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CAS Exam 9 · Ratings, Capital, and Management · Tutorial 941 of 995

Dividend Planning Worked Case

Learn to test proposed dividends against both a rating-oriented capital target and a minimum liquidity reserve, including cases where the forecast supports no payout.

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What You'll Learn

  • Set up post-dividend capital and liquidity forecasts using consistent balance-sheet assumptions
  • Distinguish a rating threshold from a required management buffer
  • Calculate the maximum feasible dividend when both constraints are satisfied
  • Identify when a zero dividend still leaves a capital or liquidity shortfall
  • Compare payout alternatives and explain which constraint binds
  • Test how forecast changes can alter a dividend decision

Framing a Dividend Decision

A dividend transfers resources from an insurer to its owners. The decision therefore has two distinct consequences: it reduces capital available to support the insurer and reduces cash or other liquid resources available to meet near-term obligations. A payout that appears affordable from one perspective may fail the other test.

A rating-oriented capital threshold is a planning measure, not a promise of a particular rating outcome. Rating assessments can also depend on business risk, financial flexibility, governance, and other qualitative or quantitative factors. For a focused dividend analysis, treat the stated threshold and buffer as management’s capital test, and separately test the liquidity reserve. The framework below is aligned with the CAS Exam 9 (Risk Management for Actuaries) syllabus.

Definition: Let \(C_0\) be capital available at the start of the forecast period, \(E\) forecast earnings before dividends, and \(M\) other net changes in capital during the period. Let \(T\) be the capital threshold used for the rating-oriented test and \(B\) the additional required buffer. Let \(L_0\) be starting liquid resources, \(G\) other net changes in liquidity, and \(L_{\min}\) the minimum liquidity reserve. For a nonnegative dividend \(D\), the forecast post-dividend amounts are $$ C(D)=C_0+E+M-D,\qquad L(D)=L_0+G-D. $$ The dividend passes both tests if \(C(D)\ge T+B\) and \(L(D)\ge L_{\min}\).

These equations use a deliberately simple, same-date forecast. All amounts must be measured consistently, such as in millions of dollars, over the same period. The model assumes the dividend reduces capital and liquidity dollar for dollar; earnings and other changes are already included in \(E\), \(M\), and \(G\). It does not model taxes, transaction costs, second-order effects on earnings, or changes in the rating assessment caused by the dividend itself. If those effects are material, they should be incorporated into the forecast rather than ignored.

Feasibility and the Maximum Dividend

Rearranging the capital test gives a capital headroom amount. Rearranging the liquidity test gives a separate liquidity headroom amount:

$$ H_C=C_0+E+M-(T+B),\qquad H_L=L_0+G-L_{\min}. $$

The dividend must not exceed either headroom. Importantly, a negative headroom is not a limit of zero: it means that even a zero dividend fails that test. The correct decision sequence is therefore to check feasibility first, then calculate the maximum payout only if both headrooms are nonnegative.

Theorem: Under the stated assumptions, a nonnegative dividend satisfying both tests exists if and only if \(H_C\ge 0\) and \(H_L\ge 0\). When both conditions hold, the maximum dividend satisfying both tests is $$ D_{\max}=\min(H_C,H_L). $$ If either headroom is negative, no nonnegative dividend satisfies both tests; the forecast shortfall must first be addressed.

To justify the result, the capital condition \(C_0+E+M-D\ge T+B\) is equivalent, after adding \(D\) to both sides and subtracting \(T+B\), to \(D\le H_C\). In the same way, the liquidity condition is equivalent to \(D\le H_L\). Thus a feasible dividend must satisfy \(0\le D\le H_C\) and \(0\le D\le H_L\). Such a \(D\) exists exactly when neither upper bound is negative. If both are nonnegative, the greatest allowed \(D\) is the smaller upper bound. This also shows why taking the minimum and then replacing a negative result with zero is not a valid feasibility calculation: zero is still a dividend that must pass both tests.

1
Build the pre-dividend forecasts.
Calculate \(C_0+E+M\) and \(L_0+G\), keeping capital and liquidity as separate measures.
2
Set the two required levels.
Use \(T+B\) for the capital target and \(L_{\min}\) for the minimum liquid resources.
3
Check for an existing shortfall.
Calculate \(H_C\) and \(H_L\). If either is negative, no nonnegative dividend passes both tests.
4
Test each proposed payout.
Subtract the payout from both pre-dividend amounts and compare each result with its own required level.

Worked Decisions

The examples use hypothetical insurers and amounts in millions of dollars. They are deterministic, same-period forecasts: no probability distribution is assumed, and no interest discounting is needed because the balances and requirements are measured at the same date. There is no mortality assumption in these corporate balance-sheet calculations. Each example assumes a dividend reduces forecast capital and liquidity dollar for dollar, with no additional dividend-related effects.

