📐 How We Calculate AI Risk

Our risk scores are derived from a multi-factor model combining automation research, occupational data, and AI capability assessments. Here's exactly how it works.

The 9 Scoring Factors

Each career is evaluated across nine dimensions, each scored 0–10. The first seven feed the AI-only score; all nine feed the AI + Robotics score:

Factor0 = …10 = …Effect on RiskUsed In
Routine TasksFluid, unpredictableHighly scripted & repetitive↑ Increases riskBoth
Data ProcessingNo data workPrimary role is data analysis↑ Increases riskBoth
CreativityNo original thinkingConstantly generates novel ideas↓ Reduces riskBoth
Social SkillsNo human interactionDeep empathy & relationship-building↓ Reduces riskBoth
Physical DexterityPurely mental workComplex unstructured physical tasks↓ Reduces riskBoth
Decision MakingFollows strict rulesHigh-stakes judgment under uncertainty↓ Reduces riskBoth
AdaptabilityDomain is staticRequires constant learning & flexibility↓ Reduces riskBoth
Physical RoutinenessMovements are varied & unpredictableMovements are repetitive & structured↑ Increases robotics riskAI + Robotics only
Dexterity RequiredNo fine motor skill neededHigh precision hand/body coordination↓ Reduces robotics riskAI + Robotics only

The Two Scores

Every career receives two independent scores. The AI score captures software automation risk today. The AI + Robotics score adds physical automation risk — relevant for roles involving predictable physical labour, manufacturing, logistics, or structured manual work.

AI-Only Score Formula

raw_score = (Routine × 1.8) + (Data × 1.2)
− (Creativity × 1.5) − (Social × 1.0)
− (Physical × 0.8) − (Decision × 1.0)
− (Adaptability × 0.7)

current_risk% = normalize(raw_score, min=−50, max=30) × 100
5-year_risk% = current_risk × 1.25 (capped at 98%)
10-year_risk% = current_risk × 1.55 (capped at 99%)

AI + Robotics Score Formula

robotics_raw = (Routine × 1.8) + (Data × 1.2)
+ (PhysicalRoutineness × 1.2)
− (Creativity × 1.5) − (Social × 1.0)
− (DexterityRequired × 0.9) − (Decision × 1.0)
− (Adaptability × 0.7)

robotics_risk% = normalize(robotics_raw, min=−50, max=40) × 100

The robotics formula adds Physical Routineness as a risk amplifier (repetitive physical movements are exactly what robots do well) and uses Dexterity Required as a partial shield — high dexterity roles like surgery or fine craftsmanship remain harder to automate physically. As robotic capability improves post-2027, both weights will increase.

Risk Tiers

TierScore RangeMeaning
🟢 Very Low0–19%Strong human-centric elements. AI will augment, not replace.
🔵 Low20–39%Some tasks will be automated. Role evolves but survives.
🟡 Moderate40–59%Significant disruption ahead. Reskilling recommended.
🔴 High60–74%Core tasks are automatable. Role demand will decline.
🟣 Critical75–100%Most tasks replaceable today. Transition planning urgent.

Known Limitations

Geography matters: AI adoption varies widely by country, company, and sector.

Specialization matters: A general accountant faces higher risk than a forensic accountant or CFO.

Regulatory lag: Even technically automatable roles (e.g. radiologist) may be protected by regulation for years.

Unknown careers: For careers not in our database, we infer factors from keywords — accuracy is lower for niche roles.

AI capabilities evolve: Physical robotics is improving rapidly. Physical tasks will face more risk after 2027.

References & Research

Our model is inspired by:

• Frey & Osborne (2013) — The Future of Employment (Oxford)

• McKinsey Global Institute (2017, 2023) — Jobs Lost, Jobs Gained

• World Economic Forum — Future of Jobs Report 2023

• OpenAI / Anthropic capability benchmarks (2024–2025)

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