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Program· aerospace

Orbit

Nuclear energy for space.

Orbit adapts the Zeklar stack to nuclear power for space missions and infrastructure: power sources for planetary surfaces, propulsion and habitats, with the licensing and safety discipline of terrestrial nuclear. The program joins aerospace rigor to Zeklar's qualification chain.

14 giorni POWER THROUGH LUNAR NIGHT10+ anni QUALIFIED MISSION LIFEsub-critico UNTIL DEPLOYMENTADVISORY MODE · READ-ONLY14 giorni POWER THROUGH LUNAR NIGHT10+ anni QUALIFIED MISSION LIFEsub-critico UNTIL DEPLOYMENTADVISORY MODE · READ-ONLY
01In figuresFIELD DATA
14 giorni
power through lunar night
10+ anni
qualified mission life
sub-critico
until deployment
02The problem

Solar doesn't scale beyond low orbit

Lunar bases, Mars missions and outer-system probes need continuous power that solar panels cannot supply through fourteen-day lunar nights or at great distance from the Sun. Compact fission is the only dense, reliable option, but launching fissile material imposes a level of safety, traceability and authorization the space industry has never had to face.

03What it does04
01

FORGE space microreactor

FORGE core redesigned for minimum mass, remote startup and survival of launch and landing loads. The design stays sub-critical until deployment in orbit or on the surface.

02

AEGIS launch authorization

AEGIS builds the safety dossier for launching nuclear material under the UN principles on nuclear power sources in space. Every accidental-reentry analysis is documented and traceable.

03

CORTEX flight qualification

CORTEX verifies that the entire qualification campaign, from vibration testing to thermal budget, meets aerospace and nuclear standards together. No requirement falls into the gray zone between the two disciplines.

04

VAULT mission archive

VAULT preserves every design, test and telemetry record for the mission lifetime, even when that spans decades. The provenance of every component stays verifiable down to the individual fuel batch.

04How it works04 STEPS
01

Mission profile

We define power need, environment and duration to fix the reactor requirements and the launch-authorization path.

02

Flight design

We adapt FORGE to the mass and safety constraints and complete joint qualification with the space agency and the nuclear authority.

03

Integration

We integrate the reactor into the vehicle or habitat and validate remote startup and safety sequences on the ground.

04

Mission operations

We follow the reactor in flight through telemetry and archive every parameter for its full operational life.

05Deployment

Joint flight qualification

First phase: adapting FORGE to mass and safety constraints and joint qualification with the space agency and the nuclear authority, with CORTEX covering the gray zone between aerospace and nuclear standards.

Ground integration and validation

Integration of the reactor into the vehicle or habitat and ground validation of remote startup and safety sequences, with the core kept sub-critical until deployment.

Mission operations via telemetry

Reactor conduct in flight through telemetry and ground segment, with VAULT archiving every parameter for the full operational life, even when it spans decades.

06Security & compliance

UN launch authorization

AEGIS builds the safety dossier for launching nuclear material under the UN principles on nuclear power sources in space, with every accidental-reentry analysis documented and traceable.

Sub-criticality until deployment

The core stays sub-critical through launch and transit and goes critical only on remote startup in orbit or on the surface: a failure or accidental reentry cannot trigger the reaction.

Dual aerospace-nuclear standard

CORTEX verifies that the entire qualification campaign, from vibration testing to thermal budget, meets NASA/ESA and nuclear standards together, so no requirement falls between the two disciplines.

Provenance to the fuel batch

VAULT keeps the provenance of every component verifiable down to the individual fuel batch for the mission's full duration, a safeguards requirement for launched fissile material.

07Integrations
UN nuclear power sources in space principlesNASA / ESA flight qualification standardsLaunch authorities and range safetyTelemetry and ground segment systemsZeklar AEGIS and VAULT
08FAQ

Why aren't solar panels enough?

Lunar bases, Mars missions and outer-system probes need continuous power that solar cannot supply through fourteen-day lunar nights or at great distance from the Sun. Compact fission is the only dense, reliable option in these environments.

Is it safe to launch a reactor on a rocket?

The core is sub-critical until deployment: during launch and transit it cannot trigger the reaction. AEGIS documents every accidental-reentry analysis under the UN principles, and the design is qualified to survive launch and landing loads.

How do you reconcile aerospace and nuclear standards?

CORTEX handles both qualification frameworks together, so a requirement doesn't fall into the gray zone between the two disciplines. Qualification is joint between the space agency and the nuclear authority from the mission profile onward.

How long can it run without intervention?

Qualified mission life exceeds ten years, with remote startup and telemetry-based conduct from the ground segment. VAULT archives every parameter for the full duration, even when the mission spans decades and no one can reach the reactor anymore.

09The markGRID 64 · STROKE 5

The mark encodes the mechanism, not the sector: l'ala a delta con la scia di vortice.

44302216
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