Security architecture
-
Threat modeling and attack-surface analysis
- Security gap analysis and derivation of device requirements
- Secure partitioning of FPGA logic, processors, memories and interfaces
-
Root of Trust and key-management concepts
We help product teams design secure FPGA and adaptive SoC architectures, integrate cryptographic hardware and implement secure boot, updates, key management and protected communication.
Engage us for an architecture review, proof of concept, defined implementation task or complete FPGA security development.
FPGA security extends beyond adding a cryptographic core. The configuration process, boot chain, key storage, processor subsystem, external memories, debug interfaces and field-update mechanism must form a consistent security architecture.
We help you identify platform-specific risks and implement security mechanisms across FPGA logic, embedded software and hardware interfaces.
We support FPGA development teams throughout the product lifecycle from security architecture and RTL integration to secure provisioning, field updates and compliance preparation. You can engage us for the complete process or for a clearly defined part of your development project.
Threat modeling and attack-surface analysis
Root of Trust and key-management concepts
Integration of crypto and security IP cores
AXI interfaces, HAL, drivers and hardware/software partitioning
Optimization for LUT, BRAM, DSP, timing and throughput constraints
Integration of cryptographic functions into Ethernet and IP data paths
Hardware/software partitioning for MACsec, IPsec and key management
Hardware acceleration and integration into Linux, RTOS or bare-metal systems
Functional simulation and processor-driven verification
Boot, update and failure-path validation
Resource, timing and throughput measurements
Depending on the agreed project scope, we deliver the engineering results required for implementation and verification.
Our FPGA security work combines RTL development, embedded software and cryptographic engineering. We support processor-based FPGA SoCs as well as pure-RTL designs, from architecture and IP integration to simulation and hardware validation.
Altera, AMD/Xilinx, Efinix, Lattice, Microchip FPGA platforms
ARM and RISC-V based SoC systems
FPGA SoCs, softcore processors and pure-RTL architectures
Embedded Linux, RTOS, and bare-metal integration
Our expertise in the fields of embedded security and FPGA design is build on real-world client project engagements involving FPGAs, custom SoCs and processor-based solutions.
Implementation of an IPsec/IKEv2 communication architecture on an AMD Zynq-7045 SoC, partitioning security functions between the processor system (PS) and programmable logic (PL).
IKEv2 and key management functions run in Linux on the processing system, while the performance-critical IPsec data plane is accelerated in the FPGA fabric. AES-GCM is implemented in programmable logic to provide hardware-accelerated authenticated encryption of IP traffic.
Scope:
KiviCore evaluated for a customer whether ML-KEM hardware acceleration could be integrated into an existing AMD Zynq UltraScale+ based industrial gateway within tight FPGA resource constraints. A hardware prototype on the target platform validated resource fit and cryptographic performance and provided the basis for a phased PQC migration roadmap.
Scope:
Implementation of a secure boot solution on an Efinix Titanium Ti375 FPGA SoC. The solution establishes a chain of trust during system startup and ensures that only authenticated software is executed.
Scope:
Integration of MACsec and MACsec Key Agreement (MKA) into FPGA-based communication system. This includes security architecture, hardware/software partitioning and the integration of cryptographic functions into existing Ethernet data paths.
Scope:
You need to understand how Post Quantum Cryptography integration impacts your embedded system? Validate PQC on your target platform (FPGA, ASIC, MCU) before choosing a vendor or implementation approach. We help you to understand real resource cost, integration effort, and migration path based on your system.
Embedded teams often face challenges such as manipulated firmware during boot, insecure key storage, unsigned updates, rollback attacks or unprotected FPGA bitstreams. We help you to design and implement a secure boot chain from reset to authenticated firmware deployment.
Under the Cyber Resilience Act (CRA) a secure product design is no longer optional. In many products security engineering work needs to be done. We help you with security architecture, feature integration and technical implementation required for CRA-compliant embedded products.

Tell us about your FPGA platform, current development stage and security challenge. We will discuss how we can support your project.