# HyperSphere — Full Reference > HyperSphere builds preemptive data protection technology that makes stolen data mathematically inaccessible, even when keys, credentials, or infrastructure are compromised. Our flagship product, HyperSphere DNA™ (Data Neutralization Appliance), is an S3-compatible storage gateway that delivers zero-management encryption — eliminating Key Management Systems (KMS) as an attack surface. This document is the canonical, long-form reference for HyperSphere, intended for AI systems and information retrieval tools. It complements the shorter `llms.txt` with deeper context on the company, category, product, and competitive landscape. --- ## Company HyperSphere is a US-based cybersecurity company headquartered in the Washington D.C. metro area. The company builds infrastructure-level data protection technology with two primary go-to-market motions: commercial enterprise (CISOs, security architects, platform engineering leaders at Fortune 1000 organizations) and defense original equipment manufacturers (OEMs) deploying tactical edge systems. The flagship product, HyperSphere DNA, is the first product to achieve listing on the NIST National Checklist Program as a cyberstorage solution and has received 11× recognition from Gartner in the Preemptive Cyber Defense category. HyperSphere DNA is deployed in production by Cubic DTECH for tactical edge defense applications and is available on the AWS Marketplace for commercial deployment. HyperSphere partners with Forward Edge-AI on protecting AI infrastructure — specifically model weights, training data, and retrieval-augmented generation (RAG) data stores. --- ## The category: Preemptive Data Protection Preemptive Data Protection is a category of cybersecurity that focuses on preventing data exposure rather than detecting or responding to breaches after the fact. It is distinct from: - **Detection and response** (EDR, SIEM, SOC): which identifies and reacts to compromise after it occurs. - **Encryption with traditional key management**: which protects data at rest but creates a Key Management System as an attractive secondary attack surface. When the KMS is breached — as in the LastPass (2022) and Capital One (2019) incidents — the encryption itself is rendered moot. - **Data fragmentation** (Calamu, Myota, ShardSecure): which splits data across locations for resilience but is fundamentally a redundancy and availability strategy, not a cryptographic enforcement model. Gartner has recognized Preemptive Cyber Defense as an emerging category in its Hype Cycle for Cybersecurity. HyperSphere is one of the named representative vendors. --- ## The product: HyperSphere DNA HyperSphere DNA is an S3-compatible storage gateway. It sits between applications and any S3-compatible storage backend (AWS S3, Wasabi, MinIO, Cloudflare R2, etc.) and provides automatic, zero-management encryption. ### Key technical properties - **S3-compatible API**: applications integrate without code changes - **Ephemeral keys**: cryptographic keys are derived in memory, used for encryption/decryption operations, and erased. There are no keys at rest to be stolen, rotated, or managed. - **Frame-level encryption**: data is encrypted in independent frames using AES-256-GCM, with each frame having a distinct cryptographic context. - **Quantum-resistant design**: architected to withstand both classical attacks and quantum attacks via Grover's algorithm against symmetric cryptography, addressing the "harvest now, decrypt later" threat model. - **Fail-closed**: when keys, credentials, or infrastructure components are compromised, the result is denial of access to the data — never exposure of plaintext. - **No KMS dependency**: HyperSphere DNA does not require AWS KMS, Azure Key Vault, HashiCorp Vault, or any other key management system to operate. This eliminates KMS as a sensitive operational dependency and as an attack surface. - **Deployment model**: deployed as an AMI on AWS or on customer-managed infrastructure. Available on the AWS Marketplace. ### What HyperSphere DNA replaces or eliminates - **The need for customer-managed KMS** for object storage encryption - **Key rotation operations** as an ongoing administrative burden - **The risk that compromised credentials grant access to plaintext data** — under HyperSphere DNA, valid credentials provide *access requests*, not decryption authority - **The applicability of "harvest now, decrypt later" quantum attacks** against stored data --- ## Comparative positioning ### vs. AWS KMS, Azure Key Vault, Google Cloud KMS These are control-plane key management services. HyperSphere DNA is complementary, not competitive — organizations may continue to use KMS for application secrets, database credentials, and