually, they do tend to make adjustments over time toward a target debt ratio. The assumptions underlying the MM (1963) formulas are too restrictive and, therefore, are less appropriate for use in practice. Because the estimates provided by the Miles-Ezzell (1980) and Harris-Pringle (1985) formulas are very similar, it is much easier to use the Harris-Pringle (1985) formulas. ©2010 Robert M. Dammon 69 Illustration Let’s examine the procedure for estimating the WACC in our earlier example. Assume that the company in that example operates in the Household Products industry. The tables on the following several pages provide levered and unlevered betas for various industries. The average levered equity beta for firms in the Household Products industry is E = 1.15. The average industry D/V = 18.3%. The unlevered (asset) beta for the Household Products industry is U = 0.98 (assuming D = 0.2). ©2010 Robert M. Dammon 70 Industry Betas Industry Advertising Aerospace/Defense Air Transport Apparel Auto & Truck Auto Parts Bank Beverage Biotechnology Building Materials Cable TV Chemical (Basic) Chemical (Diversified) Chemical (Specialty) Coal Computer Software/Svcs Computers/Peripherals Diversified Co. Drug E-Commerce Educational Services Electric Util. (Central) Electric Utility (East) Electric Utility (West) Average Equity Beta 1.60 1.19 1.06 1.30 1.72 1.75 0.75 1.04 1.10 1.45 1.69 1.27 1.37 1.29 1.67 1.02 1.29 1.20 1.11 1.18 0.75 0.79 0.73 0.75 Market D/E 72.8% 22.9% 70.7% 23.6% 154.5% 51.2% 198.2% 16.9% 14.8% 83.8% 85.2% 20.4% 19.9% 29.0% 23.7% 5.6% 10.9% 138.8% 12.6% 8.7% 7.2% 102.9% 75.7% 90.0% Market D/V 42.1% 18.7% 41.4% 19.1% 60.7% 33.9% 66.5% 14.5% 12.9% 45.6% 46.0% 16.9% 16.6% 22.5% 19.1% 5.3% 9.9% 58.1% 11.2% 8.0% 6.7% 50.7% 43.1% 47.4% Unlevered Beta (Debt beta = 0) 0.93 0.97 0.62 1.05 0.68 1.16 0.25 0.89 0.96 0.79 0.91 1.06 1.14 1.00 1.35 0.97 1.16 0.50 0.99 1.09 0.70 0.39 0.42 0.39 Unlevered Beta (Debt beta = 0.2) 1.01 1.01 0.70 1.09 0.80 1.22 0.38 0.92 0.98 0.88 1.00 1.09 1.18 1.04 1.39 0.98 1.18 0.62 1.01 1.10 0.71 0.49 0.50 0.49 Note: The unlevered (asset) beta is calculated using the formula: BU = BE(E/V) + BD(D/V). Two cases are considered: (1) BD = 0 and (2) BD = 0.2. Equity betas and D/E ratios are taken from http://pages.stern.nyu.edu/~adamodar/ ©2010 Robert M. Dammon 71 Industry Betas Industry Electrical Equipment Electronics Entertainment Entertainment Tech Environmental Financial Svcs. (Div.) Food Processing Foreign Electronics Funeral Services Furn/Home Furnishings Healthcare Information Heavy Construction Homebuilding Hotel/Gaming Household Products Human Resources Industrial Services Information Services Insurance (Life) Insurance (Prop/Cas.) Internet Investment Co. Machinery Manuf. Housing/RV Average Equity Beta 1.41 1.16 1.81 1.32 0.97 1.39 0.86 1.13 1.19 1.52 0.97 1.42 1.45 1.74 1.15 1.38 1.07 1.28 1.38 0.92 1.04 0.76 1.32 1.21 Market D/E 16.9% 26.4% 56.8% 11.7% 49.4% 305.0% 29.3% 29.1% 56.5% 38.5% 13.6% 7.6% 102.3% 85.9% 22.4% 13.2% 34.0% 23.7% 36.8% 24.0% 2.3% 59.3% 46.8% 4.0% Market D/V 14.5% 20.9% 36.2% 10.5% 33.1% 75.3% 22.7% 22.6% 36.1% 27.8% 11.9% 7.0% 50.6% 46.2% 18.3% 11.6% 25.4% 19.1% 26.9% 19.4% 2.2% 37.2% 31.9% 3.8% Unlevered Beta (Debt beta = 0) 1.21 0.92 1.15 1.18 0.65 0.34 0.67 0.88 0.76 1.10 0.85 1.32 0.72 0.94 0.94 1.22 0.80 1.03 1.01 0.74 1.02 0.48 0.90 1.16 Unlevered Beta (Debt beta = 0.2) 1.23 0.96 1.23 1.20 0.72 0.49 0.71 0.92 0.83 1.15 0.88 1.33 0.82 1.03 0.98 1.24 0.85 1.07 1.06 0.78 1.02 0.55 0.96 1.17 Note: The unlevered (asset) beta is calculated using the formula: BU = BE(E/V) + BD(D/V). Two cases are considered: (1) BD = 0 and (2) BD = 0.2. Equity betas and D/E ratios are taken from http://pages.stern.nyu.edu/~adamodar/ ©2010 Robert M. Dammon 72 Industry Betas Industry Maritime Medical Services Medical Supplies Metal Fabricating Metals & Mining (Div.) Natural Gas (Div.) Natural Gas Utility Newspaper Office Equip/Supplies Oil/Gas Distribution Oilfield Svcs/Equip. Packaging & Container Paper/Forest Products Petroleum (Integrated) Petroleum (Producing) Pharmacy Services Power Precious Metals Precision Instrument Property Management Public/Private Equity Publishing R.E.I.T. Average Equity Beta 1.38 0.97 1.04 1.54 1.23 1.29 0.68 1.94 1.19 0.89 1.45 1.20 1.63 1.24 1.16 0.88 1.23 1.18 1.24 1.63 2.40 1.43 1.60 Market D/E 159.6% 43.1% 11.4% 18.8% 14.8% 47.8% 80.5% 55.7% 56.8% 61.5% 26.0% 61.3% 86.5% 14.4% 27.0% 20.1% 103.6% 8.5% 15.0% 191.9% 169.7% 70.3% 67.5% Market D/V 61.5% 30.1% 10.2% 15.8% 12.9% 32.4% 44.6% 35.8% 36.2% 38.1% 20.6% 38.0% 46.4% 12.6% 21.3% 16.7% 50.9% 7.8% 13.1% 65.7% 62.9% 41.3% 40.3% Unlevered Beta (Debt beta = 0) 0.53 0.68 