University research lab/educational institution

Make it yourself,
Add a sensor,
A robot that expands through experimentation.

The 4-wheel independent steering mobility platform is designed to continue from assembly training to research on autonomous driving, sensor fusion, and mobile manipulation.

Direct production typeProduction delivery typeTechnical data providedSensor configuration consultation

price Separate inquiry · Discuss depending on purpose, sensor and top mounting configuration

Example of manufacturing a RODIX mobile robot equipped with two robot arms and a camera
Extended Configuration CaseA practical production platform combining multiple robotic arms, cameras, and work upper structures.
4-wheel independent steeringSteering/driving control experiment for each wheel
ROS / ROS 2Education/research software connection
University delivery experienceProduction and delivery to domestic universities and educational institutions
Technical data includedBasic data provided for both delivery methods
ACTUAL BUILD RECORD

With actual production and driving videos
We show you the readiness for delivery.

These are actual production photos and driving GIFs included in the presentation, not concept images. You can directly check diagonal driving, crab walk, pivot turn, and zero turn movements.

Actual production of a four-wheeled independent steering robot base with wiring and electrical modules installed
4-wheel independent steering baseActual production stage consisting of mechanism, electronics and control module
An actual production of a mobile robot equipped with two robotic arms and a camera.
Example of expansion of multiple robot armsConfiguration that combines camera, monitor, and work upper structure
Actual diagonal driving of a four-wheeled independent steering robotdiagonal driving
Real crab walk of a 4-wheeled independent steering robotcrab walk
Actual pivot turn of a four-wheeled independent steering robotpivot turn
Real zero turn of a four-wheeled independent steering robotzero turn
Real 4-wheel independent steering drivingFour short rides extracted from the presentation's original GIF
TWO DELIVERY OPTIONS

According to the class method and research schedule
Choose an introduction method:

Whichever method you choose, we provide basic technical data necessary for understanding the platform and subsequent experiments.

01Direct production type

Students assemble it themselves
Learn structure and control.

We discuss the composition and scope of technical data to enable step-by-step assembly in class, capstone, and club projects.

  • Assembly sequence and component confirmation data
  • Battlefield/Communication Interface Guide
  • Basic operation check procedure
  • Consultation tailored to your class schedule

It is suitable for education and PBL classes where student participation is important.

CONFIGURABLE PLATFORM

Sensors appropriate to the research topic and
Configure upper equipment.

The items below are scalable examples. It is not a basic item, but is confirmed separately after checking the purpose of introduction, budget, and equipment owned.

LIDAR

Mapping, location estimation, obstacle recognition research

camera

RGB, depth, and stereo-based recognition and data collection

Inertial/Driving Sensor

IMU, encoder and odometry fusion experiment

Computing/communication

Research computer, controller and network configuration

Robotic arm/actuator

Combination of single/multiple robot arms and work devices

Safety/superstructure

Switches, protection and mounting frames tailored to the test environment

UNIVERSITY USE CASES

into one platform
Classes and research continue.

The control, navigation, simulation, and manipulation flows covered by the open technology ecosystem of ROS 2, Nav2, Gazebo, and MoveIt can be tailored to university projects.

01

Steering/Driving Control

Vehicle kinematics, path following, attitude control and controller comparison experiments.

02

Autonomous driving/SLAM

Map creation, location estimation and obstacle avoidance using lidar and cameras.

03

sensor fusion

Time synchronization and state estimation of IMU, encoder, and distance/image sensors.

04

mobile manipulation

Work planning and coordination of mobile base and single/multiple robot arms.

05

Simulation-actual vehicle connection

Step-by-step verification of models and control strategies created in a virtual environment in the real world.

06

Capstone·PBL

The mechanism, battlefield, control, and software teams work together to complete one result.

DELIVERY EXPERIENCE

In line with the university scene
We have made and delivered it.

Based on our experience manufacturing and supplying mobile research robots to various universities and educational institutions in Korea, we also organize class schedules and inspection methods. The name of the organization and the terms and conditions of the contract are disclosed only within the scope permitted for disclosure.

1
Check your goals

Class/research topics, exam space and schedule

2
composition consultation

Direct manufacturing or delivery of sensors and upper equipment

3
Production/inspection

Verify assembly or basic operation of selected range

4
data delivery

Check basic technical data and delivery configuration

ASK RODIX

From the configuration needed for the laboratory
We'll sort it out together.

The review will be expedited if you tell us your school/department, research or class purpose, desired introduction time, and required sensors and equipment you have. Detailed specifications and prices will be provided separately after confirmation of requirements.