Multi-Camera Human Safety Monitoring for Robotic Work Areas
Real-time human detection for high-risk industrial zones with per-camera ROI, event recording, alarm logic, health monitoring, watchdog behavior and PLC output integration.
AI Engineer at Hesham Industrial Solutions, focused on production-grade computer vision, real-time video analytics, industrial safety systems, multi-camera AI, PLC integration, backend engineering and deployment-ready Windows applications.
AI Engineer • Hesham Industrial Solutions
My work sits at the intersection of computer vision, industrial safety, edge computing, backend systems and automation. The objective is not just model accuracy—it is reliable end-to-end operation.
Real-time human detection for high-risk industrial zones with per-camera ROI, event recording, alarm logic, health monitoring, watchdog behavior and PLC output integration.
Driver monitoring and PPE compliance system supporting multiple cameras, configurable detection timers, per-camera settings, ROI, voice alerts, snapshots, statistics and hardware-aware GPU/CPU operation.
Multi-camera face recognition workflow designed for gate and assembly scenarios with line-crossing events, employee enrollment, presence tracking, missing-person lists and large-population attendance logic.
Explored motion-aware video models and real-time inference pipelines to improve recognition of smoke-like temporal patterns while reducing false positives from static backgrounds.
Connected AI decisions to Siemens and Mitsubishi PLC logic using digital I/O, SSR interfaces, PROFINET-oriented workflows and safety-state logic for machine and operator interaction.
Built and refined Django/FastAPI applications, role-based workflows, PostgreSQL deployments, media storage, reporting, installers and Windows deployment pipelines for operational software.
The hardest part of industrial AI is rarely the model alone. Reliability, reconnect behavior, latency, storage, alarms, camera health and operator usability decide whether a system survives production.
Designed for continuous industrial operation where camera disconnects, frame lag, event logging and PLC signaling all have to be handled safely.
Focused on reducing false alarms while keeping UI and detection behavior understandable for operators.
Worked on recognition logic for environments where several people can enter simultaneously and identity duplication must be controlled.
I choose technologies around latency, reliability, maintainability and deployment constraints rather than building around a single framework.
YOLO, real-time detection, tracking, face recognition, PPE, DMS, ROI logic, RTSP pipelines, temporal video models.
NVIDIA GPU inference, CPU fallback, model optimization, multi-camera orchestration, PyInstaller, Windows services.
Python, FastAPI, Django, REST APIs, SQLite, PostgreSQL, authentication, role-based systems.
Siemens S7-1200, Mitsubishi PLC, PROFINET concepts, Modbus RTU, ESP32, SSR and digital I/O integration.
Watchdogs, auto-reconnect, process recovery, storage management, health telemetry, logging and fault handling.
Responsive HTML/CSS/JS, dashboard UX, kiosk interfaces, camera grids, settings and operational workflows.
Windows 11, installers, EXE packaging, local networks, Render, PostgreSQL and production configuration.
Founder of Xenors, writing practical content around AI, software, automation and technology.
My focus has increasingly moved from software prototypes toward AI systems that must function continuously in industrial environments.
Developing industrial computer-vision and automation systems including human safety monitoring, PPE/DMS detection, multi-camera AI, face recognition and PLC-connected applications.
Building a technology knowledge platform focused on AI, software development, industrial automation, finance technology and practical technical education.
Developed practical experience with Python, Flask/Django, databases, authentication systems, backend architecture and full-stack product development while pursuing Computer Science Engineering.
I start with the operational problem: what can fail, what must recover automatically, what the user needs to understand instantly, and what the hardware can realistically support. Then I design the AI, backend, UI and control logic around those constraints.
Low latency, stable camera pipelines, accurate event logic, clean deployment, useful logging, predictable recovery behavior and interfaces that an operator can use without needing to understand the AI underneath.
My strongest work is in computer vision, industrial safety, real-time video systems, AI-assisted automation and deployment-focused engineering.
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