Machinery CE Marking Software - What Are Your Organisation's Requirements?

Do you really need dedicated software for the CE marking of machinery?

Not necessarily.

Many companies manage risk assessments, checklists, and technical documentation using Word and Excel. For smaller operations with only a few machinery projects, this can work well - especially if established procedures and solid document control are already in place.

However, as projects multiply, machinery becomes more complex, and cross-functional collaboration is required, challenges tend to escalate.

The risk assessment lives in an Excel spreadsheet. The instruction manual is stored in a separate folder. Protective measures are being discussed over email, and an inspection report is still pending from the commissioning technician.

The documents exist. The real question is: does anyone have a complete overview?

This is precisely where dedicated CE marking and machinery safety software starts to deliver real value.

So, what kind of software do you actually need? That depends on your product scope, organizational workflows, and the specific operational bottlenecks you are looking to resolve.

When are Word and Excel sufficient, and when is dedicated software required?

Word and Excel are not bad tools. Quite the opposite.

The problem arises when standalone documents are expected to serve as a unified management system for the entire CE conformity assessment process.

Managing a risk assessment in a spreadsheet is feasible. But what happens when multiple design engineers collaborate on the same machine? When risk reduction measures must be assigned across different departments? Or when an assembly of machinery is modified and you need to trace which risk assessment applies to which unit?

At that point, it is no longer just about documentation.

It is about maintaining traceability across projects, team members, statutory requirements, hazards, risk reduction measures, and engineering decisions.

What is the true cost of administrative overhead?

In our article on the true cost of using Word and Excel, we examine a hypothetical scenario featuring a machinery manufacturer completing 20 projects per year.

If locating documents, updating templates, copy-pasting data, compiling annexes, and version-tracking takes two hours and forty minutes per project, that adds up to approximately 53 hours of administrative overhead annually.

This is not an empirical industry benchmark, but a practical calculation model. Actual time spent varies across organizations.

Nevertheless, it demonstrates a key point: minor administrative inefficiencies accumulate significantly when scaled across multiple projects.

Read the full article on the hidden cost of Word and Excel.

Different organizations require different CE software capabilities

It is tempting to evaluate software simply by tallying features.

Yet the platform with the most features is not necessarily the best fit for your workflow.

For one company, reusable project templates may be critical. For another, a comprehensive machinery register is essential. And for a third, the priority is verifying that all protective measures are validated and closed out prior to final dispatch.

Here are five common operational scenarios.

1. Small-scale machinery manufacturers – when CE marking is not a full-time role

In smaller machinery builders, responsibility for CE marking often rests with a design engineer, project manager, or technical director who also manages numerous other responsibilities.

Months may pass between projects. Each time, they must re-familiarize themselves with legacy documentation, review applicable harmonized standards, and pick up the risk assessment process from scratch.

Key software requirements:

A structured workflow, pre-configured legal and technical requirements, native support for risk assessment in accordance with EN ISO 12100, and the ability to leverage prior technical files.

The platform must enable quick onboarding without requiring days of intensive training.

Noex was designed specifically with this operational reality in mind. The platform integrates risk assessments, regulatory requirements, checklists, and project templates into a single environment.

2. Custom machine builders and system integrators - multi-user collaborative engineering

Builders of bespoke machinery or complete production lines rarely encounter two identical projects.

Mechanical design, electrical engineering, automation, procurement, assembly, and commissioning occur concurrently. The risk assessment evolves alongside the design iteration, and risk reduction measures must be executed by various disciplines.

Furthermore, standardized safety solutions should ideally be modularized and reused.

Key software requirements:

Multi-user collaboration, task assignment and verification workflows, functional safety module reuse, and automated generation of inspection protocols for FAT and SAT.

For large-scale turnkey systems, structuring project architectures and managing assemblies of machinery is equally vital.

Noex provides support for modular project architectures, system hierarchies, machinery trees, Safety Requirements Specifications (SRS), and measure validation.

Through a personalized dashboard, users access targeted, filtered action lists tracking the safety measures assigned to them.

3. Series manufacturers - standardizing recurring conformity workflows

Original equipment manufacturers (OEMs) producing standardized machinery face different challenges.

Risk assessments, essential health and safety requirements (EHSRs), and technical files are largely standardized, but engineering changes must be systematically reconciled with the exact variant being built.

Even minor design modifications can invalidate previous risk assessments or required performance levels.

Key software requirements:

Standardized project templates, modular technical data reuse, consistent compliance procedures, and systematic documentation of factory conformity checks.

In Noex, baseline projects and safety functions can serve as approved templates for new variants, significantly cutting down the overhead of building technical files from scratch.

However, template reuse does not mean an assessment is automatically valid for a new machine variant; technical differences and intended use boundaries must still be rigorously assessed.

4. End-users and process plants - managing machinery lifecycle and retrofits

For operating plants, machinery safety extends far beyond initial machine delivery and commissioning.

Existing production lines undergo continuous modification. Standalone machines are integrated into complex assemblies, guarding is altered, and safety-related control systems (SRCS) are upgraded.

Over time, a plant may undergo dozens of minor adjustments and major engineering changes.

This leads to a critical compliance issue:

Which technical file accurately reflects the actual 'as-built' state of the machinery today?

This requires far more than a disconnected archive of static CE files.

