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Validated in orbit.
Engineered for Earth.

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[ Swiss Deep-Tech ]

Engineering the Sovereign Trust Layer

EnsoLab engineers post-quantum cryptography, trusted hardware and secure communications for mission-critical infrastructure - from silicon to orbit.

Technology
Project: SkyBridge

[ EnsoLab Tech AG ]

The Digital Trust Architecture of Today Was Not Built for the Quantum Era

Quantum computing is changing the security assumptions behind critical infrastructure, sovereign systems, autonomous platforms and space communications.

Replacing individual algorithms will not be enough. The transition requires a trust architecture that is quantum-resilient, hardware-rooted and cryptographically agile.

About

[ Orbital Validation ]

SkyBridge

Post-Quantum Security, Validated in Orbit

SkyBridge is EnsoLab Tech AG's orbital demonstration of post-quantum secure communications, launched into low-Earth orbit on 30 March 2026 aboard SpaceX Transporter-16.

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[ SkyBridge Continued ]

Validated in orbit.
Engineered for Earth.

Phase 01
Phase 02
Phase 03
Phase 04

Launch

Payload Activation

Secure in Orbit

Ground Validation

30 Mar 2026
Earth → Orbit
In Orbit
Orbit → Earth

Falcon 9 · Transporter-16 delivers SkyBridge to low-Earth orbit.

Trusted data and keys uplinked; hardware-rooted entropy source brought online.

Falcon 9 · PQC, crypto-agility and trusted entropy running in an operational orbital environment.

Protected space-to-ground cycle confirmed against post-quantum criteria.

Complete
Complete
Complete
Active
“Orbit is one of the most demanding environments a hardware system can face. SkyBridge allows us to validate, in live conditions, that our security architecture can operate reliably in orbit and support the next generation of resilient communications.”
Masood Shaikh Mohammed, Founder & CEO, EnsoLab Tech AG
Discover SkyBridge

[ The EnsoLab Trust Platform ]

EnsoLab engineers trust as a single continuous system – from the physical randomness that seeds every key, through quantum-resilient cryptography and hardware-anchored security, to the protected links that carry the result. Five layers, one architecture, engineered for mission-critical environments from silicon to orbit.

Core
Technologies

Discover Our Technologies
Open Secure Communications overview
Digital rendering of Earth viewed from space at night showing illuminated city clusters connected by a network of glowing white lines and nodes.

Secure Communications

Overview

Open Trusted Computing overview
Abstract digital circuit board with glowing pink and blue lines and dots representing data flow.

Trusted Computing

Overview

Open Hardware Root of Trust overview
Digital visualization showing flowing data streams connecting to clusters of glowing nodes on a dark grid background.

Hardware Root of Trust

Overview

Open Post-Quantum Cryptography overview
Abstract digital circuit with glowing red, blue, and orange lines and shapes forming a symmetrical futuristic pattern.

Post-Quantum Cryptography

Overview

Open EnsoEntropy™ overview
Close-up of translucent cubes with binary code and neon purple and blue lighting.

EnsoEntropy™

Overview

Previous
Next

[ Quantum Security Risks ]

Why Post-Quantum Security Matters

Quantum computers will soon be able to break today’s encryption standards (RSA, ECC) in minutes. Algorithms that currently secure banking, military systems, satellites, and even your daily online transactions are at risk. What is safe today will be instantly vulnerable tomorrow.

Once broken, decades of encrypted data (financial records, government files, medical data, IP archives) could be exposed. Adversaries are already storing sensitive data now – waiting to decrypt it later. This is known as “harvest now, decrypt later.”

Power grids, defence systems, GPS, communication satellites, and aerospace networks depend on strong encryption. A quantum breach would mean loss of trust, loss of control, and potential global instability.

The world cannot wait. Post-Quantum Cryptography must be deployed today – on Earth and in orbit. EnsoLab’s Sky Bridge is building the trust layer for that future.

Satellite with extended solar panels orbiting Earth over a textured ocean surface.
Digital network connections over a glowing map of North America on Earth at night, symbolizing global communication and smart cities.
Digital world map with data points, connected lines, and bar charts symbolizing global data networks and cybersecurity.

[ Work With EnsoLab ]

From Demonstration
To Deployment

One integrated architecture combining post-quantum cryptography, hardware-rooted security, trusted computing and secure communications.

Explore deployment of the EnsoLab Trust Platform across mission-critical environments.

Discuss Deployment

Discuss integration of EnsoEntropy™, hardware trust and post-quantum technology into products and silicon.

Discuss licensing

Engage on research, orbital missions, strategic programmes and long-term technology collaboration.

Discuss a partnership

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  • Abstract digital interface with glowing blue, pink, and yellow data grids and lines on a dark background.

  • [ True Random Number Generation (TRNG) ]

  • Every cryptographic key, signature and secure session begins with randomness. If that randomness is predictable, everything built on top of it is predictable too. EnsoEntropy™ is EnsoLab’s true random number generator: it draws on multiple independent physical entropy sources and validates their output continuously, so the unpredictability at the base of the system is measured rather than assumed.