Worked Example: Comparing Two Payout Proposals

A hypothetical insurer begins with capital of \(1{,}020\). Forecast earnings are \(85\), and other net capital changes are \(-15\). Its capital threshold is \(980\), with a required buffer of \(60\). Starting liquidity is \(310\), forecast other net liquidity changes are \(-20\), and the minimum liquidity reserve is \(230\). Assess dividends of \(40\) and \(55\), then find the maximum feasible payout.

Method and common mistake avoided. Calculate capital and liquidity headroom separately before evaluating either payout. Do not infer that a proposal passes both tests just because it leaves capital above the threshold alone; the buffer is part of the target.

Step 1: Forecast balances before the dividend. Capital is \(1{,}020+85-15=1{,}090\). Liquidity is \(310-20=290\). The capital target including buffer is \(980+60=1{,}040\).

Step 2: Calculate headroom. Capital headroom is \(1{,}090-1{,}040=50\). Liquidity headroom is \(290-230=60\). Both are nonnegative, so a feasible nonnegative dividend exists, and the maximum is \(\min(50,60)=50\).

Step 3: Test a dividend of \(40\). Post-dividend capital is \(1{,}090-40=1{,}050\), which exceeds the \(1{,}040\) target by \(10\). Post-dividend liquidity is \(290-40=250\), which exceeds the \(230\) reserve by \(20\). The proposal passes both tests.

Step 4: Test a dividend of \(55\). Post-dividend capital is \(1{,}090-55=1{,}035\), which is \(5\) below the target. Post-dividend liquidity is \(290-55=235\), which is \(5\) above the reserve. The proposal fails the capital test even though it passes the liquidity test.

Check. The maximum payout is \(50\), limited by capital. At \(D=50\), capital is exactly \(1{,}040\) and liquidity is \(240\), so both tests pass, with liquidity \(10\) above its minimum.

Worked Example: A Zero Dividend Does Not Cure Existing Shortfalls

A hypothetical insurer has starting capital of \(740\), forecast earnings of \(32\), and other net capital changes of \(-12\). Its capital threshold is \(700\), and it requires an additional buffer of \(75\). Starting liquidity is \(180\), other net liquidity changes are \(-8\), and the minimum reserve is \(185\). Determine whether any nonnegative dividend is feasible.

Method and common mistake avoided. Test the zero-dividend forecast against each required level. Do not report a maximum payout of zero as though it satisfied constraints that the zero-payout forecast already misses.

Step 1: Calculate forecast balances. Pre-dividend capital is \(740+32-12=760\). The capital target is \(700+75=775\). Pre-dividend liquidity is \(180-8=172\), below the required \(185\).

Step 2: Calculate headrooms. Capital headroom is \(760-775=-15\), a capital shortfall of \(15\). Liquidity headroom is \(172-185=-13\), a liquidity shortfall of \(13\).

Step 3: Decide feasibility. Since both headrooms are negative, no nonnegative dividend satisfies both tests. A zero dividend leaves capital \(15\) below its target and liquidity \(13\) below its reserve. A positive dividend would reduce both balances further.

Check. Substituting \(D=0\) gives capital \(760<775\) and liquidity \(172<185\), confirming that zero is not a passing payout. Management would need to address the forecast shortfalls before considering a dividend; the specific actions and their effects would need to be quantified in a revised forecast.

Worked Example: Liquidity Is the Binding Constraint

A hypothetical insurer forecasts starting capital of \(1{,}400\), earnings of \(120\), and no other capital changes. Its capital threshold is \(1{,}300\), with a required buffer of \(100\). Starting liquidity is \(260\), other net liquidity changes are \(15\), and the minimum reserve is \(200\). Compare dividends of \(70\) and \(90\), and test the effect of forecast earnings being \(25\) lower.

Method and common mistake avoided. Find the smaller headroom, then still show both post-dividend balances. A payout that is below the capital headroom may nevertheless breach liquidity.

Step 1: Base forecast and headroom. Pre-dividend capital is \(1{,}400+120=1{,}520\); the capital target is \(1{,}300+100=1{,}400\). Capital headroom is \(1{,}520-1{,}400=120\). Pre-dividend liquidity is \(260+15=275\), so liquidity headroom is \(275-200=75\). The maximum feasible payout is \(\min(120,75)=75\), and liquidity binds.

Step 2: Test a dividend of \(70\). Capital after the payout is \(1{,}520-70=1{,}450\), \(50\) above its target. Liquidity is \(275-70=205\), \(5\) above its reserve. Both tests pass.

Step 3: Test a dividend of \(90\). Capital is \(1{,}520-90=1{,}430\), \(30\) above target. Liquidity is \(275-90=185\), which is \(15\) below the reserve. This payout fails despite ample capital headroom.

