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Engineering · Technology · Managed Services

Engineering services

Engineering connected from requirement to production.

CX24 provides multidisciplinary engineering services for physical, digital and connected products. We connect product definition, mechanical design, simulation, electronics, embedded software, validation and production readiness in one delivery model.

Mechanical engineer assembling a robot in a workshop
Engineering / Product systemsRequirement to production

One engineering capability

Detailed analysis and system understanding.

Physics Based Modelling complements conventional CAE. The right mix depends on the decision, required fidelity and available evidence.

Detailed engineering

Conventional CAE

Resolve local behaviour in components and assemblies: stress, deformation, temperature, flow and dynamic response.

  • Geometry, mesh and material representation
  • Load cases, boundary conditions and numerical checks
  • Detailed analysis and engineering interpretation

Shared physics
Shared evidence
Agreed interfaces

Connected behaviour

Physics Based Modelling

Represent the relationships that govern system behaviour, coupled effects and repeated operating scenarios.

  • System architecture and multi domain models
  • Reduced order representations where suitable
  • Faster evaluation only where the comparison supports it

A reduced or system model does not automatically replace detailed CAE or physical testing. Its intended use and limitations remain part of the engineering decision.

01 / Required inputs
  • User and stakeholder needs
  • Operating conditions and constraints
  • Existing architecture and interfaces
02 / Working methods
  • Systems engineering
  • 3D CAD and PLM
  • FEA
03 / Evidence produced
  • Requirements baseline
  • Architecture and interface decisions
  • Verification and release logic
04 / Connected disciplines
  • Product engineering
  • Mechanical design
  • Simulation and CAE
Lifecycle positionDefine

Requirements, operating conditions, interfaces and success criteria.

Core capabilities

Capabilities included.

Choose the capabilities your project needs. We agree the scope, interfaces and required outputs with your team before work starts.

01

Product engineering

Requirements, feasibility, system architecture, concept development, integration and lifecycle coordination.

Practical coverage

New product development, product improvement and sustaining engineering.

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02

Mechanical design and CAD

Concept layouts, parametric 3D models, assemblies, drawings, tolerance definition and DFM support.

Practical coverage

From early packaging studies to manufacturing ready design packages.

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03

Simulation and CAE

Structural, thermal, fatigue, vibration, CFD and coupled physics analysis connected to design decisions.

Practical coverage

Models are defined around the engineering question, operating condition and evidence need.

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04

Electronics and embedded

Electronics architecture, firmware, controls, sensing, communications and system level verification.

Practical coverage

Hardware and real time software are engineered together at their interfaces.

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05

IoT and digital twins

Asset connectivity, edge processing, telemetry, operational models and decision support applications.

Practical coverage

Extend engineering knowledge into the product operating lifecycle.

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06

Quality and production

Design for manufacture, validation planning, technical documentation and controlled production handover.

Practical coverage

Prepare product definition and evidence for repeatable execution.

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Delivery model

How we deliver.

Engineering work begins with the decision that must be supported and the evidence required to make it responsibly. Requirements, interfaces, assumptions and validation authority stay visible throughout delivery.

01

Inputs we establish

Product requirements, operating conditions, geometry, interfaces, existing test evidence, standards and release constraints.

Missing or uncertain inputs are recorded with an owner and their effect on model or design authority.
02

How the team works

An accountable engineering lead coordinates the mechanical, simulation, electronics, embedded or digital specialists required.

Client technical owners remain connected through design reviews, issue decisions and agreed approval gates.
03

How work is controlled

Models, calculations, software, drawings, assumptions, interfaces and changes are reviewed at defined maturity points.

Each output states its purpose, limitations, validation status and the next decision it is intended to support.
04

How success is measured

Requirements checked, risks resolved, interfaces verified and readiness for the next development stage.

Progress is reported through accepted engineering outputs and resolved decisions, not activity volume alone.

Solutions

Solutions for common delivery needs.

Start with the problem you need to solve. We define the work, responsibilities and acceptance criteria around that need.

01

You need specialist capacity within an existing engineering team.

How CX24 respondsAdd the required engineering discipline with agreed responsibilities, access, review points and deliverables under your programme governance.
02

A programme requires several disciplines to work as one system.

How CX24 respondsAssign an engineering lead, define subsystem interfaces and coordinate design and verification across the participating disciplines.
03

Late design change or validation failure is slowing product release.

How CX24 respondsInvestigate the issue, assess change impact and prioritise the engineering and test work needed for an informed release decision.
04

You need a controlled transition from concept or prototype into production.

How CX24 respondsComplete the design definition, manufacturing reviews, verification records and handover package for the agreed production stage.

