TECHNOLOGY

Engineering the
Impossible

Every component of SolarNode is designed for the extreme environment of space. Radiation hardening, thermal management, and autonomous operation—built from first principles.

Compute
128 cores
Radiation-hardened ARM
Memory
32 GB
ECC LPDDR4X
Storage
2 TB
Triple-redundant NVMe
Solar Array
847 W
GaAs multi-junction
Downlink
150 Mbps
Ka-band
Uplink
25 Mbps
X-band

Radiation-Hardened Compute

Custom ARM-based compute module designed to withstand the harsh radiation environment of Low Earth Orbit. Triple modular redundancy (TMR) with hardware voting ensures continuous operation.

  • 128 radiation-hardened ARM Cortex-A78 cores
  • Triple Modular Redundancy (TMR) architecture
  • Hardware-based error correction
  • 32GB ECC LPDDR4X memory
  • Real-time SEU (Single Event Upset) mitigation
💻

Solar Power System

High-efficiency gallium arsenide (GaAs) solar panels with active sun tracking. 24/7 power generation with minimal battery storage requirements.

  • 847W peak output (GaAs multi-junction)
  • 94% panel efficiency
  • Active sun tracking (±0.1° accuracy)
  • Integrated MPPT controllers
  • 90%+ orbital sun exposure
☀️

Communications

Multi-band communication system with global ground station network. Laser inter-satellite links enable mesh networking without ground relay.

  • Ka-band downlink (150 Mbps)
  • X-band uplink (25 Mbps)
  • Optical inter-satellite links (10 Gbps)
  • AES-256 encryption (hardware)
  • 4 ground stations worldwide
📡

Mesh Network Architecture

Self-healing mesh network that automatically reroutes around failures. No single point of failure. True constellation resilience.

  • Automatic failure detection (<100ms)
  • Dynamic traffic rerouting
  • Consensus-based coordination
  • Zero-downtime updates
  • 99.97% guaranteed availability
🌐

Security Architecture

Zero-trust security model with hardware root of trust. All data encrypted at rest and in transit. Physical security through orbital altitude.

  • Hardware Security Module (HSM)
  • Zero-trust network architecture
  • End-to-end encryption (E2EE)
  • Quantum-resistant algorithms
  • ISO 27001, SOC 2 Type II certified
🔒

Thermal Management

Active thermal control system maintains optimal operating temperatures despite extreme orbital temperature swings (-150°C to +120°C).

  • Active thermal control loops
  • Multi-layer insulation (MLI)
  • Deployable radiator panels
  • Phase-change thermal storage
  • Autonomous temperature regulation
🌡️
ARCHITECTURE

System Architecture

Six layers of abstraction from orbital mechanics to user applications.

6
Application Layer
User workloads, containers, serverless functions
5
Orchestration
Kubernetes-based workload scheduling across nodes
4
Security Layer
Zero-trust, E2EE, hardware root of trust
3
Network Layer
Mesh routing, inter-satellite links
2
Hardware Layer
Radiation-hardened compute, solar power
1
Space Layer
Orbital mechanics, attitude control
DEVELOPER ACCESS

Build on SolarNode

Deploy containers, run serverless functions, or access raw compute directly. Our API provides programmatic access to orbital infrastructure.

api-example.ts
import { SolarNode } from '@solarnode/sdk';

const node = new SolarNode({
  apiKey: process.env.SOLARNODE_API_KEY,
  region: 'eu-west',
});

// Deploy a container
const deployment = await node.deploy({
  image: 'my-app:latest',
  resources: {
    cpu: '2 cores',
    memory: '4GB',
  },
});

console.log('Deployed to orbit:', deployment.id);

Ready to Explore?

See our technology in action. View real-time telemetry from SolarNode One.

View Live Telemetry