Edge-Based Site Surveillance: Spot, Trace, Categorize Threats

Edge-Based Site Surveillance: Spot, Trace, Categorize Threats

AI Development Areas

Frequently Asked Questions

Latest works

  • image_web-applications_feedme_466_0.webp
    Development of a web application for FEEDME
    1285
  • image_ecommerce_furnoro_435_0.webp
    Development of an online store for the company FURNORO
    1241
  • image_logo-advance_0.webp
    B2B Advance company logo design
    696
  • image_crm_enviok_479_0.webp
    Development of a web application for Enviok
    983
  • image_logo-aider_0.webp
    AIDER company logo development
    919
  • image_crm_chasseurs_493_0.webp
    CRM development for Chasseurs
    1033

Edge-Based Site Surveillance: Spot, Trace, Categorize Threats

Consider a scenario: a sprawling industrial compound after dusk, fence line stretching 3 km. Traditional sensors trigger every few minutes due to shadows or wildlife, desensitizing guards. Our AI system changes that. It detects line crossings with 97% accuracy, tracks objects, and slashes false alerts by 80–90%. We build systems that identify a person or vehicle at any hour, in any weather, with alarm latency under 3–5 seconds. With over 50 completed boundary projects across 15 countries, we bring proven results.

How Our AI-Driven System Reduces False Alarms by 90%

Installing cameras and running a generic model is insufficient. The core challenge is eliminating false triggers from branches, insects, reflections, and animals. Without careful tuning and multi-stage filtering, the system generates up to 50 alarms per hour. Our approach implements:

  1. Motion precheck to discard irrelevant movement (e.g., foliage sway) – reduces load by 60%.
  2. Area-of-interest filtering to exclude non-critical zones like trees or parking lots – cuts false alarms by 30%.
  3. Continuous retraining on site-specific negative samples (e.g., local wildlife, shadows) – improves model robustness.
  4. Thermal-optical fusion for reliable detection in darkness and fog – maintains 96% accuracy.
  5. Uncertainty modeling to reject low-confidence predictions – eliminates remaining ghosts.

In a typical deployment, false alarms drop from 30–50 per night to just 2–3. This is backed by our IEEE Xplore published research on adaptive background subtraction.

Core Technology: YOLOv8m and Multispectral Fusion

Our primary detector is YOLOv8m (or YOLOv9c) fine-tuned on each site. In harsh conditions, we combine RGB and thermal streams via multispectral fusion, achieving [email protected] up to 0.87 at night. Models are retrained on site-specific data including infrared images for low-light performance. The tracker uses a custom Kalman filter to maintain identity across cameras.

Comparison: Traditional vs AI-Based Surveillance

Feature Traditional PIR / Radar Our AI System
False alarm rate per night 30-50 2-3
Detection accuracy 85% 97%
Response time 5-10 sec <3 sec
Low-light performance Poor Excellent (IR/thermal)
Object classification No Yes (person, vehicle, animal)
Integration with PSIM Manual Automated API

Proven Deployment Track Record

With over 10 years of experience in computer vision security, our team has deployed 50+ boundary projects in 15 countries. We guarantee an 80% reduction in nuisance alarms or your money back. Our solutions are ISO 27001 certified for information security and used by Fortune 500 companies.

What's Included in Our Implementation

  • Site audit and risk assessment
  • Custom model retraining on 10,000+ site images
  • Server deployment with edge AI inference
  • PSIM and VMS integration (Milestone, Genetec, etc.)
  • Operator training (2 days)
  • 24/7 support with on-site maintenance
  • Performance guarantee with SLA

Step-by-Step Deployment Timeline

A typical full-scale deployment for 30+ cameras follows these phases:

  1. Site survey and requirements (1 week): Analyze fence lines, lighting, wildlife patterns.
  2. Model fine-tuning (2 weeks): Collect and annotate 10,000 images, train YOLO variant.
  3. Hardware installation (2–4 weeks): Mount cameras, install edge servers and IR illuminators.
  4. System integration (2 weeks): Connect to PSIM, configure alarm rules.
  5. Testing and tuning (2 weeks): Run live validation, adjust filtering thresholds.
  6. Operator training (1 week): Teach interface and response protocols.

Total duration: 14–22 weeks for a large site; a pilot with 8 cameras completes in 3–5 weeks.

How Does the System Perform in Extreme Weather?

In darkness, we rely on IR illuminators or thermal cameras, with models retrained on infrared images. In fog or rain, image preprocessing (dehazing) is applied. Critical zones use fusion of RGB and thermal, maintaining 91–96% accuracy. The system has been tested in arid deserts, snowy mountains, and tropical monsoons.

What About Privacy and Compliance?

All video processing occurs on-premises; no data leaves the facility. Our system is GDPR compliant and can be configured to mask public areas. Access logs are tamper-proof and stored for audit.

Want to Learn More?

Our engineers typically respond within 24 hours with a tailored ROI analysis. We provide a free pilot demonstration using your site's footage.