Step 4: Reduce earnings by \(25\). Revised earnings are \(120-25=95\), so pre-dividend capital becomes \(1{,}400+95=1{,}495\). Capital headroom becomes \(1{,}495-1{,}400=95\); liquidity headroom remains \(75\) under the stated assumptions. Thus the maximum remains \(75\), still limited by liquidity. The earnings reduction narrows capital headroom but does not change the binding constraint in this case.

Check. At \(D=75\) in the base forecast, capital is \(1{,}445\) and liquidity is \(200\), exactly meeting the liquidity reserve. In the lower-earnings forecast, capital at \(D=75\) is \(1{,}420\), still above its target, and liquidity remains exactly \(200\).

Reading the Result and Avoiding Traps

The smaller feasible headroom identifies the binding constraint in this simplified calculation. If capital headroom is smaller, the capital target limits the payout; if liquidity headroom is smaller, the reserve limits it. Equal headrooms mean both tests bind at the same payout. That comparison is useful for explaining a recommendation: it identifies whether the proposed distribution is constrained by the rating-oriented capital plan, by liquidity, or by both.

A headroom calculation is conditional on the assumptions and forecasts used. Earnings may be uncertain, other capital movements may be volatile, and liquid resources may not all be available in every circumstance. A prudent decision can therefore test alternative forecasts and preserve a margin above minimums where appropriate. The buffer \(B\) is already an explicit capital margin above the stated threshold; it should not be confused with the liquidity reserve \(L_{\min}\), which is a separate requirement.

The principal exam trap is treating “no dividend” as automatically safe. It is safe only with respect to the payout decision if the pre-dividend forecast already meets both tests. Another common error is comparing post-dividend capital with \(T\) while omitting \(B\), or comparing liquidity with the capital threshold. Each measure must be checked against its own stated requirement.

Key takeaway: First determine whether the zero-dividend forecast meets both requirements. Only when capital headroom and liquidity headroom are both nonnegative is the maximum feasible dividend the smaller of the two. Then test each proposed payout against both post-dividend balances.

Check Your Understanding

For each hypothetical case, use the stated dollar amounts and assumptions. Treat forecasts as deterministic same-period amounts, with dividends reducing capital and liquidity dollar for dollar.

  1. A company has \(C_0=620\), \(E=44\), \(M=-9\), \(T=570\), and \(B=65\). Its liquidity values are \(L_0=145\), \(G=-5\), and \(L_{\min}=125\). Find the maximum feasible dividend and determine whether a dividend of \(12\) passes both tests. (Answer: Maximum \(15\); at \(D=12\), capital is \(643\), \(8\) above target, and liquidity is \(128\), \(3\) above reserve; it passes.)
  2. Capital inputs are \(C_0=900\), \(E=60\), \(M=-20\), \(T=850\), and \(B=70\). Liquidity inputs are \(L_0=240\), \(G=10\), and \(L_{\min}=225\). Does a proposed dividend of \(23\) pass both tests, and what is the maximum feasible payout? (Answer: Maximum \(20\); at \(D=23\), capital is \(917\), \(3\) below target, while liquidity is \(227\), \(2\) above reserve; it fails.)
  3. A forecast gives \(C_0=480\), \(E=38\), \(M=-8\), \(T=455\), and \(B=60\). It also gives \(L_0=90\), \(G=6\), and \(L_{\min}=100\). Can any nonnegative dividend meet both tests? State each shortfall at a zero dividend. (Answer: No; pre-dividend capital is \(510\), a shortfall of \(5\), and liquidity is \(96\), a shortfall of \(4\).)
  4. For a fourth case, \(C_0=1{,}180\), \(E=70\), \(M=-25\), \(T=1{,}100\), and \(B=80\). Liquidity is \(L_0=205\), \(G=-12\), and \(L_{\min}=160\). Find the maximum feasible dividend and assess a payout of \(35\). (Answer: Maximum \(33\), limited by liquidity; at \(D=35\), capital is \(1{,}190\), \(10\) above target, but liquidity is \(158\), \(2\) below reserve, so it fails.)
  5. In a final case, \(C_0=1{,}000\), \(E=100\), and \(M=0\), with \(T=950\) and \(B=75\). Liquidity is \(L_0=280\), \(G=-30\), and \(L_{\min}=190\). Compare a payout of \(55\) in the base forecast with a forecast in which earnings are \(25\) lower. (Answer: Base headrooms are \(75\) for capital and \(60\) for liquidity, so \(D=55\) passes with capital \(1{,}045\), \(20\) above target, and liquidity \(195\), \(5\) above reserve. With earnings of \(75\), capital headroom falls to \(50\); at \(D=55\), capital is \(1{,}020\), \(5\) below target, while liquidity still passes at \(195\).)
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