One Scientific Universe · Twenty Operational Principles · Six Technology Platforms

Prepare mission and aerospace ideas for simulation, evidence and review.

Space OS and FlightCore Lab help students, researchers, startups and technical teams organise mission concepts, requirements, telemetry workflows, simulation questions, subsystem assumptions, debris awareness, validation gates and future software–hardware pathways before operational aerospace work.

Space OS FlightCore Lab Software-led Hardware-enabled Evidence-aware Human-governed

Pre-operational research and readiness support only. This platform is not launch control, operational flight software, certified avionics, spacecraft command, accident investigation or regulatory approval.

Platform capabilities

Begin with the real question, then build the evidence around it.

Space OS turns a broad idea into defined evidence, responsibilities, software needs, prototype boundaries and reviewable next actions.

01

Mission architecture

Clarify purpose, users, environment, payload, operations, dependencies and success measures.

02

Requirements and interfaces

Organise subsystem requirements, assumptions, interfaces, ownership and traceability.

03

Simulation planning

Define orbital, trajectory, mission-timeline, power, communications and failure scenarios.

04

Telemetry workflow

Prepare signal, event, health, anomaly, data-quality and reporting pathways.

05

Debris and risk awareness

Frame debris, radiation, communications, operational and mission-continuity risks.

06

Research and partner readiness

Prepare architecture briefs, evidence maps, validation gates and collaboration scopes.

Software and hardware pathway

Develop software earlier. Move toward hardware through controlled evidence gates.

The platform supports practical software outputs now while keeping physical prototypes, infrastructure and operational systems behind appropriate testing and professional review.

Software pathway

Organise evidence, workflows, models, dashboards, simulation and decision records.

  • Mission concept and requirements workspace
  • Telemetry-emulation and event workflow
  • Simulation scenarios and validation gates
  • Readiness dashboard, evidence matrix and report builder

Hardware pathway

Prepare interfaces, test logic, traceability and responsible specialist handoff before physical deployment.

  • Software-, model- and hardware-in-the-loop mock planning
  • Bench interfaces and simulated sensor streams
  • Prototype traceability and test-environment preparation
  • Qualified aerospace engineering and regulatory handoff
Evidence-to-action pathway

Make the starting point, uncertainty and next decision visible.

A responsible pathway does not jump from an idea to deployment. It clarifies what is known, what is assumed and which evidence or specialist review is required next.

Illustrative use case

Coastal Observation Mission Concept

A university team wants to explore a satellite concept for coastal environmental monitoring. Space OS can structure mission purpose, observation requirements, payload assumptions, orbit questions, telemetry flow, data products, risk boundaries and a simulation-first collaboration brief.

01

Clarify

Define the problem, intended users, purpose, current materials and desired result.

02

Assess

Separate verified evidence from assumptions, unknowns, risks and missing specialist input.

03

Design

Select the smallest justified research, software, simulation or controlled prototype step.

04

Review

Record limitations, responsibilities, validation needs and the next human-governed decision.

20-Principle application

Use the shared IYABOKO framework without losing sector context.

All twenty operational principles remain available. These selected examples show how the common framework can guide Space OS work.

Umikapo

Domain Context

Define the mission environment and operational domain.

Boko

Engine

Describe the active system, propulsion or mission mechanism.

Meta

Input

Organise mission, sensor, telemetry and environmental inputs.

Imoumikapo

Flow

Map movement of vehicles, information, power and commands.

Daki

Threshold

Set safety, performance and escalation limits.

Bede

Boundary

Keep operational, legal, data and certification boundaries visible.

Gotomai

Reform

Plan system recovery, debris reform or mission-state change.

Itamuto

Multidirectional Continuity

Coordinate multiple signals, systems, routes and stakeholders.

Framework boundary: the 20 Operational Principles are proprietary IYABOKO framework principles. They are not legislation, certification standards or claims of universally accepted scientific laws.
Defined outputs

Produce work that can be reviewed, improved and used for the next decision.

Each engagement should end with a clear output—not only a conversation or an unsupported technology claim.

Mission concept briefPurpose, users, environment, assumptions, architecture and success measures.
Requirements registerSubsystem needs, interfaces, traceability, ownership and verification questions.
Simulation planModels, scenarios, inputs, outputs, uncertainty and validation gates.
Telemetry workflowSignals, events, health, anomalies, data quality and reporting.
Operational-readiness gap reportEvidence, standards, safety, configuration and professional-review gaps.
Partner-ready research scopeDeliverables, exclusions, roles, milestones, IP boundaries and review pathway.
H0–H6 maturity

Show exactly how mature the work is today.

Not every project should reach deployment. H0–H6 keeps concepts, evidence, simulations, prototypes, validation and readiness clearly separated.

H0

Idea

The initial need, question or opportunity is clarified.

H1

Definition

Users, requirements, assumptions, boundaries and success measures are documented.

H2

Evidence

Sources, data, measurements, limitations and evidence gaps are organised.

H3

Simulation

Models, scenarios, inputs, outputs and validation needs are prepared.

H4

Prototype

Software, hardware interfaces, tests, records and safety limits are defined.

H5

Validation

Specialist review, independent testing and compliance gaps are addressed.

H6

Readiness

Deployment, maintenance, insurance, legal and commercial preparation are reviewed.

Not every project needs to reach H6. The suitable next stage depends on purpose, evidence, risk, resources, legal requirements and qualified professional review.
Governance and responsible boundaries

Innovation becomes more credible when limits are visible.

Space OS separates education, research, simulation, prototype planning, validation preparation and operational approval.

01

Evidence labels

Distinguish supported evidence, estimates, assumptions, hypotheses and future claims.

02

Human review

Consequential technical, academic, safety and regulated decisions require qualified people.

03

Data boundaries

Use non-sensitive summaries first and define handling rules before restricted information is shared.

04

Validation gates

Move forward only when evidence, testing, responsibility and review requirements are satisfied.

Platform boundary

Space OS and FlightCore Lab do not provide launch approval, operational flight software, certified avionics, spacecraft command, real-time mission control, accident investigation, export-control advice or regulatory approval. Qualified aerospace engineers, launch providers, regulators and mission specialists are required for consequential use.

Six connected technology platforms

Move between platforms without leaving the IYABOKO scientific universe.

Core OS, Sentinel OS, evidence discipline, maturity visibility and human governance connect every sector pathway.

Bring one clear Space OS question.

Start in AI Workspace, run a readiness review or discuss a defined research, software, simulation or hardware pathway.

One Scientific Universe · Twenty Operational Principles · Six Technology Platforms for Discovery and Innovation