A dynamic machinery register, complete revision history, and structured assessment of modifications become essential.

Noex features an integrated machinery register for standalone machines, assemblies of machinery, and complete plant installations. Machines can be linked across multiple lifecycle projects, and the platform includes a dedicated module to assess whether a retrofit constitutes a substantial modification under Machinery Regulation (EU) 2023/1230.

For plant operators managing operational health and safety, custom modules support work equipment directives (such as the Use of Work Equipment Directive) and national operational regulations.

5. Machinery safety consultants - multi-client scalability and compliance rigor

Safety consultants handle a portfolio of diverse clients, complex machine types, and varying customer documentation standards.

This requires high procedural rigor, modular templates, and complete audit trails.

Simultaneously, the client’s internal design engineers, project managers, and technical specialists must be integrated into the risk assessment process.

Key software requirements:

Reusable assessment templates, configurable requirement libraries, documented design rationale, and frictionless client collaboration features.

Noex was developed in close collaboration with machinery safety specialists and consultants, prioritizing the technical requirements of the expert alongside the usability needs of the client.

The software provides the technical depth required by safety specialists while remaining accessible for client stakeholders participating in task reviews and project handovers.

Key features to evaluate before selecting a CE software solution

Regardless of your operational profile, several fundamental criteria should be audited prior to implementing a CE marking platform.

It is also advisable to examine the software's update frequency and the implementation resources required to achieve full adoption.

A comprehensive feature matrix is useful, but piloting an actual machinery project through the software remains the most reliable way to validate suitability.

Why we built Noex

Noex was built in collaboration with certified machinery safety experts, consultants, machine builders, and industrial operators.

Our objective was clear: combine the rigorous engineering standards demanded by CE compliance with an intuitive interface accessible to the wider engineering team.

For this reason, we focused heavily on user experience, content customizability, and consolidating fragmented tasks into a unified compliance workflow.

The platform streamlines project creation, hazard identification, standard checks, mitigation assignment, manual compilation, and technical file centralization.

For advanced applications, Noex incorporates PLr and SIL determination, Safety Requirements Specifications (SRS) per EN ISO 13849-1, validation protocols, and calculation modules per EN ISO 13855:2024 and EN ISO 13857:2019.

However, the software does not replace competent engineering judgment. It provides the structure, workflow integrity, and technical documentation required to validate compliance.

Noex Pricing

We believe in transparent, straightforward pricing models.

Prices are billed annually and exclude VAT.

As an agile, expanding software provider, we are always open to customized plans tailored to larger user deployments, multi-site architectures, or specific enterprise licensing needs.

View Noex plans and licensing.

Alternative CE Marking Solutions

Several established software packages exist for CE marking, risk assessment, and machinery safety engineering.

Prominent market solutions include Safexpert, CEDOC, ZERT, CEM4, and WEKA Manager CE.

Each tool carries distinct engineering methodologies and capabilities. Some prioritize deep standards database integration and legacy ERP interfaces. Others focus primarily on technical authoring, hazard analysis, or wizard-driven conformity paths.

We provide objective comparative analyses in the Noex Academy for teams looking to evaluate alternatives:

• Safexpert Alternatives – Noex vs. Safexpert

• CEDOC Alternatives – Noex vs. CEDOC

These comparisons are based on publicly available vendor documentation and highlight specific use cases where competing systems may represent a more suitable choice.

Frequently Asked Questions: Machinery CE Software

Is dedicated software legally required for CE marking?

No. There is no legal mandate under European directives or regulations requiring the use of specific software for machinery CE marking. The manufacturer remains solely liable for satisfying all applicable Essential Health and Safety Requirements (EHSRs) and compiling the technical construction file.

Can an EN ISO 12100 risk assessment be performed in Excel?

Yes. Spreadsheets can record hazard analyses and risk reduction steps. However, purpose-built platforms drastically minimize version-control errors, broken cross-references, and lost audit trails when managing complex machinery and multiple stakeholders.

What is the best software for machinery CE marking?

The optimal solution depends on your engineering structure. A boutique machine builder may favor streamlined workflows and minimal setup overhead, whereas a multinational system integrator requires multi-user permissions, standard management, and machinery hierarchy tracking.

How should engineering teams prepare for the new Machinery Regulation?

Machinery Regulation (EU) 2023/1230 becomes fully applicable on January 20, 2027. Manufacturers and integrators must update their conformity assessment procedures, EHSR compliance checklists, and technical documentation templates to reflect the updated regulatory mandates prior to the enforcement date.

How challenging is it to migrate to a new CE platform?

Migration effort depends on your legacy file structures and how easily past technical data can be exported or modularized. We recommend piloting a self-contained machinery project to evaluate workflow fit and data portability prior to full organizational rollout.

Focus on your engineering workflow

No single software platform fits every manufacturing workflow perfectly.

However, if your technical teams spend valuable engineering hours chasing document revisions, re-formatting spreadsheet templates, or synchronizing task lists across disconnected tools, your compliance management processes should be re-evaluated.

Pilot Noex on an upcoming machine project to evaluate how our workflow aligns with your engineering requirements.

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This guide is published by Noex Technologies AB, developer of Noex. Product specifications and pricing details reflect conditions at the time of publication. Administrative time figures are illustrative model scenarios and do not represent statutory or formal empirical averages.