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Two-Stage DDM

Dividend discount model with two distinct growth stages: a high-growth period of n₁ years followed by a perpetual terminal-growth stage. Combines explicit-projection PV with a Gordon-style terminal value.

When to use: Use for companies in growth-phase transition: high near-term growth tapering to a sustainable mature rate. The standard upgrade from Gordon when the constant-growth assumption is unrealistic for the next several years.

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Formula

V0=t=1n1D0(1+g1)t(1+r)t+D0(1+g1)n1(1+g2)(rg2)(1+r)n1V_0 = \sum_{t=1}^{n_1} \frac{D_0(1+g_1)^t}{(1+r)^t} + \frac{D_0(1+g_1)^{n_1}(1+g_2)}{(r-g_2)(1+r)^{n_1}}

Variables

SymbolNameDescriptionUnit
V0Intrinsic ValuePer-share intrinsic value implied by the model$
D0Current DividendMost recent annual dividend per share$
g1High-Growth RateGrowth rate during the high-growth stage, as a decimal%
n1High-Growth YearsYears in the high-growth stageyears
g2Terminal Growth RateGrowth rate after the high-growth stage, as a decimal%
rRequired ReturnAnnual required rate of return as a decimal%

Real-Life Examples

Example 1: Tech Company Maturing

Current dividend $1.00. Growth at 15% for 5 years, then 4% in perpetuity. Required return 10%.

Given

D0 = 1g1 = 0.15n1 = 5g2 = 0.04r = 0.1

Step-by-Step

1.Stage 1 PV: Σ 1.00×(1.15)^t / (1.10)^t for t=1..5 ≈ 5.72
2.D at year 5 × (1+g2) = 1.00×(1.15)^5×(1.04) = 2.0918
3.Terminal value at year 5 = 2.0918 / (0.10−0.04) = 34.86
4.PV of terminal = 34.86 / (1.10)^5 = 21.65
5.V₀ = 5.72 + 21.65 = 27.37
Result:27.37

Intrinsic value $27.37. The terminal value contributes ~80% of total value — a common pattern in two-stage models where most of the present value comes from the perpetuity beyond the explicit forecast horizon.

Frequently Asked Questions

Because the perpetuity captures all years beyond the explicit forecast — typically 5-10 years vs. infinity. Even discounted, infinite years of cash flow add up. This means terminal-growth and discount-rate assumptions are critical; small changes there move the answer significantly.

The model handles g₁ ≤ 0 fine in stage 1. For g₂, you still need r > g₂; very low or negative terminal growth is acceptable but gives a smaller terminal multiple.

When the transition between high and stable growth is gradual rather than abrupt. Three-stage models add a fade period where growth tapers linearly. Heavier to compute but more realistic for many real-world growth-to-maturity transitions.