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Research replication

Risk as a decision system

Open the exact fictional inputs behind each worked study. Project cases use their companion model; auxiliary cash bridges retain a separate, verifiable calculation.

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These are illustrative scenarios, not actual project or supplier data. Inputs and method boundaries govern each result.

Illustrative study

Shared safeguard: stated availability

Expose the available/unavailable state mixture and distinguish event frequency from event-conditional severity.

What changes

  • Parameter: Declared mechanism and resource assumptions
  • Test: Compare availability with zero, full and improved operation; probability and severity stress are separate inputs.

Limits of the study

  • All probabilities, USDk event losses, conditional effectiveness, shared availability and annual costs are author-stipulated illustrative inputs; none is empirically estimated.
  • The model has one annual event probability per named risk and one shared Bernoulli availability state within that risk. It does not calculate multiple-event counts, joint cross-risk tails, maximum loss, legal acceptance, insurance settlement or observed control reliability.
  • Separate USDk/year annual control cost and expected-loss outputs; a deterministic stress is not a confidence bound.
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Illustrative study

Availability proposal with additional annual cost

Compare a proposed improvement in shared availability with its distinct annual resource cost. The proposal is not evidence of effective operation.

What changes

  • Parameter: Declared mechanism and resource assumptions
  • Test: Hold probability, severity and conditional effectiveness constant; compare availability and control cost with the source case.

Limits of the study

  • All probabilities, USDk event losses, conditional effectiveness, shared availability and annual costs are author-stipulated illustrative inputs; none is empirically estimated.
  • The model has one annual event probability per named risk and one shared Bernoulli availability state within that risk. It does not calculate multiple-event counts, joint cross-risk tails, maximum loss, legal acceptance, insurance settlement or observed control reliability.
  • Separate USDk/year annual control cost and expected-loss outputs; a deterministic stress is not a confidence bound.
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Illustrative study

A stronger safeguard that fails the optional net-value condition

The same loss reduction as the availability proposal cannot recover its declared annual cost. Mandatory obligations remain a separate condition.

What changes

  • Parameter: Declared mechanism and resource assumptions
  • Test: Compare this higher cost with the lower-cost proposal and inspect full-availability break-even feasibility.

Limits of the study

  • All probabilities, USDk event losses, conditional effectiveness, shared availability and annual costs are author-stipulated illustrative inputs; none is empirically estimated.
  • The model has one annual event probability per named risk and one shared Bernoulli availability state within that risk. It does not calculate multiple-event counts, joint cross-risk tails, maximum loss, legal acceptance, insurance settlement or observed control reliability.
  • Separate USDk/year annual control cost and expected-loss outputs; a deterministic stress is not a confidence bound.
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Illustrative study

Installed safeguard unavailable

Failure of shared availability preserves gross loss despite installed prevention and mitigation specifications.

What changes

  • Parameter: Declared mechanism and resource assumptions
  • Test: Compare zero availability with stated and fully available operation; no empirical outage frequency is supplied.

Limits of the study

  • All probabilities, USDk event losses, conditional effectiveness, shared availability and annual costs are author-stipulated illustrative inputs; none is empirically estimated.
  • The model has one annual event probability per named risk and one shared Bernoulli availability state within that risk. It does not calculate multiple-event counts, joint cross-risk tails, maximum loss, legal acceptance, insurance settlement or observed control reliability.
  • Separate USDk/year annual control cost and expected-loss outputs; a deterministic stress is not a confidence bound.
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Illustrative study

Fully available conditional boundary

Give the conditional effectiveness boundary without claiming that full annual availability can be achieved.

What changes

  • Parameter: Declared mechanism and resource assumptions
  • Test: Compare the supplied ideal boundary with uncertain and unavailable operation.

Limits of the study

  • All probabilities, USDk event losses, conditional effectiveness, shared availability and annual costs are author-stipulated illustrative inputs; none is empirically estimated.
  • The model has one annual event probability per named risk and one shared Bernoulli availability state within that risk. It does not calculate multiple-event counts, joint cross-risk tails, maximum loss, legal acceptance, insurance settlement or observed control reliability.
  • Separate USDk/year annual control cost and expected-loss outputs; a deterministic stress is not a confidence bound.
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Illustrative study

A different all-available mechanism masquerading as marginal control adjustment

Exhibit a deliberately different all-available configuration. Its loss is not a valid substitute for the original joint-availability mixture.

What changes

  • Parameter: Declared mechanism and resource assumptions
  • Test: Compare the declared48% and30% conditional effectiveness with the original80% and50% shared-state inputs; do not transfer outputs across mechanisms.

Limits of the study

  • All probabilities, USDk event losses, conditional effectiveness, shared availability and annual costs are author-stipulated illustrative inputs; none is empirically estimated.
  • The model has one annual event probability per named risk and one shared Bernoulli availability state within that risk. It does not calculate multiple-event counts, joint cross-risk tails, maximum loss, legal acceptance, insurance settlement or observed control reliability.
  • Separate USDk/year annual control cost and expected-loss outputs; a deterministic stress is not a confidence bound.
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Illustrative study

Paid safeguard with no conditional effect

Distinguish operating availability from an intervention that actually affects probability or consequence.

What changes

  • Parameter: Declared mechanism and resource assumptions
  • Test: Compare zero effectiveness with the source mechanism while retaining positive annual cost.