0.93 1.30 1.07 0.87 0.38 1.25 0.76 0.55 1.15 0.74 0.87 1.08 0.91 0.73 0.60 1.09 1.08 0.56 0.89 0.84 0.96 Unlevered Beta (Debt beta = 0.2) 0.65 0.74 0.95 1.33 1.10 0.94 0.47 1.32 0.83 0.63 1.19 0.82 0.97 1.11 0.96 0.77 0.71 1.10 1.10 0.69 1.02 0.92 1.04 Note: The unlevered (asset) beta is calculated using the formula: BU = BE(E/V) + BD(D/V). Two cases are considered: (1) BD = 0 and (2) BD = 0.2. Equity betas and D/E ratios are taken from http://pages.stern.nyu.edu/~adamodar/ ©2010 Robert M. Dammon 73 Industry Betas Industry Railroad Recreation Reinsurance Restaurant Retail (Special Lines) Retail Automotive Retail Building Supply Retail Store Retail/Wholesale Food Securities Brokerage Semiconductor Semiconductor Equip Shoe Steel (General) Steel (Integrated) Telecom. Equipment Telecom. Services Thrift Tobacco Toiletries/Cosmetics Trucking Utility (Foreign) Water Utility Wireless Networking Average Equity Beta 1.29 1.43 1.07 1.34 1.43 1.46 0.95 1.35 0.73 1.18 1.56 1.93 1.34 1.61 1.85 1.15 1.10 0.73 0.78 1.23 1.30 1.07 0.82 1.50 Market D/E 33.0% 49.8% 17.7% 22.5% 16.1% 44.6% 19.1% 27.0% 26.2% 281.1% 8.1% 7.3% 3.6% 30.8% 39.3% 10.9% 47.0% 21.7% 22.9% 26.3% 85.3% 101.3% 88.0% 19.8% Market D/V 24.8% 33.2% 15.0% 18.4% 13.9% 30.8% 16.1% 21.2% 20.7% 73.8% 7.5% 6.8% 3.4% 23.6% 28.2% 9.8% 32.0% 17.9% 18.7% 20.8% 46.0% 50.3% 46.8% 16.5% Unlevered Beta (Debt beta = 0) 0.97 0.95 0.91 1.09 1.23 1.01 0.80 1.06 0.58 0.31 1.44 1.80 1.29 1.23 1.33 1.04 0.75 0.60 0.63 0.97 0.70 0.53 0.44 1.25 Unlevered Beta (Debt beta = 0.2) 1.02 1.02 0.94 1.13 1.26 1.07 0.83 1.11 0.62 0.46 1.46 1.81 1.30 1.28 1.38 1.06 0.81 0.64 0.67 1.02 0.79 0.63 0.53 1.28 Note: The unlevered (asset) beta is calculated using the formula: BU = BE(E/V) + BD(D/V). Two cases are considered: (1) BD = 0 and (2) BD = 0.2. Equity betas and D/E ratios are taken from http://pages.stern.nyu.edu/~adamodar/ ©2010 Robert M. Dammon 74 Illustration The company for which we want to estimate the WACC has the following capital structure policy: Target debt ratio of D/V = 25%. Cost of debt is 130 bps over long-term Treasuries. Tax rate of 35%. You have also collected the following capital market information: The long-term Treasury bond rate is Rf = 5.5%. The expected market risk premium is 5.0%. What is the cost of debt, the cost of equity, and the WACC for this company? ©2010 Robert M. Dammon 75 Illustration The cost of debt, RD, for the company is: RD Treasury Rate Credit Risk Premium 5.5% 1.3% 6.8% The debt beta can be calculated using the CAPM relationship: D ©2010 Robert M. Dammon RD - RF RM - RF 1.3% 0.26 5.0% 76 Illustration We can now use the asset beta for the industry, along with the debt beta and target debt ratio for the company, to estimate the levered equity beta for the company. E U [ U D - D] E 0.98 [0.98 - .26] ©2010 Robert M. Dammon .25 .75 1.22 77 Illustration The cost of equity capital can now be estimated using the CAPM: RE = 5.5% + (5.0%)(1.22) = 11.6% The company’s WACC is: D W R D (1 - t c ) V RE E V 6.8%(1- .35)(.25) 11.6%(.75) 9.8% ©2010 Robert M. Dammon 78 Illustration Cost of Capital Assumptions: Unlevered (Asset) Beta L.T. Govt. Bond Rate Market Risk Premium Cost of Debt Tax Rate Target D/V Ratio 0.98 5.5% 5.0% 6.8% 35.0% 25.0% Cost of Capital Calculations: Unlevered COC Debt Beta Levered Equity Beta Cost of Equity WACC 10.40% 0.26 1.22 11.60% 9.8% Note: The levered cost of equity is calculated using the Harris-Pringle (1985) formulas, which assume a constant D/V ratio. ©2010 Robert M. Dammon 79 Illustration The table below summarizes the beta and cost of capital calculations using the four different approaches discussed earlier. Theories Levered Equity Beta Cost of Equity WACC Modigliani-Miller (1958) 1.22 11.6% 10.4% Modigliani-Miller (1963) 1.14 11.2% 9.5% Harris-Pringle (1985) 1.22 11.6% 9.8% Miles-Ezzell (1980) 1.21 11.6% 9.8% Note: All calculations assume an unlevered (asset) beta of 0.98, a cost of debt of 6.8%, a debt beta of 0.26, a debt ratio of D/V = 0.25, and a tax rate of 35%. ©2010 Robert M. Dammon 80 APV Approach ©2010 Robert M. Dammon 81 The APV Approach In some cases (e.g., an LBO situation) the debt ratio is changing over time. This makes the WACC approach to valuation difficult to implement. In these cases, it is easier to rely on the Adjusted Present Value (APV) approach to valuation: V = VU + VITS where VU = unlevered value VITS = value of interest tax shields on debt ©2010 Robert M. Dammon 82 The APV Approach The unlevered value is calculated by discounting the future FCFs and unlevered residual value, RVU,T, at the unlevered cost of capital, RU: T VU t 1 FCFt (1 R U ) t RVU,T (1 R U ) T The unlevered