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Project Overview

Project Overview

EdgeGrid is a secure, entirely offline, on-premise RTSP camera surveillance system built for a confidential military installation in Bangladesh. Running on an NVIDIA Jetson Orin Nano, it pulls feeds from Hikvision IP cameras over an isolated LAN and uses custom YOLO computer vision models to detect and classify tactical threats in real time - distinguishing allies from armed civilians, triggering local alarms, and autonomously deploying a UAV for high-priority incidents. All video processing, recording, and incident logging happens entirely on the edge. No cloud. No server room. No internet required.

Problem & Solution

Challenges & What TDI Built

01

Remote Terrain

Critical zones had to be monitored continuously without dependable internet access.

02

Limited Footprint

The site needed edge intelligence without a cloud pipeline or traditional server room.

03

Autonomous Response

TDI paired local AI detection with alarms, recording, and UAV dispatch for immediate action.

The Challenges

Manual perimeter monitoring across rugged terrain - slow, error-prone, and impossible to sustain 24/7.

Too few personnel to cover all critical zones and blind spots simultaneously.

Remote location with weak or no broadband - cloud-based solutions completely ruled out.

No physical space for a dedicated server room or traditional desktop infrastructure.

Zero automated night detection - threats could go entirely unnoticed during off-hours.

What TDI Built

On-edge YOLO models auto-detect threats on tactical walking paths - no human in the loop.

Centralized PyQt multi-camera grid - one operator covers every zone from a single screen.

100% air-gapped architecture - all processing and logging runs on an isolated local LAN.

Entire pipeline on a single NVIDIA Jetson Orin Nano - compact, low-power, no server room needed.

Instant local alarm triggers - sirens and light panels fire the moment a threat is identified.

Measurable Results

Business Impact

100% Automated Detection

Replaced manual surveillance on all high-risk walking paths with local YOLOv8 frame processing - threats flagged instantly, no operator required.

Multiplied Personnel Reach

Limited on-site staff now cover every critical blind spot simultaneously from a single unified display - dramatically reducing manpower gaps.

Zero Internet Dependency

Fully operational in remote locations with no broadband. All threat data and video logs secured inside the local environment with zero cloud-leak risk.

Zero Server Room Footprint

The entire surveillance pipeline runs on a single low-power edge device - no racks, no cooling, no dedicated room required.

Autonomous UAV Response

On high-priority threat detection, a tactical drone auto-deploys and tracks the target across rugged terrain - continuous visual reconnaissance without human dispatch.

12-15 Days New Features

Modular architecture allows new detection capabilities to be deployed within 12-15 working days, making the system continuously improvable in the field.

Engineering

Core Technologies

HARDWARE
NVIDIA Jetson Orin NanoHikvision IP CamerasPoE SwitchesSSD / HDD StorageSirens & Light PanelsTactical UAV (Drone)
AI & CV
YOLOv8Computer Vision
LANGUAGES
PythonPyQt
VIDEO & PROTOCOLS
RTSPOpenCVGStreamer
Who Built This

Team Involvement

1
Lead Engineer
1
Backend & PyQt Engineer
1
CV Engineer
1
Data Annotator
1
IoT Integration Engineer
2
On-Site Support Engineers
Project Timeline

Development Phases

PHASE 01 • JAN W1 - FEB W4

Data Collection & Annotation

Collected, pre-processed, and annotated the on-site tactical dataset across 8 weeks - building the foundation for accurate on-edge threat detection in real military environments.

PHASE 02 • FEB W1 - MAR W2

Model Training & Evaluation

Trained, rigorously evaluated, and finalized the YOLOv8-based threat detection model - validated against real tactical footage to ensure reliable ally vs. threat classification.

PHASE 03 • FEB W3 - MAR W2

Architecture & Pipeline Design

Designed the full system blueprint, RTSP streaming pipeline, and inference architecture before a single line of code was written - ensuring a clean, scalable foundation.

PHASE 04 • FEB W4 - MAR W3

Core System Development

Built the full codebase, multi-camera PyQt UI, threat severity engine, and real-time distance measurement system - transforming the architecture blueprint into a working surveillance platform.

PHASE 05 • MAR W3 - MAR W4

IoT Integration & On-Site Deployment

Connected AI outputs to physical hardware - sirens, light panels, and the autonomous UAV system. On-site engineers mounted cameras on trees and ran cable through rugged terrain to complete the live deployment.

Currently Active
Platform Capabilities

Core Features

AI Threat Detection

On-edge YOLO models scan tactical walking paths and distinguish allies from armed threats in real time - dynamically scoring each incident as High, Medium, or Low based on weapon lethality and proximity.

Virtual Fences

Operators draw digital tripwires directly on live RTSP feeds - any person or vehicle crossing the line triggers an immediate alert, no manual monitoring required.

Crowd Density Monitoring

Detects sudden surges in people within a zone and flags anomalies that frequently precede physical altercations, stampedes, or coordinated security breaches.

Autonomous UAV Dispatch

On a high-priority threat alert, a tactical drone auto-launches and receives live threat coordinates - tracking and maintaining continuous visual reconnaissance across rugged terrain without human dispatch.

Blind-Spot Elimination Grid

A low-latency PyQt multi-camera matrix consolidates every critical zone into a single unified display - allowing limited personnel to monitor the full perimeter simultaneously.

Air-Gapped Recording

Continuous secure local storage with automatic management - all video logs and incident data stay entirely on-premise with absolute zero cloud exposure or external network risk.

What Is Next

Future Prospects

01

Loitering detection - flags any person or vehicle remaining in a restricted zone beyond a predefined time threshold

02

Abandoned object detection - identifies static items not part of the original scene background, ideal for spotting potential security risks

03

RTSP blindness alert - auto-detects if a camera feed goes black or a lens is deliberately covered, a common precursor to a security breach

04

Multi-tiered behavioral threat scoring - cross-references visual cues with temporal behavior patterns like loitering, sudden movement toward entry points, or static aiming

05

Scalable rollout across additional installations - modular architecture enables new detection features to be deployed within 12-15 working days at any new site