AI-Powered Damage Detection & Governance System

Real-Time Inbound Damage Classification & Escalation Pipeline

Overview

Led the design and deployment of an AI-powered damage detection and reporting system for inbound logistics, transforming manual, delayed reporting into a real-time, governance-aligned decision pipeline.

The system combined computer vision and anomaly detection with a role-based reporting interface, enabling rapid identification, classification, and escalation of shipment damages while maintaining auditability, accuracy, and compliance.

This work operationalized computer vision and anomaly detection within a governance-aligned pipeline, enabling scalable, auditable, and human-validated decision-making.

Problem

Inbound damage reporting relied on manual documentation and delayed workflows, resulting in:

  • Reporting delays ranging from hours per incident

  • Inconsistent damage classification and documentation quality

  • Limited visibility into real-time operational issues

  • High risk of SLA non-compliance and customer dissatisfaction

  • Lack of auditability and governance over damage assessments

These challenges made it difficult to ensure consistent, accurate, and defensible reporting at scale.

Approach

AI Detection & Classification Pipeline

Built an AI-powered detection and classification pipeline designed for real-time operational use, human validation, and governance compliance.

  • Integrated computer vision models trained on historical image datasets

  • Implemented anomaly detection to identify non-standard damage patterns

  • Enabled real-time alerts and classification scoring

Human-in-the-Loop Validation

Balanced automation with human oversight to ensure accuracy and accountability.

  • Used AI for initial detection and severity scoring

  • Required human validation for final confirmation and escalation

  • Designed workflows to support rapid review without slowing operations

Governance & Auditability

Embedded governance, auditability, and model accountability directly into the system architecture:

  • Implemented confidence scoring thresholds to manage false positives

  • Designed audit trails for all model decisions and user interactions

  • Conducted bias and data quality reviews to ensure consistent performance

Workflow Integration & Adoption

Aligned the system with real-world operational workflows.

  • Conducted multi-site workflow analysis to map current-state processes

  • Designed role-based interfaces for dock workers, supervisors, and QA managers

  • Led usability testing and training to support adoption and scalability

Key Tradeoffs

  • Automation vs. Human Verification

  • Sensitivity vs. False Positives

  • Explainability vs. Model Complexity

  • Scalability vs. Data Quality Control

Decisions prioritized accuracy, auditability, and trust over fully automated optimization.

Outcome

  • Reduced reporting time from hours to under 2 minutes per incident

  • Increased damage classification accuracy by 88%

  • Improved SLA compliance and customer trust through consistent reporting

  • Delivered a governance-compliant AI pipeline with auditability and explainability

  • Enabled scalable, real-time damage monitoring across operations

Key Capabilities Demonstrated

  • End-to-End AI System Design (Computer Vision + Workflow Integration)

  • Human-in-the-Loop Decision Architecture

  • AI Governance & Auditability Design

  • Real-Time Operational AI Implementation

  • Cross-Functional AI Product Leadership

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