Research Framework

Prediction Intelligence

Forecasting systems should do more than generate predictions. They should understand whether a task is predictable, diagnose why forecasts fail, select how to strengthen weak links, and know when deeper machine reasoning or human participation is required.

PDEC Research Framework Predictability Analysis–Diagnosis–Enhancement–Calibration
From task understanding to trustworthy action
  1. Predictability Analysis Where and when is forecasting difficult?
  2. Failure Diagnosis Why does the model fail?
  3. Adaptive Enhancement How can the weakness be repaired?
  4. Risk Calibration When should the system trust, reason, defer, or collaborate?
Research Objective

From Forecast Generation to Predictive Intelligence

For complex systems, an effective forecasting system must reason about task predictability before modeling, diagnose the root cause of failure after evaluation, repair the specific capability gap, and calibrate both forecast risk and decision responsibility before acting.

PDEC Framework

Four Layers of Prediction Intelligence

Each layer answers a distinct research question and produces an explicit signal for the next decision.

01 Predictability Analysis

Where and when is forecasting difficult?

Characterize how forecastability varies across entities, horizons, regimes, and contexts before choosing a forecasting strategy.

  • Entity- and group-level heterogeneity
  • Horizon- and regime-dependent difficulty
  • Context-specific uncertainty and risk
Research output Predictability map
02 Failure Diagnosis

Why does the model fail?

Attribute forecast failure to insufficient historical support, missing context, model capability gaps, or irreducible uncertainty.

  • Data support and distribution shift
  • Missing events, knowledge, or environment signals
  • Representation, reasoning, or adaptation limits
Research output Root-cause attribution
03 Adaptive Enhancement

How can the weakness be repaired?

Repair the diagnosed weakness through retrieval, context and knowledge integration, tool-augmented reasoning, transfer, or task-specific adaptation.

  • Retrieve analogous history and external evidence
  • Integrate context, knowledge, and causal clues
  • Escalate model capacity only when necessary
Research output Targeted capability repair
04 Risk Calibration

When should the system trust, reason, defer, or collaborate?

Calibrate forecast risk and result reliability, then route each task to the least complex decision process that remains sufficiently trustworthy.

  • Confidence, calibration, and selective prediction
  • Cost-aware machine reasoning and model collaboration
  • Human participation for consequential uncertainty
Research output Reliability-aware routing
Failure Taxonomy

Diagnose the Weak Link Before Adding Complexity

H

Historical Support Gap

Sparse observations, short histories, rare regimes, or weak analogical support.

C

Context Gap

Missing events, policies, environment changes, domain knowledge, or user intent.

M

Capability Gap

Insufficient representation, reasoning, transfer, adaptation, or tool-use capability.

U

Irreducible Uncertainty

Intrinsic randomness or unobserved drivers that cannot be repaired by a larger model.

Decision Policy

Risk-Aware Decision Routing

Match reasoning cost and human involvement to forecast difficulty, risk, and calibrated reliability.

01

Small-Model Forecasting

Use efficient specialized models when evidence is sufficient and reliability is high.

02

Tool-Augmented Reasoning

Retrieve evidence, call domain tools, or run structured analyses for repairable gaps.

03

LLM Collaboration

Invoke deeper semantic reasoning and model collaboration for complex contexts.

04

Human-in-the-Loop Decision

Defer consequential, ambiguous, or poorly calibrated cases to human judgment.

If reliability remains below the decision threshold, abstain, escalate, or request human review.

Research Destination

Interpretable Forecasting & Trustworthy Decision Support

Prediction Intelligence turns a forecast into an accountable process: the system explains what is predictable, why it may fail, how it was strengthened, and why a particular machine or human decision path was selected.