Orbital Trust Infrastructure

A physically unreachable trust layer for sensitive data.

AetherSpace is building encrypted orbital storage and secure communication infrastructure — the foundation for a future orbital delivery layer for data that cannot afford to live only on Earth.

Encryptedclient-side protection before data leaves the device
Orbitalphysically isolated storage and relay layer
Verifiableintegrity proofs, audit logs, and recovery paths
The Problem

Ground infrastructure is powerful, but physically reachable.

Encryption protects content. It does not remove the physical and jurisdictional vulnerability of the servers that relay, queue, and store high-value data.

01

Physical compromise

Data centers can be seized, raided, disrupted, or destroyed. The trust boundary still ends at a building on Earth.

02

Sovereignty pressure

Enterprises, governments, and high-value individuals increasingly need infrastructure that is harder to coerce or localize.

03

Incomplete E2EE trust

Secure messaging protects plaintext, but relay queues, key directories, and metadata-adjacent systems remain ground-bound.

The Solution

Move the minimal trusted core to orbit.

AetherSpace is not a flying backend. The product keeps fast-moving complexity on the ground, while the physically sensitive trust boundary moves into LEO.

Orbital Trust Stack

A small, defensible software layer turns a satellite payload into secure data infrastructure.

  • Client-held keys and local encryption
  • Orbital ciphertext storage and relay queues
  • Bandwidth-aware store-and-forward scheduling
  • Verifiable receipts, audit logs, and integrity checks
CLIENT
Secrets stay on user devices. Files and messages are encrypted before upload.
GROUND
Control plane handles product UI, scheduling, billing, analytics, and support.
ORBIT
Satellite-side trust core stores sealed packets and high-value encrypted assets.
DELIVERY
Future orbital delivery layer routes encrypted content through scheduled uplink and downlink windows.
Reliability Moat

Radiation risk becomes a software architecture opportunity.

The goal is not to claim bit flips never happen. The goal is to detect corruption, prove integrity, recover data, and make the proof auditable.

Now

Integrity Layer

File hashes, platform checksum comparison, chunk manifests, retry logic, and audit logs.

Next

Recoverability Engine

Erasure coding, periodic scrubbing, bad-chunk quarantine, replicated metadata, and versioned recovery.

Moat

Cryptographic Proof Layer

Content-addressed orbital storage, quorum reads, Byzantine-verified metadata, and investor-grade attestations.

Roadmap

From secure storage wedge to LEO trust network.

Each phase adds customer value without changing the core thesis: physically resilient trust infrastructure for sensitive data.

P0 · Now

Ground Simulation

Full-stack secure relay, key directory, client crypto, and intermittent-link simulation.

P1 · Demonstrator

Orbital Custody

First focused mission proves encrypted store, downlink, and verification loop.

P2 · Dedicated Node

Reliable Capacity

Redundant storage, erasure coding, multi-ground-station scheduling, and regional routing.

P3 · Network Layer

Space CDN Layer

Multi-node replication and orbital routing for secure delivery and distributed custody.

Team

Hardware precision meets software scale.

YH

Jeremy Hong

Co-Founder & Hardware Lead. Precision hardware, thermal-mechanical modeling, and validation for extreme environments.

KT

Ken Tang

Co-Founder & Software Lead. Distributed systems, AI/ML infrastructure, and cloud-scale architecture.

GZ

Gary Zhou

Co-Founder. Successful serial entrepreneur with deep experience across space-related business, operations, and strategic commercialization.

Build With Us

Secure data should not depend only on ground infrastructure.

We are engaging pilot partners and investors interested in physically resilient, cryptographically verifiable data infrastructure.