cost of capital, RU, can be estimated using the CAPM: RU ©2010 Robert M. Dammon Rf [R m - R f ] U 83 Unlevered Residual Value The calculation of the unlevered residual value, RVU,T, is based upon the same Value Driver Formula that we used earlier in the WACC approach. The only difference in calculating the unlevered residual value is that we will use the unlevered cost of capital, RU, instead of the WACC. RVU,T NOPATT (1 G)(1- G/R) RU -G NOPATT (1 kR)(1 - k) R U - kR ©2010 Robert M. Dammon 84 Discounting Interest Tax Shields The appropriate discount rate for the interest tax shields should reflect the risk of the interest tax shields. The risk of the interest tax shields depends upon the firm’s capital structure policy: Theories Assumptions Implications Discount Rate for ITS Modified ModiglianiMiller (1963) Constant (or predetermined) future debt levels, D. ITS have the same risk as the debt, BD. Discount all future ITS at the pre-tax cost of debt, RD Harris-Pringle (1985) Continuous adjustment to maintain a constant D/V ratio. ITS have the same risk as the firm’s assets, BU. Discount all future ITS at the unlevered cost of capital, RU. Miles-Ezzell (1980) Annual adjustment back to the target D/V ratio. Risk of the ITS is a weighted average of BD and BU. Discount the ITS at date t by (1+RD)(1+RU)t-1 ©2010 Robert M. Dammon 85 Illustration: APV Approach Let’s use the APV approach to value operations, using the forecasts provided earlier in the WACC approach. The FCF forecasts and calculation of the unlevered value, VU, are shown on the following page. The FCFs used in the APV approach are the same as those used in the WACC approach. The unlevered beta is RU = 10.4%. U = 0.98 and the unlevered cost of capital is The company’s tax rate is tc = 35%. The long-run ROIC is assumed to be R = 15% and the long-run growth rate is assumed to be G = 4.5%. This produces a long-run plowback rate of k = 30%. ©2010 Robert M. Dammon 86 Unlevered COC 10.40% APV Approach 0 1 NOPAT 4 5 6 7 $146 $160 $173 $183 $193 $200 $0 $0 ------------- $40 ------------$170 ($12) ($112) ------------- $45 ------------$190 ($11) ($112) ------------- $49 ------------$209 ($10) ($108) ------------- $53 ------------$226 ($8) ($101) ------------- $56 ------------$240 ($7) ($99) ------------- $59 ------------$252 ($6) ($95) ------------- $62 ------------$262 ($7) ($115) ------------- $0 $46 $67 $91 $117 $134 $151 $140 $83 $2,482 $1,312 Free Cash Flows + Residual Value (unlevered)1 Present Value (unlevered COC) Unlevered Firm Value 3 $130 + Depreciation Operating Cash Flows - Additions to WC - Capital Expenditures 2 $0 $42 $55 $68 $79 $82 $1,721 Note: The FCFs in the APV approach are identical to those used in the WACC approach. ©2010 Robert M. Dammon 87 Illustration: APV Approach The unlevered residual value in the APV approach is calculated as follows: RVU NOPAT(1 G)(1- G/R) W -G $200(1.045)(1- (.045/.15)) .104 - .045 $2,482 ©2010 Robert M. Dammon 88 Illustration: Value of ITS The next step is to calculate the value of interest tax shields on debt. We will break this down into two parts: The value of ITS over the forecast period (years 1 – 7). The value of ITS beyond the forecast period (after year 7). We want to illustrate that the WACC approach and the APV approach provide the same valuation if used properly. Since the WACC approach assumes a constant D/V ratio, for consistency we will need to discount the future ITS at the unlevered cost of capital, RU. The interest rate on the debt is RD = 6.8% and the target debt ratio is D/V = 25%. The following page shows the calculations of the interest tax shields. ©2010 Robert M. Dammon 89 Illustration: Value of ITS Expected Levered Firm Value1 Interest rate on debt Discount factor for ITS 2 Interest payments Interest tax shields PV of ITS (years 1-7) PV of ITS (beyond year 7) 0 $1,924 1 $2,067 2 $2,203 3 $2,327 4 $2,438 5 $2,544 6 $2,642 7 $2,761 0.9058 $32.7 $11.5 $10.4 0.8205 $35.1 $12.3 $10.1 0.7432 $37.4 $13.1 $9.7 0.6732 $39.6 $13.8 $9.3 0.6098 $41.5 $14.5 $8.8 0.5523 $43.2 $15.1 $8.4 0.5003 $44.9 $15.7 $7.9 6.8% $65 $139 Beginning Debt Scheduled principal payments Add. principal payments (issuances)3 Ending Debt $350 $0 $481 $0 $517 $0 $551 $0 $582 $50 $610 $50 $636 $50 $660 $200 ($131) $481 ($36) $517 ($34) $551 ($31) $582 ($78) $610 ($76) $636 ($75) $660 ($230) $690 Debt / Value 25.0% 25.0% 25.0% 25.0% 25.0% 25.0% 25.0% 25.0% ©2010 Robert M. Dammon 90 Illustration: Value of ITS At the end of the forecast period (T=7), the value of the interest tax shields going forward is simply the difference in the levered and unlevered residual values: VITS,T RVL,T - RVU,T $2,761- $2,482 $279 Discounting this back to t = 0 using the unlevered cost of capital yields: PV ITS (beyond year 7) ©2010 Robert M. Dammon $279 (1.104)7 $139 91 Illustration: Value of ITS The ITS over the forecast period (years 1 – 7) are calculated using the following procedure: At the end of each year, use the WACC approach to calculate the levered firm value, VL,t . Calculate the amount of debt needed to maintain a constant debt ratio: Dt = VL,t(D/V). The interest tax shield at date t is: ITSt = RDtcDt-1. The present value of these interest tax shields is calculated by discounting at the unlevered cost of capital, RU. 7 PV ITS (years 1 - 7) t 1 ©2010 Robert M. Dammon ITS t (1 R U ) t $65 92 Illustration: APV Approach Unlevered Firm Value + PV ITS (forecast period) + PV ITS (perpetuity period) Value of Operations + Non-operating assets Enterprise Value - Existing debt Equity value 2 $1,721 $65 $139 ------------$1,924 $0 ------------$1,924 ($350) ------------$1,574 The value of operations and the value of equity are identical to those we derived earlier using the WACC approach. The APV approach is more difficult to use than the WACC approach when the firm maintains a constant debt ratio, but will be easier to use than the WACC approach when the debt ratio is changing over time (e.g., LBO situations). ©2010 Robert M. Dammon 93 Capital Cash Flow Approach ©2010 Robert M. Dammon 94 Capital Cash Flow Approach Capital Cash Flow (CCF) is the sum of the FCF and the ITS: CCF FCF ITS The Capital Cash Flow approach to valuation discounts the future CCFs at the unlevered cost of capital, RU. T VL t 1 ©2010 Robert M. Dammon CCFt (1 R U ) t RVT (1 R U ) T 95 CCF Residual Value The CCF residual value, RVT, can be calculated using the perpetuity formula used earlier in either the WACC or the APV approach. The only differences are that the residual value will rely on CCFT and the unlevered cost of capital, RU. RVT CCFT (1 G) RU -G FCFT (1 G) RU - G NOPATT (1 G)(1- G/R) RU - G ©2010 Robert M. Dammon ITS T (1 G) RU - G ITS T (1 G) RU - G 96 Capital Cash Flow Approach The CCF residual value is composed of the unlevered residual value, RVU,T, plus the residual value of ITS, VITS,T. The CCF residual value is identical to the residual value calculated under the WACC approach. Since the CCF approach discounts ITS at the unlevered cost of capital, it is technically correct only when the firm maintains a constant debt ratio. The CCF approach does not alleviate the need to estimate the future debt levels and the associated interest tax shields in the calculation of the CCF. Therefore, it is still easier to use the WACC approach when the firm maintains a constant debt ratio. If the debt ratio is expected to vary over time, the CCF approach is not valid and you are better off using the APV approach. ©2010 Robert M. Dammon 97 Unlevered COC 10.40% Capital Cash Flow Approach 0 NOPAT + Depreciation2 Operating Cash Flows - Additions to WC3 - Capital Expenditures2 Free Cash Flows Interest tax shields Capital Cash Flows1 1 2 3 4 5 6 7 $130 $146 $160 $173 $183 $193 $200 $40 $45 $49 $53 $56 $59 $62 ------------- ------------- ------------- ------------- ------------- ------------- ------------$170 $190 $209 $226 $240 $252 $262 $0 ($12) ($11) ($10) ($8) ($7) ($6) ($7) $0 ($112) ($112) ($108) ($101) ($99) ($95) ($115) -------------------------- ------------- ------------- ------------- ------------- ------------- ------------$0 $46 $67 $91 $117 $134 $151 $140 $0 $11 $12 $13 $14 $15 $15 $16 ------------- ------------- ------------- ------------- ------------- ------------- ------------- ------------$0 $57 $79 $104 $131 $148 $166 $156 2 + Residual Value (levered) Present Value (unlevered COC)$0 Value of Operations + Non-operating assets Enterprise Value - Existing Debt 3 Equity value $52 $65 $77 $88 $91 $92 $2,761 $1,459 $1,924 $0 (e.g., excess cash, marketable securities, unconsolidated subsidiaries) ------------$1,924 ($350) (e.g. short-term borrowing, long-term debt, and other interest-bearing liabilities) ------------$1,574 (includes the value of preferred stock and any employee stock options) ©2010 Robert M. Dammon 98 Equity Cash Flow Approach ©2010 Robert M. Dammon 99 The Equity Cash Flow Approach In some cases, it can be easier to calculate the value of the company’s equity directly by discounting the cash flows to equity (CFE) by the levered cost of equity, RE. T VE t 1 CFE t (1 R E ) t RVE T (1 R E ) T where RVET is the residual value of equity at date T. The cash flow to equity approach is commonly used in valuing banks and other financial institutions, where interest expense is treated as an operating cost and not a