An Earth-observation satellite with solar arrays in orbit above Earth's clouds and ocean. Illustrative generated scene.

Helios for Space & Orbital

what’s next?

The launch window moved. Can the mission still deliver?

Replan missions, capacity and ground operations.
You define the outcome. Helios finds the path.

Space & Orbital

Replan missions, capacity and ground operations.

A change on the ground can reshape a mission in orbit. Compare schedules and system designs across launch availability, ground capacity, mission priorities and regulatory boundaries.

Meet Helios Brain

Grounded in your reality

01Launch and mission windows

02Ground-segment capacity

03Spectrum and orbital rules

Explore the Helios experience

Space & Orbital

DEMO

AI-generated, hypothetical plans. No live business data, verified professional advice or real actions.

Start with a decision

Do not enter sensitive information. Prompts are processed by AI and temporarily retained for this demo.

Choose a question or write your own goal0/5 steps connected

01
Define the outcome
02
Connect dependencies
03
Compare routes
04
Check constraints
05
Human approval

Choose a question or enter your goal.The AI will create five steps and three distinct routes.

ClearPressureBlockedAssumptionDependencyApproval gateEvidence

Helios across your ecosystem

Intelligence in orbit. Authority on the ground.

A satellite can carry embedded intelligence while mission objectives, operating limits and critical commands remain governed by accountable human teams.

Decision authority

Mission directors & authorized flight controllers

Authorize mission plans, operating boundaries and critical commands through established flight procedures.

Helios supports

Compare mission windows, ground capacity and contingencies while preserving command approval gates.

A mission director and flight-dynamics engineer reviewing satellite operations at physical mission-control workstations. Illustrative generated scene. — Mission control & flight-dynamics teams

Mission management workstations

The mission stays in human command.

Ground teams assess telemetry and alternatives in a shared management environment. Recommendations remain distinct from commands, with critical actions routed through authorization.

Appropriate scope: Monitor the mission, evaluate alternatives and issue commands only under flight authority.
Review & escalation: Mission director and the appropriate command authority for critical changes.
Evidence returned: Telemetry, contact windows, ground availability and observed mission outcomes.

A cleanroom spacecraft engineer using a communications headset while inspecting a gold-foil satellite payload. Illustrative generated scene. — Payload, integration & assurance specialists

Hands-free context in the cleanroom

Built on engineering evidence.

Integration teams contribute test results and configuration knowledge before launch. That evidence informs mission constraints without giving every specialist command authority.

Appropriate scope: Inspect, test and document hardware under approved engineering procedures.
Review & escalation: Design and mission assurance authorities for configuration or acceptance changes.
Evidence returned: Test results, configuration records, hardware limits and anomaly reports.

Illustrative ecosystem and interfaces, not a live deployment. Roles, integrations and approval limits are defined with each organization.

From question to decision

See the options. Understand the consequences.

Compare mission and launch schedules

Ground the comparison in your data, your objective and your constraints.

Evaluate ground-segment investments

Make dependencies and assumptions visible before you commit.

Plan contingencies before commitment

Carry the chosen path into a plan your team can review and act on.

Where to start

The decisions worth rehearsing.

Potential applications, scoped to your data, priorities and operating environment.

Constellation architecture under demand uncertainty

Test alternative constellation sizes, orbits and frequency plans against demand, regulation and competitive scenarios. Identify the design that holds margin across futures.

Launch manifest and contingency planning

Project launch cadence under provider failures, weather windows, payload slips. See where the manifest holds and where it breaks.

Debris and collision-avoidance strategy

Simulate debris evolution and conjunction events across operational orbits. Identify the manoeuvre budget and avoidance policy that maintains mission life.

Spectrum and orbital-slot strategy

Test ITU filings and coordination against alternative competitor moves. Identify the spectrum and slot positions that actually become defensible assets.

Ground-segment investment

Project ground-station, optical-link and edge-compute capacity against constellation growth. See which investments unlock real value versus which lag mission requirements.

Mission selection and prioritisation

Compare science, defence, civil and commercial mission portfolios against budget, launch capacity and political constraints. Identify the portfolio that delivers across cycles.

What it takes to start

A useful pilot starts with the right foundations.

Agree a bounded decision, a baseline and acceptance criteria before introducing operational use. Scope and timing depend on your data, governance and intended application.

The data

Non-sensitive telemetry and contact-window history
Mission constraints, configurations and resource limits
Historical plans, anomalies and command-review records

The people

Mission director or flight-control sponsor
Flight dynamics and ground operations specialists
Mission assurance, security and data owners

The evaluation

Feasibility across verified mission and contact constraints
Sensitivity to telemetry and configuration uncertainty
Strict separation of recommendations from authorized commands

Before operational use

Isolated replay or simulation environment
Verified mission data and command authority mapping
Flight-procedure review, audit and safe fallback

When Helios should not act

Knowing when to stop is part of the decision.

Missing evidence, uncertain conditions and absent authority require different responses. A recommendation must not silently become an action.

The signal

Telemetry, configuration or contact evidence is unverified.

Appropriate response: Request confirmation and withhold the affected recommendation.
Responsible review: Flight operations and mission-data owners
Before the path resumes: Current mission state is verified by the responsible team.

The boundaries matter

Your rules are part of the model.

Regulatory context shapes how a system should be designed and reviewed. Your legal, compliance and domain teams remain part of that process.

ITU radio-spectrum and orbital-slot filings

FCC / ESA / national space-agency licensing

UN Space Debris Mitigation Guidelines

Export controls on launch and payload technology

Context for implementation, not a certification or guarantee of regulatory compliance.

Trust and governance

Connected challenges

A different world. The same question.

Explore all 15 industries

Robotics deployment and safety engineers reviewing operating requirements at an engineering workstation. Illustrative generated scene.

14 / 15

Robotics & Autonomy

Bring your decision · Space & Orbital

Start with the decision that matters to you.

The outcome, the boundaries and the people responsible. A focused starting point for a conversation about your organization.

Use high-level descriptions only. Do not include confidential, personal, patient, financial-account or classified information.