Physical AI & ROS 2 Native | CR #1642883 (Muscat)

Physical AI & Industrial Automation Engineered in Oman

Infusing Japanese enterprise robotics quality assurance with modern Embodied AI & Neural Control Policies. Built for high-vibration manufacturing and autonomous off-grid operations.

Engineering Dual-Focus Pillars

Architected to deliver immediate business ROI while adhering to rigorous software and mechatronic engineering standards.

Industrial Automation & Systems Integration

Executive / Business View
  • High-Throughput Workcells: Maximized parts-per-minute (PPM) yield.
  • Zero-Downtime Retrofits: Modular integration over legacy hardware lines.
  • Unified SCADA/PLC: Direct shop-floor-to-cloud operations monitoring.
  • Multi-Axis Kinematics: Heavy-payload packaging and precise assembly.
Technical / Architecture View
  • Yaskawa / Realman / SO101 manipulator kinematic tuning
  • Siemens / Allen-Bradley Ladder & Structured Text (ST)
  • PROFINET / EtherNet/IP / MQTT deterministic bus networks
  • Safety interlocks compliant with ISO 13849-1 / SIL 2

Autonomous Mobility & Custom R&D

Executive / Business View
  • Self-Navigating Logistics Rovers: Reduced internal material transport cost.
  • Rugged Off-Grid Inspection: Autonomous monitoring in hazardous environments.
  • Rapid Hardware Prototyping: PCB design and mechatronics in weeks.
  • Remote Fleet Operations: Browser-based teleoperation without physical risk.
Technical / Architecture View
  • ROS 2 (Jazzy Jalisco) + Nav2 & SLAM Toolbox
  • micro-ROS bridge on Teensy 4.1 @ 600MHz (FreeRTOS)
  • Low-latency WebRTC video/telemetry pipeline via WebSockets
  • Persistent udev mapping via /dev/v4l/by-id/ for camera isolation

Physical AI & Neural Control Policies

Moving beyond rigid, hand-coded trajectories into adaptive neural networks that learn, reason, and manipulate physical objects in complex environments.

01

Diffusion Policies & Imitation Learning

Deploying state-of-the-art Hugging Face LeRobot architectures. Robots learn intricate physical manipulation tasks directly from human teleoperation demonstrations without manual trajectory programming.

02

Edge AI Acceleration & Path Tracking

Low-latency neural network inference on embedded compute units. Optimized real-time path-tracking controllers, vision-language-action (VLA) pipelines, and sensor-fusion navigation.

03

Sim-to-Real Hardware Transfer

Robust hardware-in-the-loop (HIL) testing and microcontroller bridging. Bridging high-level PyTorch models down to Teensy 4.1 micro-ROS execution in under 20 milliseconds.

Internal Flagship Platform

Maha Bot: Autonomous Logistics Rover

Engineered specifically for harsh desert ambient temperatures and rugged facility layouts, Maha Bot combines real-time micro-ROS low-level actuation with cloud-linked WebRTC teleoperation.

Middleware Framework ROS 2 Jazzy Jalisco
Embedded MCU Teensy 4.1 (micro-ROS)
Control Layer WebRTC
Hardware Isolation udev /dev/v4l/by-id/
MahaBot-Live-Feed :: CAM_01 [STEREO]
CAM_01: FRONT_STEREO FPS: 60
WebRTC Connected Latency: 14ms
dynamic vector
TOPIC: /cmd_vel [linear.x: 0.8m/s, angular.z: 0.0rad/s]
Engineering Pedigree

Japanese Enterprise Standards × Global AI Recognition

Orynx Robotics is founded by senior Mechatronics Engineer Mohamed Karim Ziadi, bringing years of tier-1 Japanese enterprise robotics experience from Tokyo and Kanagawa directly to Oman's industrial sector.

Ex-LexxPluss (Kanagawa, Japan) AMR QA & Battery Charger Testing
Ex-TELEXISTENCE (Tokyo, Japan) Teleoperation & Hardware Verification
Ex-Mujin Inc. (Tokyo, Japan) Industrial Arm & Staging Engineering
Global AI Awards AMD Robotics (3rd) & LeRobot (21st) 2025
Rigorous Reliability Protocols
  • DFMEA & Durability Verification: Built-in fault tolerance developed across Japanese autonomous vehicle lab environments.
  • Comprehensive QA Test Scenarios: Subassembly & whole-robot validation ensuring 99.9% uptime on factory floors.
  • Custom PCB & Mechatronics Prototyping: KiCad, Altium, Onshape, Fusion360, and CNC/laser machining.

High-Vibration Isolation & Hardware Stability

Software architectures engineered so physical shocks never compromise software execution.

01

Deterministic Device Links

Standard dynamic Linux device indexing (/dev/video0) fails under high-vibration re-enumeration. We enforce persistent symlinks via /dev/v4l/by-id/ and custom udev rules for failure-proof hardware bindings.

02

Real-Time Microcontroller Bridging

By leveraging micro-ROS running natively on 32-bit ARM Cortex-M7 (Teensy 4.1), motor control loops run deterministically at sub-millisecond rates, isolated from high-level computer vision processing.

03

Low-Latency Remote Operations

Custom browser-integrated dashboard leveraging nipplejs for dynamic touchscreen control and WebRTC peer-to-peer data channels for seamless operator control anywhere in Oman.

Schedule a Technical Discovery Call

Speak directly with our senior robotics engineers. We will analyze your site requirements, evaluate payload dynamic constraints, and propose a tailored deployment roadmap.

30-Minute Architecture & Feasibility Assessment
Direct access to Lead Mechatronics & ROS Developers
Custom Integration Cost & Timeline Estimates
Live Availability

Orynx Strategy & Discovery Session

Select an available 30-minute slot directly on Karim's calendar.

30 min or 60 min slots
Google Meet Video Link
Open Calendar & Pick a Time → Automatic Google Meet invite & calendar confirmation sent immediately.