Embedded AI and computer vision

Engineering for the conditions a system will actually face.

Computer vision and embedded AI, from feasibility and platform selection to integration, testing and deployment.

A model inside a working system
InputsEdge deviceResponse & fallback

A starting point

An engineering feasibility review.

Bring a prototype, workload or hardware choice. We assess the constraints, identify what needs testing and set out the next engineering steps.

Discuss a feasibility review

When it helps

A prototype works in a demo, but you need evidence that it can meet real response-time, power and reliability requirements.

Bring what you have

The target task, deployment environment and any prototype or hardware shortlist. Existing results are useful, even if incomplete.

The work

Test the task. Design for deployment.

Test the task

Representative data, model evaluation and meaningful acceptance criteria.

Choose the platform

NVIDIA, Hailo and other edge options assessed against latency, power and cost.

Prepare deployment

Model conversion, integration, monitoring and a maintainable operating design.

What you leave with.

Methods and supporting detail

Start with the operating requirement

What does the system need to recognise or infer? How quickly must the result arrive? What happens if it is wrong, late or unavailable?

These questions shape the design. A tool that helps a person inspect a product has different requirements from one connected to an automated process. We make those differences explicit before choosing a platform or committing to a build.

Where we can help

Feasibility and architecture

Assess whether the proposed approach is suitable for the task, what data and hardware it needs, and which assumptions require a test. Compare on-device, on-site, cloud and hybrid processing against latency, connectivity, privacy, maintenance and cost.

Computer vision evaluation

Define useful measures for the task and examine performance across the conditions that matter: changing light, occlusion, camera position, object variation and the frequency of relevant events.

We consider missed events, false alerts and the workload created for the person receiving the result. A single accuracy figure can hide the behaviour that matters most.

Embedded and edge platforms

Review hardware selection, sensor interfaces, memory, power, thermal behaviour and software dependencies. This includes NVIDIA platforms and Hailo AI accelerators and vision processors where they fit the application.

Performance testing should reflect the intended configuration and sustained workload, including the work around inference such as decoding, preprocessing and recording.

For Hailo projects, an engagement can examine model compatibility, compilation and quantisation, host integration, runtime dependencies and evaluation of the deployed model. For NVIDIA projects, the work can cover platform and inference-pipeline choices, hardware constraints and deployment requirements. We compare the complete workload, including support and maintenance, rather than ranking devices by headline compute figures.

Prototype to deployment

Develop an evaluation plan, integration requirements and a controlled route into operation. We help define what needs to be observed after release and how an update, rollback or loss of connectivity will be handled.

Physical AI integration

For systems that sense or interact with the physical world, we examine the boundary between model output and action. That includes operating limits, human involvement and behaviour when data or confidence is insufficient. Where the application has safety requirements, the engineering scope must include the relevant specialist assurance.

We can connect that work to physical AI readiness and evidence planning, including initial review of NVIDIA Halos approaches where relevant to the proposed system.

A typical question

“The prototype works on a desk. What do we need to know before putting it on site?”

We would look at the intended environment, workload and failure consequences, then design tests around the largest uncertainties. The aim is to find out what the system can reliably support and what still needs engineering work.

Before we begin.

Can you assess hardware we already use?

Yes. We start with your current system and the limits that matter, including compute, connectivity, thermal conditions and support.

How does physical AI safety fit?

Where AI affects the physical world, we connect performance tests with operating limits, failure response and the evidence needed for safety review.

Working with AI in the physical world?

Physical AI safety and readiness

A useful place to start

What decision is ahead of you?

Tell us what you are building, adopting or trying to understand.

Discuss your project