Quantum-ready.
A design incorporating ML-KEM, ML-DSA, and SLH-DSA for key establishment and digital signatures.
Hardware-enforced data protection.
Post-quantum-ready by design.
For organizations where exposure is not an option.
Meet ZEA. Phanium’s approach to protecting the data that matters most.
Zero Exposure Architecture (ZEA) is Phanium’s hardware-enforced secure-memory design. Sensitive data is intended to appear in plaintext only inside authorized Secure Data Spaces, with encrypted exchanges between them. The aim: reduce exposure beyond software permissions and operating-system boundaries.
Explore applications ↗A design incorporating ML-KEM, ML-DSA, and SLH-DSA for key establishment and digital signatures.
Hardware isolation and cryptographic authorization are designed to reduce the data accessible to compromised software.
An immutable cryptographic core designed to reduce update overhead. Lifecycle requirements depend on the implementation.
ZEA brings isolation, protected communication, and authorization into a coordinated stack. Explore the layers described in Phanium’s technical white paper.
Architecture illustration / not a hardware specificationAn isolated execution environment is the foundation. The proposed implementation places cryptographic functions in protected hardware, with attestation to verify platform integrity.
FOUNDATION / ISOLATED EXECUTIONSeparate memory regions are assigned to authorized users, projects, or classifications. The design limits plaintext to the appropriate secure space and protects data as it crosses the boundary.
ISOLATION / CONTROLLED PLAINTEXTSecure spaces exchange data through protected channels. The white paper describes post-quantum key establishment, signed authorization, and protected audit records for inter-space transactions.
EXCHANGE / ENCRYPTED CHANNELSRole assignments, hardware-backed multifactor authentication, time-limited access, and revocation are designed to govern who can use each space, and for how long.
CONTROL / LEAST PRIVILEGEOne architectural vision.
Across the systems you depend on.
Protect sensitive repositories with Secure Data Spaces. Explore I/O-layer integration for legacy systems alongside on-premises server deployments.
Extend protected data exchanges across hybrid environments, with separate spaces and organizational control of cryptographic keys.
Apply protected inter-space communication to sensitive conversations, cross-team collaboration, secure messaging, and email workflows.
Evaluate protection at the I/O boundary while preserving core applications.
Explore locally enforced protection for offline and air-gapped operations.
Use separate secure spaces and scoped access across organizational boundaries.
Explore compartmentalized repositories, controlled inter-agency collaboration, and contractor access to sensitive data. These are deployment scenarios, not claims of government adoption or authorization.
Protect business records and communications while evaluating a simpler operating model. Deployment scope and integration requirements are tailored to the environment.
Apply a focused protection strategy to valuable personal records, private communications, and sensitive family or business information.
Less exposure.
More possibility.
40–60% potential cost savings.
Phanium’s stated savings range. Actual savings depend on your environment, deployment scope, and comparison baseline. Explore the ZEA overview to understand the proposed approach.
Explore the ZEA overview ↗Scope access by role, project, and duration. The white paper describes tokens that expire automatically to support temporary assignments and least privilege.
Explore selective or broader lockdown of secure spaces during an incident. Response timing and offline behavior require validation in your deployment.
Track access and authorization events through audit records protected within the secure architecture, supporting investigation and oversight.
Assign retention policies to different data spaces and evaluate cryptographic deletion as part of a defined data lifecycle.
Phanium’s design names ML-KEM, ML-DSA, and SLH-DSA for key establishment and signatures. Readiness also depends on implementation, integration, and independent evaluation; it is not a guarantee against all future attacks.
The white paper proposes an immutable cryptographic core to reduce patch dependence. Operating systems, integrations, surrounding applications, and hardware lifecycle requirements still need a maintenance plan.
The white paper describes authorization and assessment milestones as roadmap targets, including 2027 FedRAMP goals. This website does not claim completed FedRAMP authorization, FIPS validation, or blanket NIST compliance. Ask for current evidence during your briefing.
Start with your data flows, access requirements, and deployment environment. Review supported hardware, integration scope, key management, revocation behavior, independent security evidence, and an environment-specific cost model.
Tell us what you want to protect.
Share a little about your organization and priorities. We’ll use your request to start a focused conversation about Zero Exposure Architecture.
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