Formale Security Analyse (UPEC)

Image
Formale Security Analyse (UPEC) Bild
Component is required for safety critical systems
Nein
Target TRL at the end of phase 1
TRL6: Prototyp in vereinfachter/simulierter Einsatzumgebung --> Anwendungsfälle
Target TRL at the end of phase 2
TRL6: Prototyp in vereinfachter/simulierter Einsatzumgebung --> Anwendungsfälle

Abbildung: Spekulative Programmausführung kann Seitenkanal ermöglichen

Status
Visibility
Internal for Scale4Edge partners only!

SpiNNedge DSP/AI Accelerator

Image
SpiNNedge architecture and integration in RISC-V processing element
Component is required for safety critical systems
Nein
Target TRL at the end of phase 1
TRL3: Nachweis der Funktionsfähigkeit --> Plattform ohne Parametrisierbarkeit
Target TRL at the end of phase 2
TRL5: Versuchsaufbau in vereinfachter Einsatzumgebung --> Optimierte Plattform

The SpiNNedge accelerator is designed for ultra-low-power processing and classification of time series from sensors in real time. It combines DSP functions for data preprocessing and feature extraction (frequency transforms, windowing, filtering, logarithm) with classification based on recurrent neural networks (RNN). The RNN module exploits sparsity for significantly reduced storage and processing effort. The accelerator performs individual processing layers autonomously. Complex layers can be flexibly assembled from base operations via a global control module.

Visibility
Publicly available!

HighRel Multiprozessor

Image
Schematisch overview on the TETRISC v2 architecture
Component is required for safety critical systems
Ja
Target TRL at the end of phase 1
TRL3: Nachweis der Funktionsfähigkeit --> Plattform ohne Parametrisierbarkeit
Target TRL at the end of phase 2
TRL5: Versuchsaufbau in vereinfachter Einsatzumgebung --> Optimierte Plattform

The HighRel Multiprocessor is a Pulpissimo-based quad-core processing system that is specifically built to withstand the harsh environments as they occur in avionics or astronautics. Based on the required processing power as well as different health and environmental monitors, the system is able to autonomously configure itself to various states of fault tolerance (DMR, TMR or QMR) or performance (low power or high performance).

Visibility
Publicly available!

Drawing Engine Nlview

Image
Nlview-rendered schematics
Component is required for safety critical systems
Nein
Target TRL at the end of phase 1
TRL4: Versuchsaufbau im Labor --> Plattform mit Parametrisierung
Target TRL at the end of phase 2
TRL7: Demonstration des Systemprototyps in einer betrieblichen Umgebung

Altair Engineering's Nlview® engine provides automatic generation of interactive schematic diagrams for different levels of electronic circuits, including gate-level, RTL and block-level. Optional engines are available for the system-level (S-engine), for the transistor-level (T-engine), and for automotive and aerospace applications (E-engine).

Status
License

Commercial licenses can be obtained from Altair Engineering.

Visibility
Publicly available!

CHIPS Verification Framework

Image
ESL flow with CHIPS
Component is required for safety critical systems
Nein
Target TRL at the end of phase 1
TRL3: Nachweis der Funktionsfähigkeit --> Plattform ohne Parametrisierbarkeit
Target TRL at the end of phase 2
TRL4: Versuchsaufbau im Labor --> Plattform mit Parametrisierung

The CHIPS Verification Framework is a collection of tools and libraries for (formal) hardware design verification. The framework encompasses two subprojects:

CHIPS: Chisel Hardware Property Specification Language

The foundation of the CHIPS-VF is a domain-specific language (DSL) embedded in Scala that allows the specification of lightweight verification properties on different levels of abstraction using the assertion-based verification paradigm.

Extended CIRCT Hardware Compiler

Visibility
Publicly available!

On Chip Debug Solution

Image
Lauterbach Development Tools
Component is required for safety critical systems
Nein
Target TRL at the end of phase 1
TRL6: Prototyp in vereinfachter/simulierter Einsatzumgebung --> Anwendungsfälle
Target TRL at the end of phase 2
TRL7: Demonstration des Systemprototyps in einer betrieblichen Umgebung

Lauterbach implements debugging and trace support in alignment with Partner Infineon specific Hardware Solution. 

Status
License

The Solution will be part of Lauterbach's commercial RISC-V Debug Tools

Visibility
Publicly available!

On Chip Debug Hardware

Image
RISC-V Debug System Overview (Source: Figure 2.1 in RISC-V External Debug Support Version 0.13.2)
Component is required for safety critical systems
Nein
Target TRL at the end of phase 1
TRL5: Versuchsaufbau in vereinfachter Einsatzumgebung --> Optimierte Plattform
Target TRL at the end of phase 2
TRL6: Prototyp in vereinfachter/simulierter Einsatzumgebung --> Anwendungsfälle

Infineon implements for its evaluation platform in alignment with Partner Lauterbach specific Hardware Components for On-Chip-Debug. The Hardware acts as Evaluation Vehicle for the Lauterbach On Chip Debug solution.

Status
License

The Infineon Solution will be productized with its chips. It is therefore no tool or IP but part of semiconductor products.

Visibility
Internal for Scale4Edge partners only!

FreiTest

Image
FreiTest Logo
Component is required for safety critical systems
Ja
Target TRL at the end of phase 1
TRL4: Versuchsaufbau im Labor --> Plattform mit Parametrisierung
Target TRL at the end of phase 2
TRL6: Prototyp in vereinfachter/simulierter Einsatzumgebung --> Anwendungsfälle

FreiTest (developed from PHAETON) is an ATPG (Automatic Test Pattern Generation) Framework based on SAT-Solving (Boolean Satisfiability Problem) and BMC (Bounded Model Checking). It generates full-scan / sequential test patterns and Software-Based Self-Tests (SBSTs) for synthesized circuits using the Validity Checker Module (VCM) specification mechanism.

Status
Visibility
Publicly available!

tflite_micro_compiler

Component is required for safety critical systems
Nein
Target TRL at the end of phase 1
TRL5: Versuchsaufbau in vereinfachter Einsatzumgebung --> Optimierte Plattform
Target TRL at the end of phase 2
TRL6: Prototyp in vereinfachter/simulierter Einsatzumgebung --> Anwendungsfälle

Generate tflite micro code which bypasses the interpreter (directly calls into kernels)

Basically this code uses a fully set up tflite micro instance to dump the internal allocations and function calls assigned to the model, then dumps the tensor and node settings into a compilable file, eliminating the need for running the interpreter at each program start and for resolving the correct kernel at run time.

Status
License

Apache License 2.0

Visibility
Publicly available!

PikeOS Operating System and Hypervisor

Image
PikeOS Logo
Component is required for safety critical systems
Nein
Target TRL at the end of phase 1
TRL5: Versuchsaufbau in vereinfachter Einsatzumgebung --> Optimierte Plattform
Target TRL at the end of phase 2
TRL5: Versuchsaufbau in vereinfachter Einsatzumgebung --> Optimierte Plattform

PikeOS and PikeOS for MPU are each a real-time operating system and hypervisor for embedded systems. It provides partitioning to separate different applications or guest operating systems from each other. PikeOS is often combined with ELinOS, SYSGO's embedded Linux, which is then run in a partition under the PikeOS hypervisor.

Status
License

SYSGO issues evaluation licenses in the scope of the Scale4Edge project to interested project partners.

Visibility
Publicly available!