temporal-scenario

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How does it evolve over time? — Short/medium/long-term timeline projection with technology maturity curves

yogsoth-ai By yogsoth-ai schedule Updated 6/16/2026

name: temporal-scenario description: How does it evolve over time? — Short/medium/long-term timeline projection with technology maturity curves version: 1.0.0 category: experiment-execution type: strategy sops:

  • scenario-driver-identification
  • timeline-projection
  • scenario-narrative-construction
  • scenario-impact-assessment
  • robustness-scoring
  • scenario-synthesis tactics:
  • strategy-robustness-testing dependencies: sops:
    • robustness-scoring
    • scenario-driver-identification
    • scenario-impact-assessment
    • scenario-narrative-construction
    • scenario-synthesis
    • timeline-projection tactics:
    • strategy-robustness-testing

Strategy: Temporal Scenario

Methodology

Temporal Scenario Planning with Technology Maturity Curves. Project how the research landscape evolves across multiple time horizons (short: 6 months, medium: 2 years, long: 5+ years). Map technology S-curves, adoption dynamics, and paradigm shift timing.

Key principles:

  • Multi-horizon: Separate analysis for short, medium, and long term
  • S-curve awareness: Technologies follow predictable maturity patterns
  • Paradigm sensitivity: Identify potential paradigm shifts and their timing
  • Path dependency: Current decisions constrain future options

Execution Flow

  1. Identify temporal drivers → spawn scenario-driver-identification

    • Input: research context, focus on time-dependent factors
    • Output: drivers with temporal dynamics (maturation rates, adoption curves)
  2. Project timelines → spawn timeline-projection

    • Input: temporal drivers, current maturity levels
    • Output: multi-horizon projections with uncertainty bands
  3. Construct temporal narratives → spawn scenario-narrative-construction (×3 horizons)

    • Input: timeline projections, horizon-specific drivers
    • Output: narrative per time horizon
  4. Assess impact → spawn scenario-impact-assessment (per horizon)

    • Input: temporal narrative, research approach, decision timing
    • Output: time-dependent impact analysis
  5. Score robustness → spawn robustness-scoring

    • Input: all temporal assessments
    • Output: temporal robustness index, optimal timing windows
  6. Synthesize → spawn scenario-synthesis

    • Input: temporal scenarios, timing recommendations
    • Output: temporal strategy with decision points

Budget Gate

Step Token Budget Notes
Driver identification 8K Time-dynamics focused
Timeline projection 15K Multi-horizon + S-curves
Narrative construction 12K × 3 Per horizon
Impact assessment 10K × 3 Per horizon
Robustness scoring 10K Temporal sensitivity
Synthesis 12K Timing recommendations

Available Tactics

Optional, no fixed order; the final leaf is always a sop.

Tactic When to use
strategy-robustness-testing Orchestrates impact assessment and robustness scoring to evaluate research approach resilience across scenarios

Available SOPs

Optional, no fixed order; the final leaf is always a sop.

SOP When to use
robustness-scoring Compute robustness index across scenarios with sensitivity analysis
scenario-driver-identification Identify key uncertainty drivers using PESTEL framework scanning
scenario-impact-assessment Assess each scenario's impact on the research approach across multiple dimensions
scenario-narrative-construction Build rich narratives for surviving morphological configurations using Shell method
scenario-synthesis Comprehensive scenario analysis report synthesizing all scenario work
timeline-projection Extrapolate research landscape timelines using trend analysis and milestone projection
Install via CLI
npx skills add https://github.com/yogsoth-ai/de-anthropocentric-research-engine --skill temporal-scenario
Repository Details
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