AgentsPricingTechDemo

Isolated Frames vs. Self-Learning World Model

Traditional systems process each image in isolation. A self-learning world model continuously learns from your cameras—building memory, detecting anomalies, and predicting changes.

CapabilityTraditional VisionSelf-Learning World ModelThe Difference
LearningNo learning—processes frames independentlyContinuously learns patterns from every observationGets smarter over time
MemoryStateless—no memory between framesScene Memory + Evidence MemoryRemembers what's normal
PredictionNo prediction capabilityJEPA predicts future states in embedding spaceKnows what to expect
Anomaly DetectionRule-based, high false positivesLearned baseline → automatic novelty scoringMeaningful alerts only
Multimodal FusionSeparate pipelines per camera typeUnified 512-dim embeddings across all sourcesOne model for all cameras

Continuous Learning Pipeline

Every observation teaches the world model. It learns what's normal, detects deviations, and improves predictions—automatically.

Multimodal Observation

"Camera feeds → unified 512-dimensional embeddings"

Every frame from every camera is encoded into a unified embedding space. A truck looks the same whether captured by satellite, drone, or CCTV—the meaning is preserved.

How Self-Learning Works

Three layers: Visual Ingestion unifies all camera types. World Model Core learns and predicts. Intelligence Delivery outputs at any frequency.

Layer 1 - Visual Ingestion (All Cameras)

Unified Embeddings
512-dim meaning vectors
Satellite Sources
Weekly imagery → embeddings
Video Streams
RTSP/RTMP → real-time embeddings
Drone Feeds
Daily surveys → embeddings
IoT Cameras
Any visual source supported
Your Cameras
Connect any source

Layer 2 - Self-Learning Core

Scene Understanding
186+ categories learned automatically
Dual Memory System
Scene (normal) + Evidence (history)
Novelty Gating
Learns what's worth remembering
JEPA Predictor
Learns to forecast future states
Multi-Timescale Learning
Seconds → minutes → days → months
Anomaly Detection
Learned baseline → meaningful alerts

Layer 3 - Intelligence Delivery

Natural Language
Ask the world model questions
REST API
/ingest, /query, /predict, /anomalies
Frequency Framework
From real-time to monthly reports
Exports
GeoJSON, CSV, JSON, Webhooks
Edge Deployment
Learn on your hardware
Event Streams
ANOMALY_DETECTED, PATTERN_LEARNED

The Frequency Framework

Visual sources capture at different frequencies—from weekly satellite passes to real-time video. The world model learns patterns at every timescale.

Source Frequencies

Satellite: frames/week
Drone: frames/day
Scheduled capture: frames/hour
CCTV intervals: frames/minute
Live video: frames/second

Intelligence Frequencies

Trend analysis: per month
Pattern updates: per week
Daily summaries: per day
Operational status: per hour
Near real-time alerts: per minute
Real-time detection: per second

Higher-frequency sources serve ALL lower-frequency intelligence needs. A single CCTV stream can produce monthly trends AND real-time alerts.

World Model Architecture

The self-learning system that powers continuous intelligence.

Dual Memory System

Scene Memory

Learns 'what's normal here'—typical scenes, expected objects, routine patterns. Updated only when something genuinely new is observed.

Evidence Memory

Stores 'what exactly happened'—every detection with timestamps and confidence scores. Enables forensic queries across time.

JEPA Prediction Engine

Predicts in embedding space (meaning), not pixel space (appearance). Multi-timescale forecasting: fast (frame-to-frame), medium (seconds-minutes), slow (hours-days). When prediction ≠ reality → anomaly detected.

Prediction
≠
Reality
→
Alert

Novelty Gating

Not every observation becomes permanent memory. The novelty gate scores each observation: routine (auto-expires) vs. novel (permanently stored). This prevents memory bloat while capturing everything important.

Routine → Auto-expires
Novel → Permanent memory

Open Source Foundation

Our self-learning world model is built on open foundations. Powering the future of visual intelligence.