UPEC: Formal Security Verification

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Speculative program execution can enable side channel
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

Figure: Speculative program execution can enable side channel

Status
Visibility
Publicly available!

Moonlight

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Moonlight
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

Moonlight is a subsystem around a TGC core developed by MINRES. The Good Core (TGC) [1] is a highly flexible, scalable and expandable RISC-V processor core and the TGC variant to be used in the subsystem is configurable.

Moonlight contains a configurable APB3 subsystem with a customizable number of different peripherals, e.g., GPIO, UART, Timer, SPI, I2S Receiver, DMA.

Status
License

Send an email to eyck@minres.com

Visibility
Publicly available!

QTA - QEMU Timing Analyzer

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

The QEMU Timing Analyzer (QTA) is a QEMU plugin which extends QEMU for the time annotated execution of binary programs. QTA has been tested only for RISC-V and TriCore. As the implementation extends QEMU through TCG plugin API it should be compatible with any other ISA and all future QEMU versions . QTA comes with a frontend that can import output files from AbsInt aiT WCET analysis.

Status
License

The source code of the QTA plugin is freely available with the front end for AbsInT aiT file import at github under: https://github.com/hni-sct/qemu-qta.

Visibility
Publicly available!

muRISCV-NN

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muRISCV-NN Logo
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

We introduce muRISCV-NN, an open-source compute library for embedded and microcontroller class systems. muRISCV-NN targets to provide an open-source, and vendor-agnostic compute library targeting all RISC-V-compliant platforms for supplying a HW/SW interface between industry-standard deep learning libraries and emerging ultra-low-power compute platforms. Forked from ARM’s CMSIS-NN library, muRISCV-NN provides optimized scalar kernels written in plain C as an efficient and highly portable baseline.

Status
Visibility
Publicly available!

eVerify HW/SW Co-Verification Framework

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eVerify Workflow
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 eVerify framework supports formal software verification by considering the hardware behavior of loosely coupled devices, e.g., peripherals.

This is achieved using the Behavioral Description (BD) based on CTL* to specify hardware behavior from the software point of view. Based on the BD specification, the tool verifyDown generates assumptions/assertions for the hardware description and the software driver code.

Status
Visibility
Internal for Scale4Edge partners only!

CDR (Clock and Data Recovery) ecosystem component

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 CDR is a an analog ecosystem component that implements in a high speed serial data input interface. The CDR extracts clock information from the serial data stream and retimes the data. Combined with deserializers & serializers it provides high speed memory I/O access of several Gbps. In first designs the CDR applies NRZ coding validated in 22FDX and IHP 130nm technology. Later designs will be optimize for PAM4 encodings.

Status
Visibility
Internal for Scale4Edge partners only!

PLL (Phase Locked Loop) ecosystem component

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
TRL5: Versuchsaufbau in vereinfachter Einsatzumgebung --> Optimierte Plattform

The PLL is a component of the Scale4Edge ecosystem that generates a high frequency clock output (>1 Ghz) from a low frequency clock input signal. The output frequency is a scalable multiple of the input frequency and configurable at runtime. The  PLL was designed with analog subcomponents in a first step. It will be optimized at system level as a synthesizable digital PLL in further steps. The designs are mainly validated by tapeouts in 22FDX technology.

Status
Visibility
Internal for Scale4Edge partners only!

Ecosystem Microcontroller

Image
Layout of the demonstrator
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 Ecosystem microcontroller is a PULPissimo-based microcontroller featuring the following Scale4Edge ecosystem IPs:

  • A RISC-V TGC processor core
  • The AI hardware accelerator UltraTrail
  • A phase-locked loop (PLL)

Due to the high configurability of the individual components, the platform can be quickly and easily adapted to specific applications. A specialized ecosystem microcontroller was taped-out in 22nm FDSOI technology as a demonstrator for an audio event detection use-case provided by the project partner Bosch.

Status
Visibility
Publicly available!

Verification IP

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

An RTL processor implementation can be verified using our co-simulation approaches, which compares the implementation with a functional reference model. As a functional reference model, an instruction set simulator (ISS) that is part of the open-source RISC-V VP can be used. Our cross-level processor verification approach generates endless instruction streams and tightly integrates the ISS with the RTL core with the aid of in-memory communication. The setup allows restriction-free instruction generation, enabling a comprehensive testing approach.

Status
Visibility
Internal for Scale4Edge partners only!

SymEx-VP

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

SymEx-VP focuses explicitly on testing software for constrained embedded devices (e.g. as used in the Internet of Things). This software often interacts very closely with low-level hardware peripherals and in order to support these interactions, during simulation-based software testing, SymEx-VP supports SystemC peripheral models. SystemC is a C++ class library for modeling hardware peripherals.

Status
Visibility
Publicly available!