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Market-neutral work and pay guide

How to use the Expected Job Value calculator

Compare probability-weighted horizon values for two user-entered job options without forecasting outcomes.

Make the horizon and outcomes genuinely comparable

Choose the same horizon for both jobs and express every outcome on the same value basis. Each option’s entered probabilities must total 100%; otherwise the weighted sum does not describe a complete scenario set.

Probabilities should remain visible assumptions. The calculator does not estimate them, and a precise percentage should not be mistaken for certainty.

  • Use the same time horizon and currency basis for A and B.
  • Define outcomes consistently, including what the low case represents.
  • Check that each option’s probabilities sum to 100%.
  • Keep non-financial factors outside the numeric value unless you can state a defensible, consistent input.

Weight each outcome, then preserve the range

Expected value = Σ(outcome value × entered probability). For Option A, 80% × 100,000 plus 20% × 30,000 equals 86,000. For Option B, 95% × 85,000 plus 5% × 30,000 equals 82,250.

The expected value compresses the scenarios into one average. Minimum and maximum outcomes remain important because two options with similar averages can expose you to different ranges.

Worked example: average and range tell different stories

Production fixture comparing two entered job scenarios
ChoiceEntered outcomes and calculator resultHow to read the choice
Option A80% × 100,000 + 20% × 30,000 = 86,000It has the higher expected value and the wider 30,000–100,000 entered range.
Option B95% × 85,000 + 5% × 30,000 = 82,250It has the lower expected value and the narrower 30,000–85,000 entered range.
Expected-value spread3,750 in favour of AThis is a difference between weighted scenarios, not proof that A will pay more.

Vary uncertain assumptions and add a qualitative overlay

Test the probability and outcome that most affects the 3,750 spread. If a small plausible change reverses the ordering, the numeric distinction is fragile and should be presented that way.

The calculation does not model risk preference, tax, inflation, satisfaction, working conditions or correlated outcomes. Compare those separately; never say the higher expected value “wins.”

How the Expected Job Value Calculator calculation works

Expected-value spread

expectedValueSpread = optionAExpectedValue − optionBExpectedValue

expectedValueSpread
Option A expected-value advantage
optionAExpectedValue
Option A expected value
optionBExpectedValue
Option B expected value

The calculator and article use this relationship consistently; the article does not reimplement the calculation.

Option A expected value

optionAExpectedValue = optionAState1Probability × optionAState1Value + optionAState2Probability × optionAState2Value

optionAExpectedValue
Option A expected value
optionAState1Probability
Option A likely-state probability
optionAState1Value
Option A state 1 horizon value
optionAState2Probability
Option A other-state probability
optionAState2Value
Option A state 2 horizon value

The calculator and article use this relationship consistently; the article does not reimplement the calculation.

Option B expected value

optionBExpectedValue = optionBState1Probability × optionBState1Value + optionBState2Probability × optionBState2Value

optionBExpectedValue
Option B expected value
optionBState1Probability
Option B likely-state probability
optionBState1Value
Option B state 1 horizon value
optionBState2Probability
Option B other-state probability
optionBState2Value
Option B state 2 horizon value

The calculator and article use this relationship consistently; the article does not reimplement the calculation.

Option A lower value

optionAMinimumValue = min(optionAState1Value, optionAState2Value)

optionAMinimumValue
Option A lower entered value
optionAState1Value
Option A state 1 horizon value
optionAState2Value
Option A state 2 horizon value

The calculator and article use this relationship consistently; the article does not reimplement the calculation.

Option B lower value

optionBMinimumValue = min(optionBState1Value, optionBState2Value)

optionBMinimumValue
Option B lower entered value
optionBState1Value
Option B state 1 horizon value
optionBState2Value
Option B state 2 horizon value

The calculator and article use this relationship consistently; the article does not reimplement the calculation.

Compare option A at 80% of 100,000 and 20% of 30,000 with option B at 95% of 85,000 and 5% of 30,000.

Inputs used in the Expected Job Value Calculator worked example

Normalized calculator inputs
InputEntered valueWhat it representsSource class
Option A likely-state probability0.8 decimalProbability assigned to option A state 1; state 2 is the visible remainder.user assumption
Option A state 1 horizon value100,000 currency unitsEntered horizon value for option A state 1.user assumption
Option A other-state probability0.2 decimalCanonical remainder: 1 minus option A state 1 probability.user assumption
Option A state 2 horizon value30,000 currency unitsEntered horizon value for option A state 2.user assumption
Option B likely-state probability0.95 decimalProbability assigned to option B state 1; state 2 is the visible remainder.user assumption
Option B state 1 horizon value85,000 currency unitsEntered horizon value for option B state 1.user assumption
Option B other-state probability0.05 decimalCanonical remainder: 1 minus option B state 1 probability.user assumption
Option B state 2 horizon value30,000 currency unitsEntered horizon value for option B state 2.user assumption
Replace these example values with records or assumptions from the decision you are evaluating.

Worked example: Expected Job Value Calculator

The calculator normalizes the inputs above, applies Expected-value spread, and returns the outputs below. The displayed result is therefore reproducible in the linked calculator.

Calculator-derived default-scenario outputs
MeasureResultInterpretation
Option A expected-value advantage3,750 currency units over the horizonOption A probability-weighted value minus option B.
Option A expected value86,000 currency units over the horizonSum of option A state probability times state horizon value.
Option B expected value82,250 currency units over the horizonSum of option B state probability times state horizon value.
Option A lower entered value30,000 currency units over the horizonLower of the two entered option A state values.
Option B lower entered value30,000 currency units over the horizonLower of the two entered option B state values.

Interpret the result and test Option A likely-state probability

  • Option A expected-value advantage: 3,750 currency units over the horizon. Option A probability-weighted value minus option B.
  • Option A expected value: 86,000 currency units over the horizon. Sum of option A state probability times state horizon value.
  • Option B expected value: 82,250 currency units over the horizon. Sum of option B state probability times state horizon value.
  • Option A lower entered value: 30,000 currency units over the horizon. Lower of the two entered option A state values.
  • Option B lower entered value: 30,000 currency units over the horizon. Lower of the two entered option B state values.
One-input sensitivity: Option A likely-state probability
ResultBaselineChanged-input scenarioHow to read it
Option A expected-value advantage3,750 currency units over the horizon9,350 currency units over the horizonOption A probability-weighted value minus option B.
Option A expected value86,000 currency units over the horizon91,600 currency units over the horizonSum of option A state probability times state horizon value.
Option B expected value82,250 currency units over the horizon82,250 currency units over the horizonSum of option B state probability times state horizon value.
Option A lower entered value30,000 currency units over the horizon30,000 currency units over the horizonLower of the two entered option A state values.
Option B lower entered value30,000 currency units over the horizon30,000 currency units over the horizonLower of the two entered option B state values.
Only Option A likely-state probability changes: 0.8 decimal to 0.88 decimal. All other normalized inputs stay fixed.

Checks that are specific to Expected Job Value Calculator

  • Exactly two options and two states per option are used.
  • Each state probability stays between 0 and 1.
  • The second probability is normalized so each option sums to 1.

What this Expected Job Value Calculator guide includes and excludes

  • Horizon values use the same basis for both options.
  • States are mutually exclusive and collectively exhaustive.
  • Probabilities and values are user judgments.

Sources and method boundary

Change history

  1. July 27, 2026Published How to use the Expected Job Value calculator.