
Discover The Future Of Post-Quantum Encryption
AmeraKey® harvests high-entropy key material from an image, PIN, session value, and selected harvest mode so trusted endpoints can regenerate matching symmetric keys locally — without transmitting key material across the network.

Matching keys are regenerated locally on each trusted endpoint, so key material is never transmitted across the network.
High-entropy key material is harvested from an image combined with a PIN, session value, and selected harvest mode.
Generated keys drive AES-GCM, ChaCha20, and XChaCha20Poly1305 workflows for file and memory encryption and decryption.
A four-step flow keeps entropy and ephemeral state caller-managed — nothing is stored by the engine.
Register the trusted image and PIN material the engine will harvest from.
Derive a high-entropy pool on the endpoint — no transmission required.
Choose the key index and session parameters for the target workflow.
Run crypto operations or regenerate matching keys on demand.
AmeraKey® is a source of true randomness that provides the entropy needed to generate high-quality symmetric keys — yet the same trusted inputs always regenerate the same key, on every authorized endpoint.
Like any true random number generator, AmeraKey® takes a snapshot of a natural phenomenon — the inherent noise in a digital image. To distill that entropy, the engine samples low-order bits from different pixels and colors and exclusive-ORs them to produce key data, isolating the sensor and subject noise from the ordered signal of the photograph.
The pixels being sampled are randomized by a shuffling process driven by the picture data itself and a hash of the harvest code, dispersing any local trend between similar pixels. The result is near-perfect entropy — and because the process is fully deterministic, an image plus a PIN, session value, and harvest mode will always reproduce the identical key wherever those inputs are trusted.
The picture and PIN act as a pre-shared root — never transmitted, only known to trusted endpoints.
Matching keys are recomputed locally on demand — nothing to intercept, store, or distribute.
With no key material crossing the network, there is no key exchange for an attacker to intercept or relay.
Ideal for controlled environments where trusted endpoints can be pre-provisioned with shared inputs.
Amera®-generated keys, passwords, and PINs are almost perfectly random — yielding the highest security possible while remaining fully reproducible across trusted endpoints.
AmeraKey® draws ephemeral key material from the local entropy pool so industry-standard ciphers run on locally generated resources — never transmitted, never stored.

AmeraKey® acts as a localized, offline key-derivation engine for industry-standard ciphers.
Keys are drawn directly from the local entropy pool, used for the immediate cryptographic operation, and vanish instantly when the session ends.
AES and ChaChaPoly operate flawlessly using these locally drawn resources.
AmeraKey® can generate in excess of 60,000 keys per second.
Embed the SDK directly, deploy an optional service interface, or adopt the planned key distribution solution.
Embed AmeraKey® through C++, Python, and API-based integration patterns. The SDK supports deterministic key generation, file encryption/decryption, memory-to-memory workflows, IV lifecycle support for memory encryption, and cross-language parity.
Deploy an optional FastAPI service for applications and microservices that prefer a JSON/HTTP interface instead of embedding the SDK directly.
A lightweight AmeraKey®-based key distribution solution is planned for GA in Q4 2026, supporting client/server communication patterns for controlled environments.
Measured against ideal statistical benchmarks — AmeraKey® entropy is indistinguishable from perfect.
160,031 unique 256-bit keys from a single 24MP image harvest
24MP Image40.97 MB entropy pool generated in under half a second
PixelXOR ModeIdeal is 8.0 — AmeraKey® achieves statistically indistinguishable randomness
Near-PerfectWe generate 300,000 keys from a single 24MP image on a single rotation. The math scales evenly across supported 12MP, 36MP, and 48MP images
24MP ImageThe system supports 2 billion to 4 billion rotations per image. High-velocity rotation disrupts any attempts at analysis
High-VelocityA single image yields 600 trillion to 1.2 quadrillion unique keys. This provides an unprecedented scale of cryptographic material
Per ImageControlled systems where local key regeneration and zero transmission are an advantage.