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Use Cases

Quantum-ERA-Ready Encryption, Tailored to Your Needs

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Clouds Use Cases

As private and sovereign clouds become integral to modern enterprises and governments, ensuring data security is paramount. Hardware-based encryption, combined with Post-Quantum Cryptography (PQC) readiness, provides a future-proof solution for safeguarding sensitive information and operations within these environments.

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Key use cases include:
 

  1. Securing Data at Rest and in Transit:
    Hardware encryption protects sensitive data stored within private and sovereign clouds and ensures secure transmission between users and cloud services. PQC enhances resilience, preparing systems for future quantum-enabled threats.
     

  2. Protecting Entry and Exit Points:
    The entry and exit points of cloud systems, where data is most vulnerable, are secured with hardware encryption. PQC algorithms ensure long-term security for cross-border data exchanges and multi-cloud integrations.
     

  3. Enhancing Compliance for Sensitive Industries:
    Sovereign clouds often cater to industries with strict regulatory requirements, such as defense, finance, and healthcare. Hardware encryption with PQC ensures compliance with data sovereignty laws and international cybersecurity standards.
     

  4. Enabling Secure Multi-Tenancy:
    In private clouds, multi-tenancy increases the risk of data breaches. Hardware-based encryption isolates and secures tenant data, while PQC readiness ensures protection against emerging quantum threats.

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By integrating hardware-based encryption with PQC, private and sovereign clouds can ensure data confidentiality, integrity, and compliance, providing a secure and scalable foundation for critical operations in both current and quantum-ready futures.

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5G Use Cases

The deployment of 5G and terrestrial networks has revolutionized connectivity, offering high-speed, low-latency communication for critical applications. However, these advancements bring heightened cybersecurity risks. Hardware-based encryption, combined with Post-Quantum Cryptography (PQC) readiness, ensures robust protection of data and systems in this evolving ecosystem.
 

Key use cases include:
 

  1. Securing Network Traffic:
    Hardware encryption safeguards data-in-motion across 5G and terrestrial networks, ensuring secure transmission between endpoints, including base stations, core networks, and edge devices.
     

  2. Protecting IoT and Edge Computing:
    5G networks enable IoT and edge computing solutions for industries like healthcare, smart cities, and manufacturing. Hardware encryption, alongside PQC algorithms, secures sensitive data generated by IoT devices and processed at the edge.
     

  3. Ensuring Data Integrity in Critical Infrastructure:
    Encrypted communication channels protect critical infrastructure such as energy grids, transportation systems, and public safety networks from cyberattacks, with PQC ensuring future-proofing against quantum threats.
     

  4. Meeting Cybersecurity Regulations:
    Hardware encryption with PQC readiness ensures compliance with stringent cybersecurity standards like NIST and ETSI, providing a secure foundation for 5G deployment and terrestrial network operations.

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Hardware-based encryption, enhanced with PQC, is a cornerstone of 5G and terrestrial network security, ensuring the confidentiality, integrity, and resilience of these critical communication systems for both current and quantum-ready futures.

Defense Use Cases

The defense sector faces some of the most sophisticated cyber threats, making robust security essential for protecting sensitive data and critical operations. Hardware-based encryption, combined with Post-Quantum Cryptography (PQC) readiness, provides the resilience and future-proofing required to meet these challenges.

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Key use cases include:
 

  1. Securing Command and Control Communications:
    Hardware encryption ensures that real-time communications between command centers, field units, and allies are confidential and resistant to interception. PQC adds a layer of quantum-resistant security to safeguard strategic communications against future threats.​
     

  2. Protecting Classified Data:
    Sensitive information stored in secure databases or transmitted across networks is encrypted at the hardware level, ensuring compliance with military-grade security standards. PQC ensures this data remains protected even in a post-quantum world.
     

  3. Safeguarding Satellite and UAV Systems:
    Hardware-based encryption secures communication links to satellites, unmanned aerial vehicles (UAVs), and other critical assets, preventing unauthorized access or tampering. PQC enhances the long-term security of these systems against evolving cyber threats.
     

