Valuation Methods
Chapter: 2.6 Valuation Methods Level: 1 — Recognition (MCQ, Matching, True/False with Justification) Time Limit: 20 minutes Total Marks: 30
Section A — Multiple Choice (1 mark each)
Q1. The intrinsic value of a stock is best described as:
- A) Its current trading price on the exchange
- B) The value based on fundamentals and expected cash flows
- C) The 52-week high price
- D) The book value on the balance sheet
Q2. In a Discounted Cash Flow (DCF) model, future cash flows are:
- A) Compounded forward to a future value
- B) Discounted back to present value
- C) Added together without adjustment
- D) Multiplied by the P/E ratio
Q3. WACC stands for:
- A) Weighted Average Cost of Capital
- B) Working Asset Capital Cost
- C) Weighted Annual Cash Cost
- D) Whole Average Company Cost
Q4. The Gordon Growth (constant-growth DDM) formula for value is:
- A)
- B)
- C)
- D)
Q5. Terminal value in a DCF represents:
- A) The value of cash flows during the explicit forecast period only
- B) The value of all cash flows beyond the explicit forecast period
- C) The initial investment amount
- D) The company's total debt
Q6. Relative valuation typically uses:
- A) Discounted future free cash flows
- B) Multiples such as P/E, EV/EBITDA compared to peers
- C) The dividend discount model exclusively
- D) Reverse DCF assumptions
Q7. The margin of safety is:
- A) The gap between market price and intrinsic value that protects against error
- B) The company's cash reserves
- C) The dividend yield
- D) The difference between revenue and costs
Q8. A reverse DCF is used to:
- A) Compute intrinsic value from scratch
- B) Infer the growth assumptions implied by the current market price
- C) Discount dividends only
- D) Calculate WACC
Q9. Sum-of-the-parts (SOTP) valuation is most appropriate for:
- A) A single-product startup
- B) A diversified conglomerate with distinct business segments
- C) A company with no revenue
- D) A pure dividend-paying utility
Q10. In the cost of equity via CAPM, a higher beta implies:
- A) A lower required return
- B) A higher required return
- C) No change in required return
- D) A guaranteed dividend
Section B — Matching (1 mark each, Q11–Q16)
Match each term (Q11–Q16) to its correct description (I–VI).
| Term | Description |
|---|---|
| Q11. Scenario analysis | I. Discount rate blending cost of debt and equity |
| Q12. WACC | II. Testing valuation under bull/base/bear cases |
| Q13. Terminal growth rate | III. Value derived from expected future dividends |
| Q14. DDM | IV. Long-run perpetual growth, usually near GDP/inflation |
| Q15. Sensitivity analysis | V. Buying below intrinsic value for protection |
| Q16. Margin of safety | VI. Changing one input to see impact on value |
Section C — True/False WITH Justification (2 marks each: 1 mark T/F, 1 mark reason)
Q17. "Market price and intrinsic value are always equal." — True or False? Justify.
Q18. "In the Gordon Growth Model, the growth rate must be less than the discount rate for a finite value." — True or False? Justify.
Q19. "A lower discount rate (WACC) results in a lower DCF valuation, all else equal." — True or False? Justify.
Q20. "A larger margin of safety generally reduces investment risk." — True or False? Justify.
Answer keyMark scheme & solutions
Section A (1 mark each)
Q1 — B. Intrinsic value is fundamentals-based (expected cash flows), independent of the quoted market price. (1)
Q2 — B. DCF discounts future cash flows back to present value using a discount rate — the core of time value of money. (1)
Q3 — A. WACC = Weighted Average Cost of Capital, blending debt and equity costs by their capital weights. (1)
Q4 — B. is the constant-growth DDM/Gordon Growth formula. (1)
Q5 — B. Terminal value captures all cash flows beyond the explicit forecast horizon (perpetuity or exit multiple). (1)
Q6 — B. Relative valuation compares multiples (P/E, EV/EBITDA) against peers. (1)
Q7 — A. Margin of safety = buffer between price paid and intrinsic value, protecting against estimation error. (1)
Q8 — B. Reverse DCF back-solves the growth/assumptions the current price implies. (1)
Q9 — B. SOTP values each segment separately and sums them — ideal for diversified conglomerates. (1)
Q10 — B. CAPM: ; higher → higher required return. (1)
Section B — Matching (1 mark each)
- Q11 → II (scenario analysis = bull/base/bear cases)
- Q12 → I (WACC = blended discount rate)
- Q13 → IV (terminal growth ≈ long-run GDP/inflation)
- Q14 → III (DDM = value from dividends)
- Q15 → VI (sensitivity = change one input)
- Q16 → V (margin of safety = buy below intrinsic value)
(6 marks total)
Section C — True/False with Justification (2 marks each)
Q17 — FALSE (1). Market price fluctuates with sentiment, supply/demand and short-term factors, so it frequently deviates from intrinsic value; the gap is what value investors exploit. (1)
Q18 — TRUE (1). If , the denominator is zero or negative, giving an infinite/undefined value; the geometric series only converges when . (1)
Q19 — FALSE (1). A lower discount rate makes future cash flows worth more today, so valuation increases, all else equal. (1)
Q20 — TRUE (1). Buying well below intrinsic value cushions against forecasting errors and adverse events, lowering downside risk. (1)
[
{"claim":"Gordon Growth: V = D1/(r-g) with D1=2, r=0.10, g=0.04 gives 33.33...","code":"D1=2; r=Rational(10,100); g=Rational(4,100); V=D1/(r-g); result = abs(float(V)-33.3333333)<1e-4"},
{"claim":"Lower discount rate raises PV: PV of 100 in 5 yrs at 8% > at 12%","code":"pv8=100/(1+Rational(8,100))**5; pv12=100/(1+Rational(12,100))**5; result = float(pv8) > float(pv12)"},
{"claim":"CAPM higher beta gives higher required return: rf=0.03, mrp=0.05, beta 1.5 vs 0.8","code":"rf=Rational(3,100); mrp=Rational(5,100); r_high=rf+Rational(15,10)*mrp; r_low=rf+Rational(8,10)*mrp; result = float(r_high) > float(r_low)"},
{"claim":"Gordon model diverges when g>=r (denominator non-positive)","code":"r=Rational(8,100); g=Rational(8,100); result = (r-g)==0"}
]