ADCU - Autonomous Driving Control Unit


Ecotron ADCU is a cutting-edge platform with powerful computational capability tailored for autonomous driving system. The ADCU receives data from multiple sensors, e.g. cameras, radars, LiDAR, and cloud data (V2X), and acquires vehicle dynamic data from VCU so that it can support decision-making and route planning algorithms. The outputs of the ADCU will be used for the driving status feedback, vehicle control, and various autonomous driving features. Ecotron ADCU can be customized according on customer vehicle parameters and components input specifications.

EAXVA05: The Newest Generation of ADCU Launched


EAXVA05 - Based on Double NVIDIA Jetson Xavier

Designed to Support L4 Autonomous Driving

Ecotron’s new generation ADCU, EAXVA05, is an intelligent computing platform designed specifically for autonomous driving systems. EVXVA05 is equipped with 2 NVIDIA Xavier chips and 1 Infineon TC297 chip. With basic software and development tools, developers can safely, conveniently, and efficiently build low-speed L4-level autonomous driving systems in confined areas.

NVIDIA designs Xavier specifically for embedded intelligent systems. Xavier supports autonomous driving functions such as sensor fusion, environment perception, and path planning. Infineon TC297 has a TriCore™ architecture and has an operating frequency of 300MHz. Moreover, it has 728KB + 8MB capacity and ECC (error correction coding) RAM protection. Ecotron’s ADCU is designed based on the ISO26262 standard and supports ASIL-D safety level requirements. Engineers can develop vehicle control and functional safety-related strategies based on this MCU.

EAXVA04 - Based on NVIDIA Jetson Xavier

Designed to Support L3/L4 Autonomous Driving

Powered by NVIDIA Xavier, Ecotron ADCU EAXVA04 targets for L3/L4 Autonomous Driving. EAXVA04 is not only able to perceive and interpret the vehicle surrounding environment via different kinds of sophisticated sensors with decent processing speed and high accuracy, but also, based on the acquired data, implement advanced AI algorithms and vehicle control strategies to implement autonomous driving.

Essentially, ADCU platform EAXVA04 provides a solution making it possible to integrate ADAS/Autonomous system design/implementation and vehicle control strategy design/implementation within a single unit, greatly enhancing the overall system integrity. In addition, multiple types of communication ports meet the requirements of most autonomous driving sensors available on market nowadays - LVDS channels of the ADCU can be used for vision-based applications; CAN bus and Ethernet ports provide capabilities for integrating radar, LiDAR and all other CAN or Ethernet-based sensors.

Ecotron ACU-Autonomous-driving Control Unit


Local Development Tool Kit

Ecotron ADCU has a set of development tools installed on the local target, including gcc, make, CMake, catkin, Bazel and gdb debugger. Application developers can develop user space applications directly on the target controller.



EcoCoder-AI, Automatic Code Generation Tool

EcoCoder-AI is a powerful automatic code generation library added on MATLAB/Simulink that links directly to the target controller. EcoCoder-AI integrates automatic code generation, compilation and one-click generation of executable files. It can directly convert the Simulink models into an executable program for the target controller and download to the target controller. It enables the use of Simulink Library, and greatly facilitates controls engineers to graphically develop applications based on autopilot middleware.

Also, EcoCoder-AI enables the use of Simulink external mode to do on-the-fly calibration.

EAXVA05 (Xavier + Xavier + TC297)

  • NVIDIA Jetson Xavier * 2 & TC297TP
  • 64 TOPS
  • 10 CAN buses
  • 12 HD Cameras
  • Multiple I/O interfaces

EAXVA04 (Xavier+ TC297T)

  • NVIDIA Jetson Xavier & TC297T
  • 32 TOPS
  • 8 CAN buses (support radar input)
  • 8 HD cameras
  • Multiple I/O interfaces

Interface Type EAXVA05
Xavier*2 + TC297
Xavier + TC297T
Video input 12 channels, FPDLink III 8 channels, FPDLink III
Video output 2 channels HDMI 2 channels,
1 channel HDMI, 1 channel FPDLink III
USB 2 channels TYPE-A 4 channels,
3 channels USB Host support USB2.0, US3.0, USB3.1,
1 channel USB Device for debug
RS232 8 channels,
1 channel for debug
4 channels,
1 channel for debug
Automotive Ethernet 5 channels,
10 channels,
1000Base-T1, 100Base-T1 adaptive
Standard Ethernet 4 channels,
5 channels
CAN 4+6 channels,
4 channels connected to SOC,
6 channels connected to MCU, CAN FD compatible,
2 of them have the function of wake-up by specific CAN message
2+6 channels,
2 channels to SOC,
6 channels connected to MCU, CAN FD compatible,
2 of them have the function of wake-up by specific CAN message
LIN 4 channels 2 channels
Digital input 6 channels,
4 channels active high,
2 channels active low
20 channels,
10 channels active high,
6 channels active low,
4 frequency inputs
Analog input 6 channels,
2 channels 5V voltage type,
2 channels 36V voltage type,
2 channels resistor type
13 channels,
6 channels 5V voltage type,
4 channels resistance type,
3 channels 36V voltage type
Digital low-side output 8 channels@250mA 18 channels, 4 of them can be configured as PWM outputs
Digital high-side output 4 channels@1A 10 channels, 2 of them can be configured as PWM outputs
5V sensor power supply 2 channels maximum current 100mA 5 channels,
2 channels maximum current 100mA,
3 channels maximum current 50mA