Abstract purple energy stream in dark space

Space Edge™

Space Edge is Voyager’s managed, space-hardened cloud platform, the first multi-cloud region in space. It processes data in orbit, offering up to 30x faster processing than traditional satellite-to-ground methods.

G1 A1 single-board computer P1 – Power Supply F1 Single-Board Computer PDK SHIRE
Vivid purple aurora lights in starry night sky.
GPU acceleration built for the harshest environments in orbit

G1

G1 is a configurable, radiation-tolerant edge accelerator on a 3U SOSA-aligned single-board computer. It pairs a Teledyne LS1046A processor and AMD-Xilinx Kintex UltraScale KU040 FPGA with an NVIDIA Jetson AGX Orin or Orin Nano, backed by a rad-hard monitor for reliable boot and configuration.

  • Configurable by design: Multiple GPU and AI-accelerator configurations on the same hardware
  • Built-in resilience: Rad-hard monitor handles boot, configuration, and scrubbing for CPU and FPGA
  • Mission ready: Designed to QML Class P for rapid, fast-turn space missions
Vivid purple aurora lights in starry night sky.
Multi-core CPU power meets massive FPGA flexibility

A1 single-board computer

A1 pairs a Teledyne LX2160A processor with an AMD Kintex UltraScale KU115 FPGA on a radiation-tolerant 3U SOSA-aligned single-board computer. A rad-hard monitor ensures reliable boot and scrubbing, giving developers flexibility and high performance for demanding workloads.

  • Serious processing power: 16x ARM A72 cores for traditional processing tasks
  • Always watching: CPU and FPGA monitoring with boot and configuration support via RHM
  • Health at a glance: On-board ADC and IPMC report telemetry to the system manager
Vivid purple aurora lights in starry night sky.
Reliable, modular power for the whole payload stack

P1 – POWER SUPPLY

P1 is a modular, radiation-tolerant SOSA-aligned power card delivering up to 330W for 3U missions. It’s built to power FPGA and processor cards in a SOSA-aligned chassis, with an on-board IPMC controller for full system telemetry.

  • Power where it’s needed: 300W isolated 12.0V output plus a 30W isolated 3.3V AUX output
  • Built for the chassis: EMI filtering, inrush control, and switched services protect the system
  • Flexible by design: Expansion connector adds switched services and front-panel connections
Vivid purple aurora lights in starry night sky.
Accelerate payloads to flight readiness

F1 Single-Board Computer

F1 is a radiation-tolerant 3U SOSA-aligned single-board computer built around the AMD Versal AI Core VC1902. A rad-hard monitor provides boot, configuration, and scrubbing support, letting VSPARC reconfigure in-flight to meet changing mission needs.

  • AI/ML on orbit: High-performance AI and DSP processing with fault-tolerant computing
  • Adapts in flight: Robust reconfiguration supports dynamic mission requirements
  • System-wide awareness: On-board ADC and IPMC deliver full telemetry to the system manager
Vivid purple aurora lights in starry night sky.
Accelerate payloads to flight readiness

PDK

The Voyager PDK supports every phase of mission development, from board bring-up to flight-ready payload. Each Voyager compute platform pairs with a PDK combining a representative development environment, extensible platform software, and mission services for integration and flight operations.

  • Develop earlier: Processor emulation supports development and validation before flight hardware arrives
  • Integrate faster: Board reference designs and a mature software baseline reduce integration effort
  • Optimize operations: Intelligent resource orchestration maximizes payload compute utilization
Vivid purple aurora lights in starry night sky.
INTEGRATE FLIGHT SOFTWARE BEFORE FLIGHT HARDWARE ARRIVES

SHIRE

Space Edge SHIRE (Software & Hardware Integration Runtime Environment) is an open-source, software-only simulation environment that emulates satellite flight hardware and interfaces — connecting flight software, spacecraft dynamics, components, and ground systems inside one synchronized environment so teams can develop, integrate, and test an end-to-end mission from day one.

  • Start earlier: Give every engineer a repeatable mission environment before physical hardware is available
  • Test fearlessly: Exercise nominal, off-nominal, fault detection, and correction scenarios on demand
  • Scale confidently: Move from one component to a vehicle or constellation without changing the integration model