    Engineered for FPGA, ASIC, embedded and space-grade hardware, it gives post-quantum cryptography, trusted computing and secure communications a foundation they can be certified against.

  • Key Capabilities

    • Multi-Source Entropy Generation – Independent physical sources combined into a single high-quality random stream.
    • Continuous Entropy Validation – Quality is monitored in operation, not only at design time.
    • FPGA & ASIC Ready – Built for integration across embedded, terrestrial and space-grade hardware.
    • Foundation for Everything Above – Seeds key generation, digital signatures, authentication and protected communications.

  • Applications

  • Post-Quantum Cryptography · Hardware Root of Trust · Trusted Computing · Secure Communications · Critical Infrastructure · Aerospace

  • Explore EnsoEntropy™
  • Digital fingerprint scan with futuristic blue and purple data visualization lines in the background.

  • [ Quantum-Resilient Cryptographic Architecture ]

  • The algorithms protecting most infrastructure today were chosen for a world without cryptographically relevant quantum computers. Replacing them once is not a strategy: standards will keep moving, and systems already in the field have to move with them.

    EnsoLab’s cryptographic layer combines standardised post-quantum algorithms with crypto-agility – the ability to select, hybridise and change cryptography per message, per session or per system, without re-engineering the platform around it.

  • Key Capabilities

    • Crypto-Agile Architecture – Cryptography selected dynamically across messages, sessions and systems as standards evolve.
    • Standardised Post-Quantum Algorithms – Quantum-resistant key establishment, digital signatures and protected exchange.
    • Hybrid Operation – Classical and post-quantum cryptography running together for a controlled, reversible transition.
    • Hardware Acceleration Ready – Implementable across FPGA, ASIC, embedded and space-grade compute.

  • Applications

  • Critical Infrastructure · Sovereign & Defence · Financial Infrastructure · Autonomous Systems · Secure Communications · Aerospace

  • Explore Post-Quantum Cryptography
  • Futuristic glowing microchip with circuit patterns and light beams against a dark blue background.

  • [ Hardware-Anchored Security ]

  • Software can only be trusted as far as the hardware beneath it. EnsoLab’s Hardware Root of Trust establishes device identity, key protection and secure execution at the silicon layer – where they cannot be rewritten by the software they exist to protect.

    Trusted entropy, post-quantum cryptography and hardware-based isolation are integrated into a single anchor point, one that holds across embedded, terrestrial and space-oriented systems.

  • Key Capabilities

    • Hardware-Anchored Identity – A trusted foundation for device identity, secure boot and cryptographic operations.
    • Key Protection Through Life – Keys isolated in hardware from generation to retirement.
    • Tamper & Intrusion Resilience – Hardened against physical attack, unauthorised access and hardware-level compromise.
    • Deployable Across Trusted Silicon – FPGA, ASIC, embedded and space-grade platforms.

  • Applications

  • Secure Boot · Device Identity · Trusted Execution · Critical Infrastructure · Sovereign & Defence · Autonomous Systems · Aerospace

  • Explore Hardware Root of Trust
  • Abstract close-up of digital circuit board with glowing blue and pink lines and shapes.

  • [ Secure Execution & System Integrity ]

  • A system that boots securely can still be compromised while it runs. EnsoLab’s Trusted Computing layer protects applications, data and cryptographic operations inside trusted execution environments, and keeps verifying that what is running is what was authorised to run.

    Hardware-rooted trust, secure firmware and resilient software are engineered as one architecture rather than three separate defences.

  • Key Capabilities

    • Protected Execution – Critical applications and cryptographic operations isolated from the rest of the system.
    • Continuous Integrity Verification – Unauthorised modification is detected in operation, not after the fact.
    • Verifiable Device Identity – Attestable identities for authentication, communication and platform trust.
    • Hardware & Software Integration – Trusted silicon, firmware and software engineered as a single chain.

  • Applications

  • Trusted Execution · Secure Device Identity · Critical Infrastructure · Autonomous Systems · Sovereign Systems · Aerospace

  • Explore Trusted Computing
  • Symmetrical futuristic tunnel with glowing pink and white lights and metallic structures converging at the center.

  • [ Quantum-Resilient Connectivity ]

  • The four layers beneath exist to make one thing dependable: the link. EnsoLab’s Secure Communications architecture protects the confidentiality, integrity and authenticity of data in transit – across terrestrial networks, embedded platforms and orbital systems.

    In March 2026 it left the laboratory. SkyBridge carried post-quantum secure communications into low-Earth orbit aboard SpaceX Transporter-16 and demonstrated a protected space-to-ground cycle in an operational environment.

  • Key Capabilities

    • Quantum-Resilient Encryption – Standardised post-quantum cryptography protecting data in transit.
    • End-to-End Protection – Authenticated encryption, trusted key management and integrity verification across the whole path.
    • Secure Key Management – Generation, distribution, storage and lifecycle control across connected systems.
    • Orbit-Validated SkyBridge Validated – Demonstrated in an operational orbital environment, from space to ground.

  • Applications

  • Secure Networks · Satellite & Space Communications · Critical Infrastructure · Sovereign & Defence · Autonomous Systems · Industrial & Enterprise Networks

  • Explore Secure Communications