ROBOTLAR.ORG ENGINEERING

R&D & Engineering

Selling the robot is where our work starts. Our real job is building the software and integration layer that turns a robot into a working mission: navigation, teleoperation, embedded autonomy and operations software.

CAPABILITY AREAS

Six Field-Validated Engineering Tracks

01

Autonomous Navigation

LiDAR-inertial odometry (FAST-LIO class), Nav2-based path planning, relocalization and map management. An end-to-end navigation stack built and field-validated on a wheeled quadruped: mapping, route following, obstacle avoidance and dock-based localization.

02

Teleoperation & Remote Command

Low-latency WebRTC video with browser-based driving; humanoid teleoperation via XR headsets. Multi-layer safety: an ARM/DISARM-disciplined command path, heartbeat watchdog, forward-obstacle protection and software e-stop.

03

Embedded Autonomy

An architecture where navigation and mission execution run entirely on the onboard NVIDIA Jetson, with no external PC in the loop. Watchdog supervisor, per-service auto-restart and self-check at boot.

04

RL Locomotion & Simulation

Isaac- and MuJoCo-based reinforcement learning pipelines, sim-to-real transfer and locomotion/balance policy development on the Unitree RL Gym ecosystem. Open to academic collaborations and customer POCs.

05

Fleet & Operations Software

A browser-based command panel: live telemetry, camera streams, map and mission planning, patrol routes, event logs and reporting. The interface layer that lets an operations team run robots like shift equipment.

06

SDK / API & Systems Integration

Low-level control via unitree_sdk2 and ROS 2, DDS networking, multi-host communication and enterprise integrations (access control, IoT, reporting). Mission APIs and floor-flow integration on the Pudu fleet.

ENGINEERING PROCESS

From Survey to 24/7 Operations, Against Measurable Acceptance Criteria

1
Survey

Site, mission and acceptance criteria

2
Architecture

Platform, sensor and software selection

3
Prototype

End-to-end validation on a controlled site

4
Deployment

Safety layers + operator training

5
Operations

24/7 monitoring, maintenance and iteration

Our safety principles apply at every stage: staged commissioning, speed limits, watchdog supervision and an e-stop that works in every scenario.

OPEN-SOURCE ECOSYSTEM

Our Focus Areas in the Open-Source Ecosystem

We actively develop and evaluate within the open-source robotics ecosystem around ROS 2, Nav2 and modern RL frameworks. In enterprise deployments we validate, harden and adapt these building blocks to your facility — and we'll build a solution of the same depth for you.

Focus AreaHow We Use It
Official Unitree toolchain (unitree_sdk2, unitree_ros2)The base layer of all our ROS 2 integrations
RL locomotion training (Isaac / MuJoCo pipelines)Core of our locomotion policy training pipeline; sim-to-real transfer
Quadruped autonomous navigationOur architecture benchmarking and field validation work
Learning-based navigation (VLN-class models)Evaluation of deployment approaches
Wheeled platform driver layer (Go2-W class)Our low-level control work on hybrid platforms
Autonomous carrier scenariosEvaluated in logistics mission designs
Deep-RL locomotion policiesOur policy architecture research
Constraint-aware navigationOur keep-out zone and virtual wall approaches

VALUABLE PARTNERS WE PROUDLY SERVE

Talk to the team behind these deployments.

Let our enterprise sales and engineering team plan your solution.

Deploy Autonomy That Works at Your Facility

Describe your mission; get a clear engineering proposal with survey, architecture and acceptance criteria.