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Enterprise AI Analysis: Measuring What Matters: Scenario-Driven Evaluation for Trajectory Predictors in Autonomous Driving

Enterprise AI Analysis

Measuring What Matters: Scenario-Driven Evaluation for Trajectory Predictors in Autonomous Driving

This paper introduces ED-Eva, a novel scenario-driven evaluation pipeline for trajectory predictors in autonomous driving. Unlike traditional error-based metrics, ED-Eva adaptively assesses predictor performance by balancing accuracy and diversity based on the criticality of the driving scenario. This ensures that selected predictors contribute most effectively to the self-driving vehicle's (SDV) driving performance, enhancing safety, efficiency, and passenger comfort in complex interactive environments.

Executive Impact Snapshot

0% Improvement in Correlation with SDV Performance
0M Annual potential savings through optimized trajectory prediction
0 Real-world scenarios tested in evaluation
0+ Predictor models evaluated in closed-loop benchmark

Deep Analysis & Enterprise Applications

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89% Precision of ScenarioNN in identifying critical scenarios

ED-Eva vs. Traditional Metrics (Correlation with Driving Performance)

Metric MTR Autobot Wayformer
ED-Eva (GAD, ADE) +0.2200 +0.2652 +0.1843
ADE -0.3399 -0.3737 -0.3991
FDE -0.3462 -0.3966 -0.4202
Diversity (GAD) -0.5905 0.6058 -0.5871

Higher positive values indicate stronger correlation with improved driving performance. Negative values for error metrics indicate that lower error (negative value) correlates with better performance.

Enterprise Process Flow

Observe Scenario (t=n)
Predict Trajectories
Classify Scenario Criticality
Calculate GAD & Error
Combine Scores (Pc, 1-Pc)
Plan Ego Trajectory (t=n+1)
Evaluate Driving Performance

Impact of GAD on Diverse Predictions

A key finding is how the GMM-Area Diversity (GAD) metric quantifies the spread of predicted trajectories. In a critical intersection scenario, a predictor exhibiting higher GAD (e.g., GAD=0.346) is favored, indicating a better anticipation of multiple plausible agent maneuvers. Conversely, in simpler highway scenarios, a lower GAD (e.g., GAD=0.056) combined with high accuracy is preferred. This adaptive weighting, driven by the ScenarioNN classifier, ensures that the evaluation aligns with the real-world demands of different driving contexts, leading to safer and more robust decisions by the SDV planner. Our experiments show that ED-Eva consistently achieves higher correlation with actual driving performance compared to traditional error-based metrics, highlighting its potential for selecting predictors that truly enhance overall system safety and efficiency.

Key Challenges Identified

  • Traditional error-based metrics (ADE, FDE) do not reflect actual impact on SDV driving performance.
  • Difficulty in quantifying prediction diversity for robust decision-making in complex interactive scenarios.
  • Lack of scenario-aware evaluation that dynamically balances accuracy and diversity based on context.

Proposed Solutions & Innovations

  • Proposed ED-Eva: scenario-driven evaluation balancing Error and Diversity.
  • Introduced GMM-Area Diversity (GAD) to quantify prediction spread robustly.
  • Developed ScenarioNN classifier to dynamically weigh accuracy and diversity based on scenario criticality.

Advanced ROI Calculator

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Potential Annual Savings $0
Annual Hours Reclaimed 0

Implementation Roadmap

A structured approach to integrating AI-powered trajectory prediction within your existing systems.

Phase 1: Data Integration & Scenario Classification

Integrate real-world driving data and train the ScenarioNN for robust criticality assessment.

Phase 2: Predictor Calibration & GAD Implementation

Calibrate existing trajectory predictors and implement the GMM-Area Diversity metric.

Phase 3: Closed-Loop System Integration & Testing

Integrate ED-Eva into the SDV planning pipeline and conduct extensive closed-loop testing.

Phase 4: Performance Validation & Deployment

Validate improved driving performance and deploy optimized predictors.

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