Distributed AI engine built for the tactical edge.
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Fielded AI cannot depend on centralized compute or stable links

Most of us have watched AI grow in the commercial world and asked a simple question: why can’t we use it the same way in the field? The answer is obvious once you’ve been outside the wire. Cloud-based tools collapse the moment bandwidth drops. Models that look good in a demo don’t survive contact with real networks. The technology exists, but it’s been built for environments we don’t operate in.

HEX starts from that reality. It doesn’t assume clean links, centralized compute, or perfect infrastructure. It treats the equipment already in your formation, UAS, vehicles, ground stations, as pieces of a distributed inference system. When radios degrade, it adapts. When nodes fail, the system keeps moving. The goal isn’t to sell another black box. The goal is to make advanced AI as dependable as the radios and sensors you already trust, and to do it without asking operators to relearn how they fight.

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/ THE PROBLEM /

Pushing raw sensor data to central nodes overloads tactical radios and delays decision cycles.

The problem isn’t a lack of sensors or compute. We have both in abundance. The problem is how we use them. Current architectures still treat each platform as a closed box or as a pipe to push raw data back to a centralized node. That works in the lab, but in practice it breaks under contested networks.

Most programs assume that to run advanced models, you have to centralize them. That assumption is wrong. We’ve seen attempts, shrinking models down until they’re ineffective, or leaning entirely on new hardware, but they stop short. The bottleneck isn’t the models or the boxes, it’s the movement of raw sensor data across radios and tactical links that were never built for that volume. When those links strain, the entire OODA loop slows to a crawl. The intel arrives late, or not at all, and the opportunity to act is gone.

HEX changes that. Instead of forcing raw data through saturated pipes, it pushes inference out to the edge and moves only the features forward. That keeps bandwidth manageable and keeps the system alive, even when radios degrade or nodes fall away. The sensors, the computers, the radios, they’re already in place. The gap is how we orchestrate them into something that can sustain modern AI in real operational conditions.

/ OUR SOLUTIONS /

A Distributed Approach to AI for Resilient Operations

HEX treats every platform as part of a larger inference system. Instead of forcing each node to run a stripped-down model or pushing everything back to a datacenter, it partitions models across the hardware you already field. A UAS can handle the early encoder, a vehicle can process the backbone, and a tower or ground station can close out the detection head. What moves between them isn’t raw video, but compact features enough to carry the intelligence forward without overloading the radios.

That shift does two things. First, it preserves fidelity. You don’t have to cripple models just to make them fit. Second, it makes the system resilient. When bandwidth drops or nodes disappear, inference doesn’t stop, it adapts. The network isn’t a single point of failure.

This isn’t about adding more hardware or demanding new CONOPS. It’s about using what’s already deployed, mission computers, radios, existing platforms and orchestrating them differently. The result is AI that continues to function in the environments you actually operate in: degraded links, contested spectrum, and unpredictable availability of nodes.

/ TECHNICAL DEEPDIVE /

HEX discovers node capability, assigns model segments, and passes tensors, not video frames across links.

HEX is middleware, but not in the traditional sense. Its job isn’t to hide complexity, it’s to orchestrate models across devices that were never designed to behave like one machine.

It starts with capability discovery. Each node is profiled for what it can contribute, whether that’s a small ARM processor on a UAS, a GPU-equipped VPX in a vehicle, or a rugged server on the ground. The orchestration layer then assigns model components accordingly. Heavy backbone layers move to stronger nodes; lightweight encoders stay with the sensors at the edge.

The currency in this system is tensors, the compact outputs of intermediate layers. Instead of shipping full frames across fragile links, HEX passes only what the next stage needs. That keeps radios sustainable under variable conditions. When throughput drops, HEX adjusts tensor size or cadence rather than halting altogether.

Partitioning modern architectures is rarely simple. Transformers, multimodal backbones, and attention-heavy networks don’t always split cleanly. HEX applies hardware and topology partitioning to slice models where it matters, letting you focus on application design instead of infrastructure engineering.

Scalability comes from how HEX grows with the force structure. Integrated with rugged VPX systems, it uses what’s already in the inventory as anchor nodes in the inference fabric. As new platforms arrive, they don’t sit isolated; they expand the pool. The more you field, the stronger the system becomes.

/ CONCLUSION /

HEX: A New Standard for Tactical AI

HEX was built around a simple premise: edge AI must survive the conditions operators actually face, thin bandwidth, unreliable links, contested spectrum, and nodes that don’t always stay online. It can’t depend on ideal networks or on stripped-down models that miss the targets that matter.

If your program needs to push real AI capability forward without redesigning every platform or betting everything on backhaul, HEX is ready to be part of that solution. Let’s talk about how it can run on your existing compute, radios, and networks and how to scale it across the systems you already field.

Ready to take your product to the tactical edge?

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