financial cost. ©2010 Robert M. Dammon 100 Equity Cash Flows The Cash Flows to Equity (CFE) can be calculated in the following ways: CFE = FCF – A.T. Interest – Net Principal Payments CFE = NI – NNI – Net Principal Payments CFE = NI – Net New Equity CFE = Dividends + Net Share Repurchases ©2010 Robert M. Dammon 101 Equity Cash Flows The definitions of CFE involve the following: Net Principal Payments = Principal Payments – New Debt Issuance NI = Net Income NNI = Net New Investment Net New Equity = Retained Earnings + New Equity Issuances Retained Earnings = NI – Dividends – Share Repurchases Net Share Repurchases = Share Repurchases – New Equity Issuances Because CFE is net of after-tax interest payments, the benefits of interest tax shields are included in CFE. Because the CFE are cash flows to equity holders, we must discount them at the levered cost of equity, RE. ©2010 Robert M. Dammon 102 Residual Value of Equity The residual value of equity, RVET, can be calculated using a perpetuity formula similar to those used previously. RVE T CFE T (1 G) RE - G [NI T - NNE T ](1 G) RE - G where NI = Net Income and NNE = Net New Equity. Next, define the constant equity plowback rate, kE, as follows: kE ©2010 Robert M. Dammon NNE NI 103 Residual Value of Equity This allows us to write the residual value of equity as follows: RVE T NI T (1- k E )(1 G) RE - G The long-run growth rate, G, can now be calculated as follows: G NI NI NI NNE x NNE NI ROE x k E where ROE is the marginal Return on Equity (book value) and kE is the equity plowback rate. ©2010 Robert M. Dammon 104 Residual Value of Equity Substituting the definition for long-run growth, G, into the formula for the residual value of equity yields: G (1 G) ROE RE - G NI T 1 RVE T RVE T ©2010 Robert M. Dammon NI T (1 - k E )(1 (k E x ROE)) RE - G 105 Cost of Equity 11.60% 0 NOPAT + Depreciation2 Operating Cash Flows - Additions to WC - Capital Expenditures Free Cash Flows - After-Tax Interest Expense + Debt Issuance (repayments)2 Equity Cash Flows + Residual Value of Equity1 Present Value (cost of equity)3 PV of Equity CF + Non-operating assets Equity Value4 $0 $0 ------------$0 $131 ------------$131 $131 Cash Flow to Equity Approach 1 $130 $40 ------------$170 ($12) ($112) ------------$46 ($21) $36 ------------$60 $54 2 $146 $45 ------------$190 ($11) ($112) ------------$67 ($23) $34 ------------$78 $63 3 $160 $49 ------------$209 ($10) ($108) ------------$91 ($24) $31 ------------$98 $71 4 $173 $53 ------------$226 ($8) ($101) ------------$117 ($26) $28 ------------$119 $77 5 $183 $56 ------------$240 ($7) ($99) ------------$134 ($27) $26 ------------$133 $77 6 $193 $59 ------------$252 ($6) ($95) ------------$151 ($28) $25 ------------$148 7 $200 $62 ------------$262 ($7) ($115) ------------$140 ($29) $30 ------------$141 $76 $2,071 $1,026 $1,574 $0 (e.g. short-term borrowing, long-term debt, and other interest-bearing liabilities) ------------$1,574 (includes the value of preferred stock and any employee stock options) ©2010 Robert M. Dammon 106 CFE Residual Value The residual value in the Cash Flow to Equity approach can be calculated as follows: RVE T CFE T (1 G) RE - G $141(1.045) $2,071 .116 .045 This residual value is also equal to the following formulation: RVE T ©2010 Robert M. Dammon NI T (1 G)(1- G/ROE) RE - G $2,071 107 CFE Residual Value Net income in year T is equal to NOPAT less after-tax interest expense. That is, NI T NOPATT - R D D T -1 (1 - t C ) $200 - .068($660.5)(1- .35) $170.8 Substituting the appropriate values into the residual value formula gives us: RVE T $170.8(1.045)(1- .045/ROE) .116 - .045 ©2010 Robert M. Dammon $2,071 108 CFE Residual Value Solving this equation for ROE gives us the long-run ROE of 25.5%. This implies the following reinvestment (plowback) rate for equity: kE = G/ROE = .045/.255 = 17.6% or a payout ratio (dividends plus repurchases) equal to 82.4% of net income. The reason that kE < k is because the market value of equity is greater than the book value of equity when the firm is investing in positive NPV projects (ROIC > WACC). ©2010 Robert M. Dammon 109 Multiples Valuation ©2010 Robert M. Dammon 110 Multiples Valuation The multiples valuation approach is popular among investment bankers and practitioners because of its relative simplicity. The multiples valuation approach uses a set of valuation multiples for comparable companies to provide an estimate of value for the acquisition target. There are two basic types of multiples that are commonly used: Trading multiples – Multiples based upon the traded market prices of the comparable companies. Transaction multiples – Multiples based upon the