Limits of the study

  • All probabilities, USDk event losses, conditional effectiveness, shared availability and annual costs are author-stipulated illustrative inputs; none is empirically estimated.
  • The model has one annual event probability per named risk and one shared Bernoulli availability state within that risk. It does not calculate multiple-event counts, joint cross-risk tails, maximum loss, legal acceptance, insurance settlement or observed control reliability.
  • Separate USDk/year annual control cost and expected-loss outputs; a deterministic stress is not a confidence bound.
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Illustrative study

Equal expectation with much larger conditional consequence

The expected-loss totals match the source case under a different probability/severity pair; expected loss cannot establish tolerable single-event consequence.

What changes

  • Parameter: Declared mechanism and resource assumptions
  • Test: Contrast event probability and severity with the source pair; no tail percentile or maximum cumulative loss is calculated.

Limits of the study

  • All probabilities, USDk event losses, conditional effectiveness, shared availability and annual costs are author-stipulated illustrative inputs; none is empirically estimated.
  • The model has one annual event probability per named risk and one shared Bernoulli availability state within that risk. It does not calculate multiple-event counts, joint cross-risk tails, maximum loss, legal acceptance, insurance settlement or observed control reliability.
  • Separate USDk/year annual control cost and expected-loss outputs; a deterministic stress is not a confidence bound.
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Illustrative study

High-probability stress with disclosed saturation

Demonstrate capped stressed event probability and its warning; the stress is a deterministic scenario, not a frequency estimate.

What changes

  • Parameter: Declared mechanism and resource assumptions
  • Test: Compare base and stressed probability, severity and availability, retaining the cap rather than silently exceeding unit probability.

Limits of the study

  • All probabilities, USDk event losses, conditional effectiveness, shared availability and annual costs are author-stipulated illustrative inputs; none is empirically estimated.
  • The model has one annual event probability per named risk and one shared Bernoulli availability state within that risk. It does not calculate multiple-event counts, joint cross-risk tails, maximum loss, legal acceptance, insurance settlement or observed control reliability.
  • Separate USDk/year annual control cost and expected-loss outputs; a deterministic stress is not a confidence bound.
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Illustrative study

Two separately additive expected-loss ledgers

Sum separately supplied additive expected losses without inferring cross-risk independence or a joint tail distribution.

What changes

  • Parameter: Declared mechanism and resource assumptions
  • Test: Check each expected-loss ledger and hold incidence separate; a common driver may alter a joint consequence even when expectation sums remain valid.

Limits of the study

  • All probabilities, USDk event losses, conditional effectiveness, shared availability and annual costs are author-stipulated illustrative inputs; none is empirically estimated.
  • The model has one annual event probability per named risk and one shared Bernoulli availability state within that risk. It does not calculate multiple-event counts, joint cross-risk tails, maximum loss, legal acceptance, insurance settlement or observed control reliability.
  • Separate USDk/year annual control cost and expected-loss outputs; a deterministic stress is not a confidence bound.
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Illustrative study

Two names count the same claim twice

A deliberate invalid-incidence example: the engine adds two declared claims but cannot know they represent one economic loss. Hold the aggregate interpretation.

What changes

  • Parameter: Declared mechanism and resource assumptions
  • Test: Remove duplicated incidence conceptually before appraisal; the saved intentionally defective register is retained as a falsifier, not an endorsed estimate.

Limits of the study

  • All probabilities, USDk event losses, conditional effectiveness, shared availability and annual costs are author-stipulated illustrative inputs; none is empirically estimated.
  • The model has one annual event probability per named risk and one shared Bernoulli availability state within that risk. It does not calculate multiple-event counts, joint cross-risk tails, maximum loss, legal acceptance, insurance settlement or observed control reliability.
  • Separate USDk/year annual control cost and expected-loss outputs; a deterministic stress is not a confidence bound.
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Illustrative study

Zero cost does not establish protective value

A zero break-even availability output follows zero annual cost while avoided loss remains zero. Do not translate that boundary convention into assurance.

What changes

  • Parameter: Declared mechanism and resource assumptions
  • Test: Compare avoidance and residual loss, not the break-even field alone; mandates and implementation remain independent.

Limits of the study

  • All probabilities, USDk event losses, conditional effectiveness, shared availability and annual costs are author-stipulated illustrative inputs; none is empirically estimated.
  • The model has one annual event probability per named risk and one shared Bernoulli availability state within that risk. It does not calculate multiple-event counts, joint cross-risk tails, maximum loss, legal acceptance, insurance settlement or observed control reliability.
  • Separate USDk/year annual control cost and expected-loss outputs; a deterministic stress is not a confidence bound.
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Illustrative study

Illustrative zero-chance boundary: base and stress

Separate an unavailable event-conditional quantity from a defined zero annual expectation.

What changes

  • Test: Zero-chance conditioning boundary
  • Intervention: Set only the supplied gross event probability to zero.
  • Held constant: The default first risk row, conditional control effects, shared availability, severity, resource cost and all other stress settings.

Limits of the study

  • A zero supplied event probability is an illustrative assumption, not evidence of actual safety.
  • The one-event annual expected-loss model supplies no tail, count, correlation, insurance or regulatory conclusion.
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Illustrative study

Illustrative zero-chance boundary: stress only

Separate an unavailable event-conditional quantity from a defined zero annual expectation.

What changes

  • Test: Zero-chance conditioning boundary
  • Intervention: Set only the supplied stress probability multiplier to zero.
  • Held constant: The default first risk row, conditional control effects, shared availability, severity, resource cost and all other stress settings.

Limits of the study

  • A zero supplied event probability is an illustrative assumption, not evidence of actual safety.
  • The one-event annual expected-loss model supplies no tail, count, correlation, insurance or regulatory conclusion.
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