Security-first embedded systems for IoT and connected devices.

We design and implement embedded security architecture for connected and IoT devices - including device identity, device provisioning, authentication, and secure communication.

From first prototype to production deployment.

A secure connected device follows a layered trust model across its lifecycle:

Together, these layers ensure device authenticity, secure firmware integrity, OTA update safety, and trusted communication.

Companies typically engage us when:

• A new connected device needs security architecture from the start
• Security must be added to an existing embedded system
• A secure provisioning process is required for manufacturing
• Backend systems must reliably verify device authenticity

This usually occurs between early prototyping and preparation for manufacturing.

• Lack of internal expertise to implement device security correctly
• Gap between regulatory requirements (CRA) and actual system design
• Security added too late in the development process (leading to costly redesigns)
• No clear path from prototype to production-ready secure system
• Insecure or ad-hoc communication protocols

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Security-first architecture

Security is designed as a core system property - not added later. We design device identity, provisioning, authentication, and secure communication as fundamental architectural elements.

Deep embedded expertise

Our work happens close to the hardware: firmware, RTOS-based systems, communication protocols, and device-level security mechanisms.

Senior engineers only

You work directly with senior engineers - no outsourcing layers.

Production-ready mindset

We design systems for the entire lifecycle of a device - from development and manufacturing to provisioning, deployment, and long-term operation.

Regulatory-driven reality

Modern regulations such as the Cyber Resilience Act (CRA) require manufacturers to implement proper device security. We translate these requirements into concrete engineering decisions and production-ready systems.

Secure device provisioning is a critical part of any production IoT system.

We design:

• hardware-bound device identity
• secure provisioning workflows for manufacturing
• key injection and certificate issuance
• device registration and backend trust setup

This ensures every device is uniquely identifiable and trusted in production environments.

This is where many systems fail - and where production security is actually established.

Security must be designed into the system from the beginning - it cannot be reliably added later.

Our work starts with a device threat model tailored to embedded and IoT security risks. We identify realistic attack vectors such as firmware extraction, device cloning, debug access, and backend impersonation, and design security mechanisms to mitigate these risks.

Once devices are manufactured and deployed, introducing proper security becomes extremely difficult and often impossible. Early decisions - device identity, secure boot, key storage, and provisioning - determine whether the system can remain secure in production.

Designing security from day one ensures a trustworthy foundation across the entire device lifecycle.

Most security issues originate from early architectural decisions - not from implementation details.

Common patterns we see:

• No strong device identity from the start
• Missing or weak provisioning process during manufacturing
• Secrets stored in firmware or accessible via debug interfaces
• No secure update mechanism
• Security added late as ad-hoc encryption

These decisions may seem acceptable during prototyping, but become extremely costly to fix once devices are deployed at scale.

Weak embedded and IoT device security leads to real operational and business risks:

• Device impersonation and unauthorized access
• Firmware tampering and loss of control over devices
• Extraction of secrets and compromise of backend systems
• Inability to revoke or update compromised devices
• Costly recalls or forced hardware revisions

These risks are extremely difficult and expensive to address after deployment.

Even seemingly simple connected or IoT devices (e.g., smart home appliances) can introduce serious risks if security is not designed properly.

Such devices often:

• Connect to local or corporate networks
• Store credentials and interact with cloud services
• Communicate with other systems inside the local network
• Include sensors or interfaces that can be misused

Without secure boot, provisioning, and device attestation, there is no guarantee that the device runs authentic firmware or that it is a genuine product.

Regulations such as the Cyber Resilience Act (CRA) were introduced in response to these real risks - many of which are still underestimated or overlooked in device development.

Security is therefore not optional - it is a fundamental requirement for any connected device.

Hardware, firmware, device software, and backend integration are designed together.

This avoids the common problem of fragmented development across multiple vendors.