transaction prices paid in recently completed acquisitions. ©2010 Robert M. Dammon 111 Types of Multiples Enterprise value1 divided by: Market value of equity divided by: Revenues Earnings before taxes EBITDA Net income EBIT Net cash flow Operating CF Book value of equity Book value of assets 1. Enterprise value = Market value of equity + Total debt. Enterprise value may need to be adjusted to account for any non-operating (financial) assets that are held. ©2010 Robert M. Dammon 112 Steps in Multiples Valuation Select a set of comparable companies Select a set of comparable companies with similar business characteristics to the firm you are attempting to value. Determine the relevant business characteristics in advance of your search for comparables to avoid selection bias. Compute the multiples for the comparable companies. Select the set of multiples that provide the most reliable estimates of value for the industry. Adjust the operating metrics for differences in accounting methods, unusual items, and non-operating assets. Compute the multiples for each of the comparable firms. Calculate the mean, median, minimum, and maximum for each multiple. ©2010 Robert M. Dammon 113 Steps in Multiples Valuation Apply the multiples for the comparables to value the target company. Adjust the operating metrics for the target company for any differences in accounting methods. Multiply the multiples for the comparable companies by the target company’s operating metrics to estimate the value of the target company. Adjust the estimate of enterprise value (or equity value) for excess cash, marketable securities, or other non-operating assets or liabilities of the target company. The multiples will typically provide a range of values for the target. Judgment may be needed to determine a final estimate of value. ©2010 Robert M. Dammon 114 Common Adjustments to Operating Metrics To ensure comparability, the operating metrics for the comparable companies may need to be adjusted for the following: Inventory accounting (LIFO vs. FIFO) Extraordinary items (e.g., litigation settlements) Non-recurring items (e.g., sale of assets, discontinued operations) Non-operating assets (e.g., excess cash, marketable securities) NOL carryforwards or other special tax items Lease payments (e.g., operating and capital leases) ©2010 Robert M. Dammon 115 Basic Financial Information Target Company A Company B Company C Company D Income statements: Sales revenues - Cost of goods - Depreciatiion - SG&A + Non-recurring income Operating income + Interest income - Interest expense Taxable income - Taxes Net income 14,000 (9,520) (700) (1,680) (500) 1,600 250 (444) 1,406 (492) 914 10,000 (7,000) (500) (1,500) 0 1,000 0 (150) 850 (298) 553 20,000 (13,600) (800) (2,400) (200) 3,000 150 (325) 2,825 (989) 1,836 15,000 (10,350) (675) (1,950) 400 2,425 25 (210) 2,240 (784) 1,456 18,000 (12,600) (990) (2,520) 250 2,140 50 (576) 1,614 (565) 1,049 Balance sheet: Working capital Net PP&E Goodwill Investments Total Net Assets 2,100 7,000 900 5,000 15,000 1,000 5,000 0 0 6,000 3,000 8,000 0 3,000 14,000 1,800 6,750 450 500 9,500 3,240 9,900 1,860 1,000 16,000 Total debt Shareholders' equity Total capital 6,000 9,000 15,000 2,000 4,000 6,000 5,000 9,000 14,000 3,000 6,500 9,500 8,000 8,000 16,000 ©2010 Robert M. Dammon 116 Adjustments to Basic Financial Information The non-recurring income (expenses) must be removed from the income statement to provide comparable data. Sales revenues Adjusted OI Adjusted EBITDA Adjusted NI Total capital - Investments Invested capital - Goodwill Tangible IC ROIC Target 14,000 2,100 2,800 1,239 Company A 10,000 1,000 1,500 553 Company B 20,000 3,200 4,000 1,966 Company C 15,000 2,025 2,700 1,196 Company D 18,000 1,890 2,880 887 15,000 (5,000) 10,000 (900) 9,100 6,000 0 6,000 0 6,000 14,000 (3,000) 11,000 0 11,000 9,500 (500) 9,000 (450) 8,550 16,000 (1,000) 15,000 (1,860) 13,140 13.7% 10.8% 18.9% 14.6% 8.2% 1. OI and EBITDA are adjusted by the pre-tax non-recurring income (expenses). NI is adjusted by the after-tax non-recurring income (expenses). 