Orbital Reclamation applies established spaceflight technologies in a conservative, inspection-first framework designed for retired, non-operational assets. Our approach emphasizes predictability, reversibility, and compliance over speed or novelty.

This page describes how we think about the problem, not operational specifics.

Design Philosophy

Our technical approach is guided by four non-negotiable principles:

  • Inspection precedes interaction
  • Reversible actions over irreversible modification
  • Incremental control over aggressive maneuvering
  • Risk containment over performance optimization

These principles shape every system choice and operational decision.

Inspection-First Workflow

Before any physical interaction, we conduct remote, non-contact inspection and characterization to establish a defensible understanding of the asset's condition and behavior.

At a high level, this includes:

  • Visual and geometric characterization
    Building a three-dimensional understanding of the asset's external structure using remote imaging and mapping techniques.
  • Motion and attitude assessment
    Observing rotation, drift, and stability characteristics to understand how the asset behaves over time.
  • Condition inference from observable evidence
    Assessing surface condition, appendage configuration, and passive behavior without relying on internal telemetry.

No physical contact occurs until inspection data supports a conservative interaction plan.

Conservative Stabilization Methods

When stabilization is appropriate, it is performed incrementally and reversibly, using methods designed to reduce uncertainty rather than introduce force.

Key characteristics of our stabilization approach:

  • Gradual change over time
    Adjustments are made slowly to allow continuous observation and correction.
  • Defined safety gates
    Pre-established decision points ("go / no-go" criteria) govern whether an operation proceeds, pauses, or stops.
  • Containment of dynamic response
    Methods are selected to avoid abrupt motion, uncontrolled energy transfer, or debris-generating outcomes.

Stabilization is never treated as a single event. It is a monitored process.

Systems Architecture (Conceptual)

Our technology stack favors mature, flight-proven subsystems integrated in a modular architecture. At a conceptual level, this includes:

  • Remote sensing and imaging systems for inspection and characterization
  • Attitude determination and control systems appropriate for slow, controlled operations
  • Redundant communications and command pathways to maintain oversight and abort capability
  • Mechanical interfaces designed for low-force, reversible interaction, where authorized

We prioritize reliability, observability, and fault tolerance over novel or tightly coupled designs.

Operational Transparency Boundaries

For safety, security, and regulatory reasons, we do not publish:

  • Proximity-operation distances or approach profiles
  • Interaction forces, timing sequences, or control laws
  • Tooling designs or capture mechanisms
  • Target-specific procedures or mission timelines

This boundary is intentional. Public transparency should not increase risk to space assets.

Where appropriate, detailed technical information is shared privately with authorized counterparties under appropriate agreements.

Technology Maturity and Validation

We do not deploy unvalidated concepts on active or retired assets.

Our approach to technical maturity includes:

  • Use of established subsystems and architectures
  • Progressive validation through simulation and ground testing
  • Conservative first-mission objectives focused on observation and control
  • Documentation of outcomes and lessons learned to inform future phases

Technical credibility is earned through repeatable, measured results.

Why This Approach Matters

Retired satellites are not test articles. They are part of a shared orbital environment.

A conservative, inspection-first technology posture:

  • Reduces the probability of unintended outcomes
  • Aligns with regulatory and insurer expectations
  • Supports long-term orbital sustainability
  • Builds confidence with asset owners and oversight bodies

Our technology choices reflect that responsibility.