Delivery approach

A clear path from scope to evidence.

The exact gates change by service, but ownership, review and measurable outputs stay explicit. Each stage establishes the information needed to enter the next one responsibly.

01

Define

Requirements, operating conditions, interfaces and success criteria.

Stage outcomeProduct definition is prepared or updated before the work advances.
02

Architect

System boundaries, disciplines and verification logic.

Stage outcomeDesign package is prepared or updated before the work advances.
03

Develop

Coordinated physical, electronic, embedded and digital design.

Stage outcomeValidation evidence is prepared or updated before the work advances.
04

Validate

Simulation, prototype and test evidence against requirements.

Stage outcomeProduction handover is prepared or updated before the work advances.
05

Industrialize

Manufacturing data, quality inputs and release documentation.

Stage outcomeAgreed next stage evidence is prepared or updated before the work advances.

What you receive

Typical deliverables.

Deliverables are adapted to the client environment and agreed acceptance criteria. The aim is to leave behind usable engineering, technology or operating capability, not presentation material alone.

01

Product definition

Requirements, architecture, interfaces and development plan.

Assumptions, ownership, dependencies and the agreed review status are recorded with the output.
02

Design package

Models, drawings, calculations, software and technical documentation.

Working files, source information and revision status are organised so the client team can continue using them.
03

Validation evidence

Analysis reports, test plans, results and issue closure.

Results include the relevant checks, open issues, limitations and approval evidence, not only the final conclusion.
04

Production handover

Released data, change status and manufacturing readiness inputs.

Final handover identifies accepted scope, residual risk, next actions and the accountable owner for each action.
Technology and methods
Systems engineering3D CAD and PLMFEACFDEmbedded C/C++RTOSIndustrial IoTDigital twins

Engineering execution

People, methods and a defined delivery responsibility.

Build the engagement around the required disciplines. Named personnel, availability, credentials and relevant experience are confirmed during scoping.

Representative role

Engineering lead

Owns the technical scope, interfaces, assumptions, review gates and the connection to the customer decision.

Representative role

CAE & discipline engineer

Develops the analysis setup, material and boundary assumptions, numerical checks and engineering interpretation.

Representative role

Modelling & simulation engineer

Develops governing models, parameter studies, system interfaces and reduced representations where appropriate.

Representative role

Verification & validation reviewer

Reviews acceptance criteria, reference evidence, calibration separation, uncertainty and the limits of the result.

Representative role

Engineering software specialist

Supports reproducible model execution, automation, version control, packaging and integration requirements.

Delivery options

Work package, pilot or team

Use a defined analysis package, a bounded modelling pilot or an agreed engineering team. Scope, accountability and acceptance stay explicit.

These are capability profiles for engagement planning, not named employee biographies or a claim of current headcount.

Tools & working environment

Choose the toolchain around the engineering problem.

The software, versions, licences, compute environment and transfer formats are agreed before work starts. A tool name alone is not evidence that a model is fit for use.

CAD, FEA & CFD

Confirm native geometry, solver and meshing requirements, material sources and result formats against the customer environment.

Detailed design & analysis

Scientific computing

Assess Python based numerical workflows for parameter studies, automation, data preparation and reproducible comparisons.

Candidate ecosystem: Python · NumPy · SciPy

System models & exchange

Assess equation based modelling and model exchange interfaces where multiple systems or toolchains must work together.

Candidate ecosystem: Modelica · FMI

Agree before execution

Solver and version · Licence responsibility · Compute and data location · Model interfaces · Reproducibility · Handover format

Candidate tools are options to evaluate, not claims of CX24 vendor partnership, certification or installed licences. About the FMI model exchange standard ↗

Delivery evidence

Evidence clients can review before acceptance.

Agree the deliverables, review records and acceptance measures at the start. These are the evidence you should receive during delivery, not claims about past projects.

01

Accepted outputs

Deliverables are mapped to agreed criteria, version status, accountable owners and review decisions.

02

Decision trail

Inputs, assumptions, interfaces, changes, exceptions and approvals remain connected to the work.

03

Delivery measures

Progress, quality, risk, backlog or service measures are selected for the actual engagement.

04

Practical handover

Working files, source information, runbooks and handover actions leave the client able to continue.

Client names, project details and outcome claims are published only with permission. Evidence for a specific engagement is confirmed through the agreed scope, reviews and acceptance records.

Start with a defined scope

A focused package before a larger programme.

Choose the first decision you need to make. We can scope the analysis, review or pilot around it.

Build · Enable · Operate

Bring the requirement.
We will help define the right delivery structure.

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