2. ROIC is equal to the after-tax operating income (NOPAT) divided by the amount of invested capital. ©2010 Robert M. Dammon 117 Valuation Multiples for the Comparable Companies Company A Market Valuations: Market capitalization Total debt Enterprise value - Non-operating assets Value of operations 10,000 2,000 12,000 0 12,000 Company B 35,000 5,000 40,000 (3,000) 37,000 Company C 22,000 3,000 25,000 (500) 24,500 Company D 20,000 8,000 28,000 (1,000) 27,000 Company A Company B Company C Company D 2.0 2.9 2.6 1.8 Value of Ops/IC Value of Ops/Tangible IC Value of Ops/Revenues Value of Ops/OI Value of Ops/EBITDA 2.0 2.0 1.2 12.0 8.0 3.4 3.4 1.9 11.6 9.3 2.7 2.9 1.6 12.1 9.1 1.8 2.1 1.5 14.3 9.4 Market Cap/NI Market Cap/BV of Equity 18.1 2.5 17.8 3.9 18.4 3.4 22.6 2.5 Valuation Multiples: EV/TC ©2010 Robert M. Dammon 118 Estimate of Enterprise Value of the Target Company Valuation Multiples: EV/TC Min Mean 1.8 2.3 Median 2.3 Max Value of Ops/IC Value of Ops/Tangible IC Value of Ops/Revenues Value of Ops/OI Value of Ops/EBITDA 1.8 2.0 1.2 11.6 8.0 2.5 2.6 1.5 12.5 8.9 2.4 2.5 1.6 12.0 9.2 3.4 3.4 1.9 14.3 9.4 Market Cap/NI Market Cap/BV of Equity 17.8 2.5 19.2 3.1 18.2 2.9 22.6 3.9 Estimates of Enterprise Value for the Target Company Valuation Multiple Inputs Min EV/TC 15,000 26,250 Mean 34,645 Median 34,737 Max 42,857 2.9 Value of Ops/IC Value of Ops/Tangible IC Value of Ops/Revenues Value of Ops/OI Value of Ops/EBITDA 10,000 9,100 14000 2,100 2,800 23,000 23,200 21,800 29,281 27,400 29,715 28,396 26,642 31,222 29,989 28,611 27,387 26,933 30,304 30,654 38,636 35,609 30,900 35,000 31,250 Market Cap/NI Market Cap/BV of Equity 1,239 9,000 28,053 28,500 29,803 33,615 28,606 32,481 33,947 41,000 25,936 26,825 30,503 29,896 29,964 29,457 36,150 35,305 Average Median ©2010 Robert M. Dammon 119 Calculations The values in the previous table are estimates of Enterprise Value (EV) for the target company. To illustrate how these values are derived, we will do the explicit calculations using the medians for three different multiples. EV/TC Value of Ops/EBITDA Market Cap/BV of Equity The other values in the table are calculated similarly. The value of the target company’s equity can be determined simply by subtracting the target company’s total debt from the enterprise values shown in the previous table. ©2010 Robert M. Dammon 120 Calculations Calculations of EV and Equity Value for the Target Target Total Capital x Median EV/TC Target EV - Target Total Debt Target Equity Value 15,000 2.3 34,737 (6,000) 28,737 Target EBITDA x Median Value of Ops/EBITDA Target Value of Ops + Target Non-Operating Assets Target EV - Target Total Debt Target Equity Value 2,800 9.2 25,654 5,000 30,654 (6,000) 24,654 Target BV of Equity x Median Market Cap/BV of Equity Target Value of Equity + Target Total Debt Target EV 9,000 2.9 26,481 6,000 32,481 ©2010 Robert M. Dammon 121 Multiples Valuation The advantage of the multiples approach is that it is simple and intuitive. The methodology follows from the Efficient Markets Hypothesis (EMH): Comparable assets should sell at comparable prices. There are some problems (difficulties) in using the multiples approach: It can be difficult to identify truly comparable companies. Even if a comparable set of companies can be found, it is not always obvious which multiple should be used in the valuation. Different multiples can provide widely different valuations, even for similar firms in the same industry. ©2010 Robert M. Dammon 122 Multiples Valuation Listed below are some things to be cautious of when using the multiples approach: Investors value cash flows, not accounting earnings. Multiples are applied to short-term accounting metrics, whereas market valuations reflect the company’s long-run prospects. Firms may have different risk characteristics that affect their valuations. Firms may have different capital structures that affect their valuations. Firms may have different growth opportunities that affect their valuations. ©2010 Robert M. Dammon 123 Premiums Paid Analysis ©2010 Robert M. Dammon 124 Premiums Paid Analysis Investment bankers will also use a premiums paid analysis to analyze the fairness of a takeover bid. The premium (above the pre-announcement market price) being offered is compared to the premiums paid in the most recently completed transactions to determine “fairness”. The premiums paid analysis is intended to provide a measure of the control premium that should be expected from an acquisition. Premiums differ across hot and cold takeover markets. Premiums differ across industries. ©2010 Robert M. Dammon 125 Premiums Paid Analysis Although the premiums paid analysis can be useful, there are a number of potential pitfalls: Premiums should reflect the value of the synergies that can be created, or the inefficiencies that can be eliminated. Pre-announcement market prices may already be bid up by investors if a takeover is anticipated. The premiums paid in completed transactions may be biased upward: The most valuable acquisitions should be expected to take place first. “Winners curse” problem. Kaplan and Ruback have found that a combination of the multiples approach and DCF approach works best for predicting the premium paid in an acquisition. ©2010 Robert M. Dammon 126 References 1. Valuation: Measuring and Managing the Value of Companies, T. Koller, M. Goedhart, and D. Wessels, Wiley, Fourth Edition. 