SYSTEM_ARCHITECTURE_V2.0

InsidetheKineticEngine.

A transparent look at our hybrid AI framework, multi-sensory data fusion, and the Open Foundry validation pipeline underpinning our predictive models.

Kinetic Engine Interface

01. Data Acquisition

Multi-Sensory Fusion Engine

We don't rely on GPR alone. Our systems sync hardware telemetry, visual data, and structural sensors into a single, cohesive spatial matrix, eliminating the blind spots of legacy inspection methods.

GPR Array Live

  • Depth Resolution Verified [x]
  • Layer Mapping Confirmed [x]
  • Frequency 400 MHz Center

Multi-channel GPR profiling to identify ballast and subgrade anomalies — the primary sensor in our data acquisition stack.

LiDAR & Point Cloud

  • Track Geometry Planned [→]
  • Surface Texture Planned [→]
  • Gauge Measure Targeted Integration

Precision surface mapping ensuring top-of-rail geometric data accurately correlates with subsurface GPR anomalies.

High-Speed Vision

  • Fastener Integrity Planned [→]
  • Tie Quality Planned [→]
  • Sync Rate Target: High-Speed

Visual feature extraction providing critical surface context (e.g., pumping mud) to validate and ground-truth GPR fouling indices.

02. Data Integrity

The Open Foundry Pipeline

An AI is only as good as its ground truth. We don't guess based on pixels; we rigorously correlate our predictive models against 12,000+ physical core samples pulled directly from the rail bed.

ACTIVE VALIDATION: Core Sample GT-1200
GPR Signal SignatureHigh Amplitude Attenuation
Physical FindingSaturated Mud Deposit (53cm)
Model Confidence Output85% MUD MATCH

Dataset Validation Checklist

Validation D1 [OK]
Validation D2 [OK]
Validation D3 [OK]
Ground-Truth Correlation[VERIFIED]
Validation D4 [OK]
Sample Check (GT-1200)[MATCHED]
Validation D6 [OK]
DATASET INTEGRITY STATUS
IN VALIDATION

03. Model Intelligence

AI Model Architecture

Our research models use a dual-architecture hybrid approach — combining spatial image analysis (CRNN) with structured numerical telemetry (XGBoost).

Deep Learning

CRNN Architecture

Convolutional Recurrent Neural Networks designed to parse the spatial hyperbola patterns within raw B-scan GPR radargrams.

Precision Rate83.4%
Primary Use Cases
Subsurface VoidsLayer Boundary Mapping
Machine Learning

XGBoost Framework

Extreme Gradient Boosting utilized to analyze structured, numerical A-scan data properties (amplitude, phase, frequency attenuation).

Overall Accuracy86.0%
Primary Use Cases
Ballast Fouling Index (BFI)Moisture Estimation
> model_training_pipeline.py
Research Phase
import sagemaker
from kinetic_fusion import DataIngest, OpenFoundryValidate

# Step 1: Ingest validated dataset (4,700km GPR + Ground Truth)
dataset = OpenFoundryValidate(source="s3://kinetic-verified-gt/")

# Step 2: Initialize Hybrid Estimators
crnn_estimator = sagemaker.estimator.Estimator(image_uri="kinetic-crnn-v2", instance_type="ml.p3.2xlarge")
xgb_estimator = sagemaker.estimator.Estimator(image_uri="xgboost-1.2-1", instance_type="ml.m5.xlarge")

# Output Metrics logged
> CRNN Validation Precision: 0.834
> XGBoost BFI Accuracy: 0.860
> HYBRID MODEL DEPLOYMENT READY

Join the Waitlist

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Strategy Copilot

Gemini 2.5 Flash

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Terminal initialized. I am your strategic copilot for the GPR Kinetic OS transition.
System Context: OpenFoundry architecture, Zero-Config Edge Agent connectivity, Competitor metrics (Loram/ENSCO) loaded.