Equity Valuation

Equity Valuation Notes

13.1 Valuation by Comparables

  • Valuation Models Using Comparables

    • Involves assessing a firm's value by comparing it to similar firms.

    • This comparative analysis looks at the relationship between price and various determinants of value for those firms.

    • The internet facilitates easy access to firm data, with resources including:

    • EDGAR

    • Finance.yahoo.com

13.2 Intrinsic Value versus Market Price

  • Definitions:

    • Expected Dividend per Share (E(D1)): Represents the anticipated dividends an investor expects to receive at the end of the period.

    • Current Share Price (P): The price at which a share currently trades on the market.

    • Expected End-of-Year Price (P1): The price expected to be realized at the end of the year.

  • Capital Asset Pricing Model (CAPM)

    • Provides the required return on investment.

    • Condition for Proper Pricing: If the stock is priced correctly, the required return should equal the expected return.

  • Intrinsic Value:

    • Calculated as the present value of the firm’s expected future net cash flows, discounted at the required rate of return (RoR).

  • Market Capitalization Rate:

    • Represents the market consensus estimate of the appropriate discount rate for the firm’s cash flows.

  • Intrinsic Value Formula:

    V<em>o=E(D</em>1)+E(P1)1+kV<em>o = \frac{E(D</em>1) + E(P_1)}{1 + k}

    • For a holding period H:

    V<em>o=D</em>1(1+k)+D<em>2(1+k)2++D</em>H+PH(1+k)HV<em>o = \frac{D</em>1}{(1+k)} + \frac{D<em>2}{(1+k)^{2}} + … + \frac{D</em>H + P_H}{(1+k)^{H}}

  • Dividend Discount Model (DDM):

    • The formula for intrinsic value of a firm is equivalent to the present value of all expected future dividends.

13.3 Dividend Discount Models

  • No Growth Case:

    • Stocks that have earnings and dividends expected to remain constant.

    • Preferred Stock Value:

    V=DkV = \frac{D}{k}

  • No Growth Model Example:

    • Given:

    • E1 = D1 = $5.00

    • k = 0.15

    • Calculated:

    V_0 = \frac{5.00}{0.15} = $33.33

  • Constant-Growth DDM:

    • This model assumes dividends will grow at a constant rate.

    • Value of Stock Formula:

    V<em>0=D</em>1kgV<em>0 = \frac{D</em>1}{k - g}

    • Implications for stock values:

    • Larger dividend per share increases value.

    • Lower market capitalization rate (k) increases value.

    • Higher expected growth rate of dividends increases value.

  • Example of Constant Growth Model:

    • Given:

    • k = 15%

    • D1 = $3.00

    • g = 8%

    • Calculated:

    V_0 = \frac{3.00}{(0.15 - 0.08)} = $42.86

  • Holding Period Return:

    • For a stock priced equal to its intrinsic value, the expected holding period return is given by:

    E(r)=D<em>1P</em>0+gE(r) = \frac{D<em>1}{P</em>0} + g

  • Growth Rate Calculation:

    • Growth rate (g) determined by the formula:

    g=ROE×bg = ROE \times b

    • Where:

    • ROE = Return on Equity for the firm.

    • b = Plowback or retention percentage rate (1 - Dividend Payout Ratio).

  • Growth Scenario Implications:

    • If a stock price equals its intrinsic value and the growth rate is sustained, the stock should maintain its price.

    • If all earnings are paid out as dividends, the price should be lower assuming growth opportunities exist.

  • Price Calculation with Growth Opportunities:

    • The formula is given by:

    P=No-growth value per share+PVGOP = \text{No-growth value per share} + \text{PVGO}

    • Where PVGO = Present Value of Growth Opportunities.

  • Partitioning Value Example:

    • Given:

    • ROE = 20%

    • d = 60%

    • b = 40%

    • E1 = $5.00

    • D1 = $3.00

    • k = 15%

    • g = 0.20 * 0.40 = 0.08 or 8%

  • Calculating Different Components:

    • Price with growth (Po) and no growth components calculated using respective formulas.

13.4 Price-Earnings Ratios

  • P/E Ratios:

    • Dependent on:

    • Required Rates of Return (k)

    • Expected growth in Dividends

    • Applications include:

    • Relative valuation techniques

    • Extensively used in various industries

  • Calculation of P/E ratio:

    P/E=E1kP/E = \frac{E_1}{k}

    • Where:

    • E1 = Expected earnings for next year.

    • Under no growth, E1 is equal to D1.

  • P/E Ratio with Constant Growth:

    • Calculated as:

    P/E=(1b)(kg)P/E = \frac{(1 - b)}{(k - g)}

    • Where:

    • b = retention ratio

    • ROE = Return on Equity

  • Numerical Example for No Growth:

    • Given:

    • E0 = $2.50

    • g = 0

    • k = 12.5%

    • Calculated:

    P_0 = \frac{D}{k} = \frac{2.50}{0.125} = $20.00

    • P/E Ratio = $\frac{1}{0.125} = 8$

  • Numerical Example for With Growth:

    • Given:

    • b = 60%

    • ROE = 15%

    • (1 - b) = 40%

    • E1 = $2.50(1 + (0.6*0.15)) = $2.73

    • D1 = $2.73(1 - 0.6) = $1.09

    • k = 12.5%

    • g = 9%

    • Calculated:

    P_0 = \frac{1.09}{(0.125 - 0.09)} = $31.14

  • Risks Projections in P/E Ratios:

    • Riskier stocks exhibit lower P/E multiples due to higher required rates of return (high k values).

13.5 Free Cash Flow Valuation Approaches

  • Free Cash Flow for Firm (FCFF):

    • Defined as:

    FCFF=EBIT(1tc)+DepreciationCapital ExpendituresIncrease in NWCFCFF = EBIT(1 - t_c) + \text{Depreciation} - \text{Capital Expenditures} - \text{Increase in NWC}

    • Where:

    • EBIT = Earnings Before Interest and Taxes

    • t_c = Corporate tax rate

    • NWC = Net Working Capital

  • Free Cash Flow to Equity Holders (FCFE):

    • Defined as:

    FCFE=FCFFInterest Expense×(1tc)+Increases in Net DebtFCFE = FCFF - \text{Interest Expense} \times (1 - t_c) + \text{Increases in Net Debt}

  • Estimating Terminal Value Using Constant Growth Model:

    • Firm value given by:

    PV=<em>t=1TFCFF</em>t(1+WACC)t+FCFFT+1(WACCg)PV = \sum<em>{t=1}^{T} \frac{FCFF</em>t}{(1 + WACC)^t} + \frac{FCFF_{T + 1}}{(WACC - g)}

    • Where:

    • WACC = Weighted Average Cost of Capital

  • Market Value of Equity:

    • Determined as:

    MV=<em>t=1TFCFE</em>t(1+k<em>E)t+FCFE</em>T+1(kEg)MV = \sum<em>{t=1}^{T} \frac{FCFE</em>t}{(1 + k<em>E)^t} + \frac{FCFE</em>{T + 1}}{(k_E - g)}

    • Where:

    • k_E = Required Rate of Return for Equity Holders