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NEXUS

Real-time strategy and telemetry AI for high-stakes operations.

NEXUS is a multimodal AI reasoning engine for high-stakes live operations: it fuses heterogeneous streams of telemetry, sensor data, and environmental context into plain-language operational decisions with sub-millisecond latency. It is built for any setting where competitive advantage lives in the speed of insight, not the volume of data.

<2 ms SIGNAL TO RECOMMENDATION94% PREDICTIVE ACCURACY99.97% OPERATIONAL UPTIMEADVISORY MODE · READ-ONLY<2 ms SIGNAL TO RECOMMENDATION94% PREDICTIVE ACCURACY99.97% OPERATIONAL UPTIMEADVISORY MODE · READ-ONLY
01In figuresFIELD DATA
<2 ms
signal to recommendation
94%
predictive accuracy
99.97%
operational uptime
02The problem

The insight arrives after the window has closed.

In high-stakes operations the decisive windows last seconds, yet the data that governs them arrives in torrents: sensor buses, imagery, high-frequency tracks, voice. Human capacity to synthesise competing signals in real time is fundamentally capped, and conventional systems deliver analysis hours after the event, long after the call was made on instinct. The bottleneck is not collecting the data, it is the speed at which it becomes a defensible decision.

03What it does04
01

Live multimodal reasoning

A transformer inference engine reasons simultaneously over heterogeneous streams, data buses, inertial sensors, thermal imaging, high-frequency positional tracks, and returns contextual recommendations rather than raw alerts.

02

Sub-millisecond decisions

A Rust ingest layer normalises and timestamps every signal within hundreds of microseconds of arrival, keeping the full pipeline, from raw signal to recommendation, inside the operator's decision window.

03

Domain-native language copilot

An LLM fine-tuned on the domain's vocabulary, regulations, and procedures translates system state into operational guidance experts describe as indistinguishable from a human peer, amplifying judgement rather than replacing it.

04

Predictive surrogate models

Physics-informed neural networks and offline-trained surrogates reproduce, in real time, simulations that traditionally take hours, forecasting how the scenario will evolve rather than merely describing the present.

04How it works04 STEPS
01

Ingest

The Rust layer captures, normalises, and synchronises every sensor and event stream with deterministic timestamps at microsecond latency.

02

Reason

The multimodal engine correlates signals, weighs options, and forecasts how the scenario evolves across its prediction horizon.

03

Advise

The domain LLM turns the output into a plain-language recommendation, complete with rationale and confidence level.

04

Act

The recommendation reaches the operational console over a low-latency bus, ready for execution or automated actuation.

05Architecture

NEXUS is a four-stage pipeline in which every signal passes through deterministic ingest, multimodal fusion, reasoning and actuation without ever leaving the operator's decision window. Each stage is isolated and observable, so the path from sensor to recommendation stays traceable end-to-end.

01Deterministic ingestA Rust layer captures CAN bus, IMU, high-frequency GPS and thermal imaging, normalises them and timestamps each with microsecond jitter. Backpressure and temporal ordering ensure no signal reaches reasoning out of sequence.
02Multimodal fusionNormalised streams are aligned on a common temporal axis and projected into a shared embedding space, where heterogeneous signals become comparable and correlatable in real time.
03Reasoning engineA transformer inference engine, paired with physics-informed surrogate models, weighs options and forecasts scenario evolution across the prediction horizon, running on GPU inference clusters.
04Copilot and actuationThe domain LLM turns system state into a plain-language recommendation with rationale and confidence, delivered to the console over a low-latency bus for human or automated execution.
06Specifications
Signal-to-recommendation latency<2 ms
Predictive accuracy94%
Operational uptime99.97%
Ingest interfacesCAN / IMU / GPS / thermal
Event streamingApache Kafka
Inference accelerationNVIDIA GPU
Integration APIREST / gRPC / WebSocket
Timestamp jitter<100 µs
07Deployment

Managed cloud

Managed GPU inference cluster with auto-scaling for multi-console scenarios; suited to training and refreshing surrogate models, with telemetry data encrypted in transit.

On-premise

Deployment on the customer's infrastructure, typically paired with a MONOLITH compute centre for inference, with the ingest layer as close to the sensors as possible to minimise latency.

Air-gapped edge

Fully network-isolated execution on edge hardware, with models loaded offline and updates delivered via signed media: the entire signal-to-recommendation pipeline stays local, with no dependency on external connectivity.

08Security & compliance

Standards and certifications

Development aligned to ISO 27001 for information security management and SOC 2 Type II for operational controls, with a release process based on signed artifacts.

Data sovereignty

In on-premise and air-gapped modes telemetry never leaves the customer perimeter; region choice and data residency are configurable even in cloud.

Access and audit

Role-based access control (RBAC) on operational consoles and an immutable audit trail of every recommendation, with rationale and confidence logged for post-event review.

Encryption

AES-256 encryption of data at rest and TLS 1.3 for data in transit between ingest, inference and consoles; keys remain within the customer perimeter in isolated modes.

09Integrations
CAN bus and inertial sensors (IMU)High-frequency GPS and thermal imagingApache Kafka event streamingNVIDIA GPU inference clustersWebGL / Three.js visualisationDomain corpora and regulatory rulesets
10FAQ

Does NEXUS replace the operator?

No. NEXUS amplifies judgement: it produces recommendations with rationale and confidence, but the decision and actuation stay under human control, unless automated actuation is explicitly configured by the customer.

How do you keep latency under 2 ms?

The Rust ingest layer normalises and timestamps every signal in microseconds and inference runs on GPUs close to the sensors. Latency depends on the physical proximity of compute: this is why we recommend on-premise or edge for the most critical scenarios.

Can we run it with no external connectivity?

Yes. The air-gapped mode runs the whole pipeline locally; models are updated offline via signed media, with no cloud dependency in operation.

How is it adapted to our domain?

The copilot LLM is fine-tuned on the domain's vocabulary, regulations and procedures from your corpora; surrogate models are trained offline on your scenarios, so recommendations speak your operations' language.

What happens if a sensor fails?

Multimodal fusion degrades gracefully: a missing stream lowers the recommendation's confidence rather than blocking it, and the operator explicitly sees which sources are contributing.

11The markGRID 64 · STROKE 5

The mark encodes the mechanism, not the sector: fleets, routes, logistics..

44302216
ProofDeployed in production: read the case study
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