2. “Are You Paying Too Much for That Acquisition?”, R. Eccles, K. Lanes, and T. Wilson, Harvard Business Review, July-August 1999. 3. “Ten Ways to Create Shareholder Value,” A. Rappaport, Harvard Business Review, September 2006. 4. “Corporate Valuation and Market Multiples,” T. Luehrman, Harvard Business School, Case No. 9-206-039. 5. “The Right Role for Multiples in Valuation,” McKinsey Quarterly, Spring 2005. ©2010 Robert M. Dammon 127 Appendix: Derivations of the Asset Beta and Levered Equity Beta ©2010 Robert M. Dammon 128 Asset Betas and Levered Equity Betas The general expression for the asset (unlevered) beta is: U D VU D E E VU ITS VITS VU Rearranging the above formula provides a general expression for the levered equity beta: E ©2010 Robert M. Dammon U VU E ITS VITS E D D E 129 Case 1: No Corporate Taxes Modigliani-Miller (1958). Without corporate taxes VITS = 0 and VU = VL. Substituting these into the general beta formulas yields the following: Asset beta: Equity beta: ©2010 Robert M. Dammon U E D U D VL [ E U - D] E VL D E 130 Case 2: Constant and Perpetual Debt Level Modigliani-Miller (1963). When the amount of debt, D, is constant and perpetual VITS = tcD and VL = VU + tcD Substituting these into the general beta formulas yields the following: Asset beta: Equity beta: U E ©2010 Robert M. Dammon D D (1 - t C ) VL U [ U - E D ](1 - t C ) E VL D E 131 Case 3: Continuous Adjustment to Maintain a Constant D/V Ratio Harris-Pringle (1985). When the company continuously adjusts its capital structure to maintain a constant D/V ratio: The company’s future debt levels and associated interest tax shields will vary in direct proportion to any changes in the value of the firm’s assets. This means that the risk of the future interest tax shields is the same as the risk of the firm’s assets. That is, ITS = U. Substituting VL = VU + VITS and formulas yields the following: Asset beta: ©2010 Robert M. Dammon U D D VL ITS = U E into the general beta E VL 132 Case 3: Continuous Adjustment to Maintain a Constant D/V Ratio Equity beta: E U [ U - D] D E Notice that the formulas for the asset beta and the levered equity beta in this case are the same as those without corporate taxes! Without corporate taxes, there is no tax adjustment needed since VITS = 0. With corporate taxes, but with continuous adjustment in the company’s debt levels to maintain a constant D/V ratio, VITS > 0 but ITS = U. Both cases result is the same set of formulas for the asset beta and levered equity beta. ©2010 Robert M. Dammon 133 Case 4: Adjustment Back to the Target D/V Ratio on an Annual Basis Miles-Ezzell (1980). When the company adjusts its capital structure annually (as opposed to continuously) back to its target debt ratio, then The level of debt, D, and the associated interest tax shields, tCRDD, are fixed over the first year. Because the debt level is fixed over the first year, the risk of the interest tax shields in the first year is the same as the debt itself. That is, ITS = D. The level of debt and the associated interest tax shields beyond the first year will vary in direct proportion to the value of the firm’s assets. Therefore, beyond the first year, ITS = U. ©2010 Robert M. Dammon 134 Case 4: Adjustment Back to the Target D/V Ratio on an Annual Basis The value of the interest tax shields, VITS, can be written as follows: VITS t CR DD 1 RD t CR DD VITS 1 RD The first term is the value of the interest tax shield in the first year. Notice that the interest tax shield, tCRDD, is discounted at the cost of debt, RD. The second term is simply the present value of the interest tax shields beyond the first year. ©2010 Robert M. Dammon 135 Case 4: Adjustment Back to the Target D/V Ratio on an Annual Basis Using the previous expression, it should also be the case that the risk of the left-hand side is equal to the risk of the right-hand side. The beta for the first term on the right-hand side is D. The beta for the second term on the right-hand side is U. This produces a beta for the interest tax shields, ITS, that is a weighted average of D and U (where q = RD/(1+RD)): IT S ©2010 Robert M. Dammon D t Cq D VIT S U 1 - t Cq D VIT S 136 Case 4: Adjustment Back to the Target D/V Ratio on an Annual Basis If we now substitute the above formula for ITS into the general formulas for the asset beta and the levered equity beta we get: Asset beta: Equity beta: ©2010 Robert M. Dammon U E D D (1 - t C q) VL U [ U - E D ](1 - t C q) E VL D E 137