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Decision Intelligence Guardrails (DIG) Example:

Four practical examples showing how DIG improves judgment across health, performance, and risk evaluation.

Confirmed COVID (Medical Attribution)

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Excess Mortality (Statistical Approach)

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Narrow Biological Attribution

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Top-1% Bench Press at Age 65 (General Population)

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Identify the Claim

What is the probability and severity of the adverse event if no action is taken?

Claim:

"X disaster caused Y deaths."

DIG immediately asks:
time
What time horizon?
causal
What causal definition?
evidence
What evidence standard?
info

Without those, the claim is ambiguous.

Three Different Valid Answer Sets

1. Confirmed Immediate Deaths (Highest Evidence)

Definition:

Deaths directly attributable and medically documented within the event window.

Example:

Event Immediate Deaths
Chernobyl ~30
Fukushima 0
info
Evidence standard: high medical certainty

2. Epidemiological Long-Term Radiation Effects

Definition:

Projected cancer deaths statistically attributable to radiation exposure over decades.

Example:

Event Estimated long-term deaths
Chernobyl ~4000 (WHO/UNSCEAR estimate among most exposed populations)
Fukushima Very small projected increase
info
Evidence standard: population-level statistical modelling
info
These deaths cannot be individually identified

3. Total disaster related mortality

Definition:

All deaths caused by social and indirect consequences.

Example:

Event Disaster related deaths
Chernobyl Thousands were included relocation health system disruption
Fukushima ~1,000-2,000 (mostly evacuation-related)
info
Evidence standard: broader public-health attribution

Why DIG Flags the Question

Dig would classify the claim:

"Deaths caused by Chernobyl Fukushima."

as:

Ambiguous Causal definition

Because it conflates:
time
Radiation deaths
causal
Statistical cancer projections
evidence
Indirect disaster mortality

DIG Admissible Question Versions

DIG would require the question to be rewritten as one of the following:

check "How many people died from acute radiation exposure within months of the accident?"
check "What is the estimated number of long-term cancer death attributable to radiation exposure?"
check "What is the total number of disaster related deaths including indirect effects?" Each produces a different correct answer.

Why This Example Is Valuable for DIG

It demonstrates four core DIG principles:

Definition
Definition locking

Terms like caused by must be defined.

Time Horizon
Time horizon clarity

Immediate vs lifetime risk.

Evidence Hierarchy
Evidence hierarchy

Confirmed deaths vs statistical estimates.

Policy Implications
Policy implications

Different definitions drive different
policy conclusions.

Why It’s a Strong Teaching Example

DIG would require the question to be rewritten as one of the following:

Because the same event produces answers ranging from:

30 deaths β†’ thousands β†’ tens of thousands

depending entirely on definitions and modeling choices.

That’s exactly the kind of ambiguity DIG is designed to expose.

DIG Example: COVID Death Counts

1. Confirmed COVID Deaths (Medical Attribution)

Definition:

Deaths officially recorded by governments as caused by COVID infection.

info
Global total reported to the World Health Organization: β‰ˆ7 million deaths

Evidence standard:

check
Positive test
check
Physician attribution
check
Death certificate

Limitations:

warning Testing shortages early in the pandemic
warning Inconsistent reporting across countries

2. Excess Mortality (Statistical Approach)

Definition:

Deaths above expected baseline mortality during the pandemic.

Major estimates:

info
World Health Organization: β‰ˆ15 million excess deaths
info
The Economist: β‰ˆ20 million excess deaths

Evidence standard:

check
Statistical modeling of total mortality

Includes deaths from:

COVID infection
Healthcare system disruption
Delayed medical care
Indirect pandemic effects

3. Narrow Biological Attribution

Definition:

Deaths directly caused by viral damage to the body.

This number is unknown, because many deaths involved:

check
Pre-existing illness
check
Multi-factor causes

This category is not directly measurable.

DIG Example: Top-1% Bench Press at Age 65

1.Top-1% Bench Press at Age 65(General Population)

Definition:

A reported strength performance compared against age-adjusted population benchmarks.

info
Claimed Bench Press Performance 120 KG at age 65

Evidence standard:

check
Recorded Lift
check
Bodyweight Context
check
Standardised Range of motion

Limitations:

warning Rare but plausible with long-term training history
warning Percentile depends on body weight and lifting standard

Why DIG Flags the Claim

info

The statement:

"COVID killed X million people"

is not admissible without defining the measurement frame.

The answer depends on:
Whether deaths must be individually verified
Whether statistical attribution is allowed
Whether indirect effects are included

DIG Admissible Versions

DIG would require the claim to be rewritten as:

Confirmed deaths recorded by governments
Estimated excess mortality during the pandemic
Deaths directly caused by viral infection

Each produces a different legitimate answer.

Why This Example Is Powerful for DIG

It demonstrates three common data problems:

Definition ambiguity
Measurement limitations
Statistical inference vs direct evidence

The range:

7 million β†’ 20+ million

is produced entirely by methodological choices, not disagreement about the underlying event.

Core DIG Lesson

Before evaluating a claim, the system must first determine:

check What definition is being used
check What evidence standard applies
check What time horizon is included

Each produces a different legitimate answer.