Overview
Configuration-over-Ethernet (COE) is a Layer 2 configuration protocol design by SoC-e to access remotely to FPGAs that implements SoC-e switching infrastructures. COE uses one of the Ethernet data lines of the switch and the typical use of COE is accessing the internal registers of the IPs for configuration and status reports purposes. This approach simplifies system design due to it is not necessary including specific configuration channel like MDIO or SPI. This solution has been widely implement on installations based son SoC-e modules like SMARToem.
In order to enable the use of this protocol in non-secure channels, SoC-e has relased a COE secure implementation named Configuration-over-Ethernet Secure (COEsec). COEsec has the same key benefits of the standard implementation, like CPU-less operation and small layout, but it ensures the security in the access to the remote device through encryption and authentication.
In order to provide the required information to secure the communications, a custom frame format has been developed. Thus, COEsec frames are standard Ethernet frames whose payload has been divided in several subfields that contain both cryptographic and configuration information.
The core of the IP is a cryptographic engine that is able to encrypt, decrypt and authenticate COE frames making use of the AES-GCM algorithm implemented on hardware. This cryptographic engine is an all in hardware solution that provides a great balance between performance and resources. Furthermore, this approach allows to minimize the latency at the same time that the efficiency is increased compared to other software based cryptographic solutions.
SoC-e HSR/PRP Switch and Managed Ethernet Switch IP Cores support COEsec apart from other configuration links (MDIO, AXI4, etc.).
Learn more about Ethernet IP core
Crius uses SOC-E’s PreciseTimeBasic (PTB) IP core to implement the IEEE 1588 slave function, with a hardware timestamping unit inserted between the MAC and PHY layers so that PTP event messages are timestamped in logic rather than in software.
SOC-E had the privilege to be selected among a variety of other relevant companies to demonstrate the newest progress around deterministic ethernet in the context of the NGWS/FCAS Remote Carrier (pillar 3).
SOC-E and SafeCore Devices are preparing the launch of a new TSN End Point IP Core designed to bring deterministic Ethernet communications closer to the needs of next-generation Aerospace, Defence and Space systems.
For the Kronos 3R, NovaTech selected SOC-E solutions to implement two critical capabilities: IEEE 1588 PTP grandmaster functionality and IEC 62439-3 PRP Ethernet redundancy. Both are implemented directly in the FPGA programmable logic of the platform via the SOC-E SMARTzynq System-on-Module, built on the AMD Xilinx Zynq-7000 SoC.
For DRAGO-3, the IAC selected a SOC-E solution to implement communication between the camera and external systems through SpaceWire, a standard widely used in space systems for high-speed onboard data links in satellites and spacecraft.
This agreement enables SOC-E to support its Time-Sensitive Networking (TSN) solutions on Wind River’s VxWorks RTOS, reinforcing its commitment to delivering fully deterministic networking solutions.
