48Industries
500+Subsystems
1000+Projects
18Years
ARG Robotics

ARG Smart Robots

Four robot families built on one integrated, proven industrial ecosystem.

Integrated ARG ecosystem

Shared infrastructure across all robots

The robot family draws on shared ARG devices, industrial protocols, cloud services and AI. Sensors, controllers and software integration are selected for each model’s mission. Images are design renders; weight, speed, battery life and prices in the cards are design targets.

465
hardware devices
50+
industrial protocols
33+
AI services
5
cloud microservices
1000+
field installs
$0
infra cost

Shared advantages of every robot

Phoenix industrial brain

A proven PLC/DCS with 350 ACVs, 100 coupling rules, a BASIC interpreter and 128 dashboard widgets.

50+ industrial protocols

Speaks to any device: Modbus · SNMP · BACnet · KNX · PROFINET · HL7 … (80+ OIDs, 100+ registers).

33+ AI services + vision

Predictive maintenance (94%), anomaly detection and YOLO/face recognition — on-prem, with $0 AI cost.

Real predictive maintenance

The robot reads devices’ digital data and predicts failures — not just visual inspection.

100% indigenous, sanctions-proof

60–85% cheaper than imports, no Western dependency, locally made parts.

Offline + Persian + 1000+ installs

Offline (SLAM) navigation, full Persian support, and a 1000+ install support network.

NOVEXA / ROBOTHUB / FIRMWARE

From user interface to robot motion: a traceable path

In the Scout / RobotHub implementation, the user interface, communication gateway and motion controller have distinct responsibilities. The Hub carries telemetry and commands; firmware handles motion calculations and actuators.

  1. 01

    Novexa

    Control interface, robot state and user settings

    HTTP / JSON

  2. 02

    RobotHub

    FastAPI, robot-scoped routing, request/response and telemetry fan-out

    WebSocket / Protobuf

  3. 03

    Firmware

    Mode, gait, kinematics, IMU and servo control

    ESP32 / NVS

  4. 04

    Body & sensors

    Joints, actuators and sensor data, according to model hardware

    Motion / Feedback

Feedback returns from firmware and IMU through RobotHub to the user interface. Hub message acceptance is distinct from completed physical motion; responses and telemetry track the outcome.

Control and communication mechanisms

Typed command path

UI JSON commands become Protobuf messages, with defined paths for movement, mode, gait, joint angles and servo settings.

Telemetry & connectivity

RobotHub caches the latest message of each telemetry type and fans it out to UI subscribers. Ping/pong and last-seen tracking expose connection state.

Correlated requests

Correlation IDs match requests to the same robot’s response for firmware feature discovery, system information, and IMU calibration; the Protobuf contract also defines file-operation messages.

Servo calibration

Each servo has a PWM centre, direction, reference angle, conversion factor and travel limits. UI channel numbering is translated to firmware conventions; settings persist in device NVS.

Firmware motion & balance

REST, STAND and WALK modes, TROT and CRAWL gaits, and IMU input belong to the robot control layer. Hub balance-gain configuration is separate from motion-command generation.

Poses & feature discovery

Named poses are stored in the Hub. Feature responses describe firmware versions and camera, IMU, servo and other capabilities for compatible controls.

Select the robot for a defined mission

Operating terrain, payload, sensors, mission duration and existing-system integration define model selection and project scope. The RobotHub architecture describes the Scout implementation; each family’s capabilities depend on its configuration.