Numeric Engineering

IntelligentDesigns

We engineer systems that monitor, predict, and protect the world's most demanding operations.

Numeric at a Glance

Numeric Engineering Inc. is a U.S.-based engineering company that designs and deploys instrumented, edge-intelligent systems for DDIL (Disrupted, Degraded, Intermittent, and Low-Bandwidth) environments. In practical terms, the company measures the behavior of real physical assets, processes that data locally, applies physics-based models and control logic, and converts those results into operational decision support and autonomous system functions.

The Technology

How We Engineer Intelligence

Our full-stack architecture, from sensors to engineered decision support. Click any node to explore.

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What We Do

Solving What Conventional Engineering Cannot

We develop solutions for problems that conventional engineering alone cannot fully address — at the intersection of applied physics, computational modeling, and real-world system performance.

01

Inferring Environmental Conditions from System Motion

The Problem

Environmental conditions such as wave height and wave direction are often incomplete, unreliable, or unavailable in live operations.

The Solution

Physics-based models and machine learning algorithms infer environmental forces from measured vessel motions.

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02

Predicting Structural Response and Fatigue

The Problem

Structural response involves complex interactions between loading, dynamics, and material properties that defy simplified analysis.

The Solution

Coupled models estimate stress, displacement, and fatigue accumulation in real time — calibrated against measured field data.

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03

Measurement Without Direct Instrumentation

The Problem

Critical parameters such as displacement and alignment often cannot be measured directly due to limited access, sensor survivability, or deployment cost.

The Solution

Patented computer vision and physics-based inference extract quantitative measurements where traditional sensors cannot be deployed.

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04

Transitioning Models into Operational Systems

The Problem

High-fidelity engineering models are often too computationally intensive and too disconnected from live data for real-time deployment.

The Solution

Reduced-order models and machine learning representations convert complex simulations into deployable systems that operate on live data.

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Proven Results

Featured Case Study

Decades of high-stakes engineering. One platform that proves it.

Deep Edge — real-time offshore intelligence platform
See It In Action

Deep Edge

A fully integrated monitoring and intelligence platform deployed on offshore installations. Deep Edge combines Numeric's sensor systems, edge computing, AI models, and patented computer vision into a single unified system — giving operators real-time visibility and predictive insight across their entire operation, without vendor lock-in.

Real-time offshore intelligence
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What We Build

We build deployable engineering systems grounded in physics, data, and real operating conditions.

Models that match the field data

High-fidelity models are often developed under idealized assumptions that do not fully represent in-service conditions, leading to divergence from observed system behavior. We calibrate models using measured data so that predictions reflect actual system response under operating conditions.

Unobservable parameters, now observable

Critical quantities such as environmental forcing and directionality, displacement, and internal state are not always directly measurable. We estimate these variables using physics-based inference informed by available measurements, enabling visibility into system behavior that cannot be instrumented directly.

Deployable models under operational constraints

High-fidelity simulations are not suitable for real-time or embedded execution. We develop reduced-order models that preserve governing behavior while operating on live data within strict compute and latency constraints.

Integrated systems

Sensing, modeling, and software are typically developed independently, leading to integration gaps and inconsistent results. We design systems in which data acquisition, computation, and output operate within a single framework, ensuring consistency from measurement through decision support.

Intelligent Designs

Engineered for Real Conditions

Physics. Data. Deployment.

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