LAUTERBACH AND KERNKONZEPT COOPERATION

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Lauterbach and Kernkonzept enable Virtualized RISC-V Systems

 

Graphic: wirestock/123rf

 

As the industry’s first supplier, Lauterbach and Kernkonzept enable architects of virtualized software systems to start development and testing on future RISC-V platforms even before corresponding System-on-Chips (SoCs) are available in silicon.

To execute mixed-critical workloads with different security levels on a high-performance processor, strong isolation including the respective operating systems is essential. To achieve this, developers can virtualize the underlying hardware with the help of a hypervisor, whereby workloads with different safety levels are executed in isolated Virtual Machines (VMs).

A software architecture for Software Defined Vehicles (SDV) for example combines cloud technologies with automotive functional safety and real-time requirements for the first time, with the consequence that virtualization is indispensable. Leading semiconductor suppliers in the automotive value chain have already committed to RISC-V, however, corresponding SoCs, which will enable virtualization on RISC-V CPUs, are still under development.

To give developers the opportunity to create appropriate software right now, Kernkonzept and Lauterbach enable for the first time to develop, debug, and test RISC-V software for virtualized software architectures on the well-known and widely used emulation platform QEMU.

For this Kernkonzept’s leading-edge and proven L4Re Hypervisor runs on the Generic RISC-V Virtual Platform implemented in QEMU, while Lauterbach’s TRACE32® debug and trace tools allow the analysis of the entire software stack including the L4Re Hypervisor itself and all virtual machines (VM) with their heterogeneous OSes and applications.

As a result, developers of virtualized software architectures and applications running on heterogeneous rich and real-time OSes can start their development work immediately even before the corresponding RISC-V chips are delivered in silicon.

Kernkonzept’s L4Re Hypervisor securely separates real-time workloads even on very small chips. The minimal code base in privileged mode and all its possibilities for integrating security and safety functions perfectly into the system make the L4Re Hypervisor family ideal for products that must be certified. By leveraging these features, the risk in the certification process is significantly reduced, while also saving time and resources. This is making it the perfect application for the automotive industry, avionics, or the IoT. By combining the open-source software L4Re with the open architecture RISC-V, Kernkonzept can provide more customers with state-of-the-art security software, enhancing their system integrity.

TRACE32® enables simultaneous debugging and of the CPU and other cores in an emulated or silicon SoC, a unique capability that covers the entire system. On virtualized systems, TRACE32® Hypervisor-aware debugging allows to perform concurrent OS-aware debugging for each guest OS/virtual machine (VM) and display an overview of the overall system. TRACE32® tools provide access to hypervisor and OS structures and data so developers can better understand how they are behaving and utilizing chip resources.

“We are excited to enable the development of virtualized software architectures on RISC-V together with Kernkonzept”, said Norbert Weiss, Managing Director of Lauterbach GmbH. “Virtualization is the key to Software Defined Vehicles, where multiple safety-critical and non-critical applications are sharing a platform and thanks to our collaboration, developers can start creating world-class software immediately”, said Adam Lackorzynski, Founder and CTO at Kernkonzept.

As technology leaders in their respective fields, Lauterbach and Kernkonzept support virtualized software architectures for RISC-V from the very beginning.

Find more about Kernkonzept’s L4Re Hypervisor HERE

Find more about Lauterbach’s Hypervisor- and OS-Awareness technology HERE

Find more about the QEMU emulation platform HERE

 

Disclaimer: The QEMU logo is used under the Creative Commons licence https://creativecommons.org/licenses/by/3.0/deed.en
Credit: Benoît Canet