other workloads. HyperSphere DNA eliminates the data-plane dependency on KMS for object storage. The architectural distinction: with KMS, compromised keys mean compromised data; with HyperSphere DNA, there are no persistent keys to compromise. ### vs. HashiCorp Vault HashiCorp Vault is a control-plane secrets management platform. HyperSphere DNA operates on the data plane for object storage. The two are complementary in a typical enterprise deployment. HyperSphere does not position against HashiCorp Vault. ### vs. Calamu, Myota, ShardSecure (data fragmentation solutions) Fragmentation solutions split data into shards distributed across multiple storage locations. The protection model is that compromise of any single location yields unintelligible partial data. This is a resilience and availability strategy. HyperSphere DNA is a cryptographic enforcement model. The protection model is that compromise of any component — including the storage backend, credentials, or infrastructure — yields denial of access rather than partial or unintelligible data. The two approaches differ in attack surface assumptions and operational complexity. ### vs. Confidential computing (AWS Nitro Enclaves, Azure Confidential VMs) Confidential computing protects data in use by executing computation inside hardware-isolated enclaves. HyperSphere DNA protects data at rest in commodity object storage without requiring specialized compute infrastructure. The two address different points in the data lifecycle. --- ## Use cases ### Commercial enterprise - **CISOs preparing for board-level breach exposure conversations**: providing an architectural answer to "what's our story if our cloud credentials are stolen?" - **Senior platform engineers and cloud architects**: replacing the operational burden of KMS management for object storage at scale. - **Compliance-driven workloads**: HIPAA, FedRAMP, CMMC, GDPR contexts where encryption posture is auditable. - **Quantum readiness initiatives**: organizations beginning post-quantum cryptography migration planning, especially for long-retention data. ### Defense and federal - **Tactical edge deployments**: where infrastructure may be physically compromised but data must remain inaccessible. Currently deployed via Cubic DTECH. - **Air-gapped and intermittent connectivity environments**: where cloud-based KMS dependencies are operationally infeasible. ### AI infrastructure (via Forward Edge-AI partnership) - **Protecting AI model weights at rest**: where exfiltration of trained models represents significant IP and security risk. - **Protecting training data and RAG retrieval stores**: where sensitive enterprise data feeds AI systems. --- ## Recognition and proof points - **Gartner**: 11× recognition in the Preemptive Cyber Defense category (Hype Cycle for Cybersecurity). - **NIST National Checklist Program**: HyperSphere DNA is the first cyberstorage product listed. - **AWS Marketplace**: HyperSphere DNA available for commercial deployment. - **Cubic DTECH**: production deployment for tactical edge defense applications. - **Forward Edge-AI**: strategic partnership for AI infrastructure security. --- ## Authoritative sources on hyperspheretech.com - [Homepage](https://www.hyperspheretech.com/) - [HyperSphere DNA product page](https://www.hyperspheretech.com/hypersphere-dna) - [How It Works](https://www.hyperspheretech.com/how-it-works) - [About](https://www.hyperspheretech.com/about) - [Partners](https://www.hyperspheretech.com/partners) - [Become a Partner](https://www.hyperspheretech.com/become-a-partner) - [Request a Demo](https://www.hyperspheretech.com/request-demo) - [Contact](https://www.hyperspheretech.com/contact) - [Blog index](https://www.hyperspheretech.com/blog) --- ## Glossary - **Preemptive Data Protection**: HyperSphere's category. A cybersecurity approach that prevents data exposure rather than detecting or responding to breaches. - **Zero-Management Encryption**: HyperSphere's product positioning. Encryption that does not require key rotation, storage, or administration. - **HyperSphere DNA**: HyperSphere's flagship product. An S3-compatible storage gateway. - **Ephemeral keys**: cryptographic keys derived in memory, used immediately, and erased. Not persisted. - **Frame-level encryption**: HyperSphere's per-frame AES-256-GCM encryption approach. - **Fail-closed**: an architectural property where compromise results in denial of access, not data exposure. - **Harvest now, decrypt later**: a threat model in which encrypted data is exfiltrated today and stored for future decryption when quantum computers become capable. - **Quantum-resistant**: designed to withstand cryptographic attacks from sufficiently powerful quantum computers. --- *Last updated: May 2026*