  4. Encrypting Mission-Critical IoT Devices:
    Defense operations rely increasingly on IoT-enabled devices for surveillance, logistics, and battlefield monitoring. Hardware encryption secures the data generated and transmitted by these devices, while PQC ensures future-proof protection against advanced adversaries.
     

  5. Protecting Sovereign Cloud Infrastructure:
    Defense organizations increasingly use private or sovereign clouds for storing and processing classified information. Hardware encryption safeguards cloud entry and exit points, and PQC ensures that this critical infrastructure remains secure against quantum computing threats.
     

  6. Meeting International Security Standards:
    Defense agencies must adhere to strict cybersecurity standards, such as those outlined by national security protocols. Hardware encryption with PQC readiness ensures compliance with these standards while preparing systems for future challenges.

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By adopting hardware-based encryption integrated with PQC, the defense sector can ensure the confidentiality, integrity, and availability of its most critical data and systems, maintaining operational superiority in the face of both current and emerging threats.

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Aviation Use Cases

The aviation industry operates in a highly interconnected environment where cybersecurity is critical for ensuring passenger safety and operational reliability. Hardware-based encryption with Post-Quantum Cryptography (PQC) readiness provides a robust solution for securing sensitive aviation systems.
 

Key use cases include:
 

  1. Securing Aircraft-to-Ground Communications:
    Hardware encryption protects the transmission of sensitive flight data, operational instructions, and real-time communications, with PQC ensuring resistance to future quantum-enabled threats.
     

  2. Protecting Avionics and IoT Systems:
    IoT systems onboard modern aircraft generate vast amounts of operational data. Hardware encryption, enhanced with PQC, ensures this data remains secure, supporting predictive maintenance and remote diagnostics.
     

  3. Ensuring Data Integrity in Navigation and Air Traffic Management:
    Encrypted communication channels between aircraft, navigation systems, and air traffic control protect critical operational data, with PQC providing resilience against quantum-based cyberattacks.
     

  4. Meeting Aviation Cybersecurity Standards:
    Hardware encryption with PQC readiness ensures compliance with ICAO cybersecurity guidelines and other global standards, safeguarding the aviation ecosystem against evolving threats.

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With PQC-enhanced hardware encryption, the aviation industry can maintain the integrity and security of its critical systems, ensuring operational continuity in an era of increasing cyber risks.

Maritime Use Cases

The maritime industry increasingly relies on digital systems for operations, navigation, and safety, making cybersecurity a critical concern. Hardware-based encryption, enhanced with Post-Quantum Cryptography (PQC) readiness, ensures robust protection against evolving threats. 

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Key use cases include:
 

  1. Securing Vessel-to-Shore and Satellite Communications:
    Hardware encryption secures sensitive operational data, navigational information, and real-time communications between ships and shore facilities or satellites, with PQC ensuring long-term protection against quantum-enabled cyberattacks.
     

  2. Protecting Autonomous and IoT-Enabled Systems:
    Maritime operations leverage IoT-enabled sensors for monitoring engines, fuel, and other critical systems. Hardware encryption combined with PQC safeguards data integrity and ensures secure, future-proof communication with remote systems.
     

  3. Ensuring Data Integrity in Navigation and Logistics:
    Encrypted communication channels protect Electronic Chart Display and Information Systems (ECDIS) and cloud-based logistics systems, with PQC ensuring resilience against emerging quantum threats.
     

  4. Meeting Maritime Cybersecurity Regulations:
    PQC-enabled hardware encryption ensures compliance with IMO’s Maritime Cyber Risk Management guidelines and other international standards, providing long-term security for maritime operations.

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By integrating PQC with hardware-based encryption, the maritime sector can secure its digital infrastructure against both current and future cyber threats.

The maritime industry increasingly relies on digital systems for operations, navigation, a
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