Tiberius Aerospace

Where future Tiberius systems are designed, prototyped, and proven.

The Applied Frontier

Cutting Edge Is An Engineering Zone.

The most valuable defense research is often neither laboratory science nor an incremental product refresh. It sits in the demanding middle: the physics works, the sensors and processors exist, and credible prototypes have been demonstrated — but the capability is not yet modular, trusted, affordable, survivable, or easy to manufacture at scale. That is the zone Tiberius LAB is built to attack.

Our portfolio focuses on integration risk: how to combine energy, sensing, autonomy, precision control, open hardware, digital engineering, and governed AI into systems that keep working when communications, navigation, supply chains, and assumptions are under pressure. The result is research with a direct line to allied interoperability, regional production, and sovereign freedom of action.

The Portfolio at a Glance


This portfolio is informed by public works from U.S. government research organizations and allied security authorities. These references establish that the component technologies and research problems are credible; they do not imply endorsement of Tiberius or claim equivalence to any government program.

How We Work


Mission Before Technology
Research begins with the operational problem and the measurable effect required — not with a technology searching for relevance.
Modular From the First Sketch
Open interfaces, replaceable subsystems, and software-defined behavior allow capability to evolve without restarting the program.
Sovereign by Architecture
Systems are designed for allied interoperability, regional production, controlled data, and national freedom of action.
Human Authority. Machine Speed.
Automation compresses analysis and execution while permissions, escalation paths, and accountable human judgment remain explicit.
Proof Over Promise
Models inform. Prototypes reveal. Testing decides. Every meaningful claim must survive contact with physics, manufacturing, and the mission environment.
Designed to Transition
Research has value when it moves beyond the laboratory into manufacturable, supportable, field-relevant capability.
01

Directed Energy

Precision effects at the speed of light.

Directed energy is becoming a systems-engineering race. High-energy lasers can deliver precise, deep-magazine effects; high-power microwave systems can address electronics and groups of targets. The decisive research is now in combining emitters, holding energy on a moving aimpoint, managing heat, understanding effects, and choosing the right mechanism fast enough for a real engagement.

The differentiator is the complete engagement system: where energy comes from, where waste heat goes, how sensors hand off a track, how the controller schedules effects, and how evidence from each test improves the next model.

Join the Directed Energy Team

Tracks

01 Coherent Beam Combining

Phase-lock modular laser channels so their light adds at the target as one high-brightness beam. The architecture scales by adding repeatable modules, tolerates a failed channel, and avoids betting the program on a single monolithic source.

Exploded assembly diagram of a directed-energy payload: seven stacked layers from a fire-control base through power and thermal management to the beam-generation aperture, annotated with engagement-process, beam-profile, and wavefront-correction callouts

Active

02

Autonomous Platforms

Reach without exposure. Mass without fragility.

The useful frontier is no longer a vehicle following a perfect route on a perfect map. It is a portable autonomy layer that predicts what lies beyond the next ridge, recognizes when its own confidence is falling, survives lost links, and lets a small human team command many heterogeneous machines by intent.

Join the Autonomy Team

Tracks

01 Platform-Agnostic Autonomy Kernel

Separate mission behavior from vehicle-specific controls through adapter interfaces. The same perception, planning, and policy services can move from a small aircraft to a ground vehicle or surface craft while the adapter translates limits, sensors, and control authority.

Exploded assembly diagram of an autonomous platform stack: seven layers from structures and power through compute, communications, and mission systems to the autonomy and platform layers, with an uncrewed aircraft above and design-principle callouts alongside

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03

Advanced Payloads, Guidance & Control

Make the hardware reconfigurable. Make the control system self-aware.

A modern payload should not force a clean-sheet vehicle. The research goal is a modular physical and digital interface that can identify what has been installed, load the correct control law and processing chain, estimate how mass properties changed, and prove the new configuration in simulation before it is released to test.

The cutting edge in precision sensing is not adding more channels for their own sake. It is building a compact system that can compare independent evidence, detect when a source is being denied or deceived, and degrade gracefully rather than fail abruptly.

Join the Payloads & GNC Team

Tracks

Seekers and Resilient Navigation

01 Common Payload and Seeker Backplane

Standardize mechanical datums, power quality, timing, data, thermal paths, and software discovery. A module publishes its identity, calibration, health, and operating envelope so the host can configure it without custom wiring and months of integration.

Exploded assembly diagram of a modular munition payload section: the airframe and seeker nose above a stack of backplane, controller, and actuation layers, annotated with control-law and processing-chain callouts

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04

GRAIL Intelligence

From copilot to trusted autonomy.

GRAIL Intelligence is the shared cognitive layer across the GRAIL family. The objective is not a chatbot attached to existing software. It is a governed system of models, tools, evidence, memory, simulation, and specialized agents that can execute bounded work, challenge its own conclusions, and show exactly why a consequential recommendation should be trusted.

The unifying research concept is a living decision twin for every program: a continuously updated model of technical performance, mission effect, supply resilience, compliance posture, cost, financing, schedule, and evidence quality. Change one component and GRAIL traces the consequences across the entire system.

Join the GRAIL Team

Tracks

01 Mission and Evidence Graph

Connect requirements, threats, effects, designs, bills of material, suppliers, regulations, tests, contracts, financing, and field feedback as a permissioned graph. Every recommendation carries provenance and exposes which evidence would change the answer.

Exploded assembly diagram of the GRAIL Intelligence stack: six layers from secure infrastructure and evidence through action, decision, and intelligence layers to a world-map data layer, annotated with trust and provenance callouts

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Research Basis

Selected Public Signals

This portfolio is informed by public work from U.S. government research organizations and allied security authorities. These references establish that the component technologies and research problems are credible; they do not imply endorsement of Tiberius or claim equivalence to any government program.