This checklist gives engineers and compliance managers a practical reference for planning regulatory testing before formal certification begins. Use it to identify test requirements by device type, spot documentation gaps early, and reduce costly delays at each phase of development.
In this article:
- Which test categories apply to your device type, and where teams most often fail
- The four-phase testing framework, from design through post-certification
- What documentation each major market actually requires
- The most preventable failure points MiCOM Labs sees across certification projects
How MiCOM Labs Supports Your Certification
MiCOM Labs built this framework from direct certification experience. Each checklist item maps to a specific regulatory requirement or a documented failure pattern across the wireless, medical, and industrial device categories.
MiCOM Labs holds direct certification authority in five major markets and coordinates regulatory submissions across more than 40 regulatory schemes worldwide. The table below shows which service tier applies to your target market.
| Service Tier | Markets Covered | Timeline | MiCOM Labs Role |
| Direct Certification | US, Canada, EU, UK, Japan | Fastest (days to weeks) | Full certification authority |
| Testing + Report Submission | 9 APEC economies + Mexico (10 total) | Moderate (weeks) | Performs testing and submits reports to local authorities |
| Partnership Coordination | All other countries | Extended (weeks to months) | Coordinates certification through local in-country partners |
Pre-Compliance Checklist by Product Category
Select the category that matches your device type. Each table maps test categories to key standards, documented failure points, and prevention strategies.
IoT Devices & Connected Products
| Test Category | Key Requirements | Common Failure Points | Prevention Strategy |
| RF Performance | FCC Part 15, ISED RSS, EU RED Article 3.2 | Spurious emissions, power spectral density issues, band-edge violations | Early RF characterization and spectrum analyzer validation |
| EMC/EMI | Radiated/conducted emissions and immunity testing | Switching power supply noise, cable coupling effects | EMC-aware PCB design and proper shielding techniques |
| Electrical Compliance | UL, IEC 62368-1, EN 62368-1 | Insufficient clearance/creepage, excessive touch current | Compliance-by-design with early insulation coordination |
| Cybersecurity | EU RED Article 3.3, UKCA requirements | Weak authentication, unencrypted communications | MiCybercert® automated vulnerability assessment and testing |
Wireless Modules & Radio Equipment
| Test Category | Key Requirements | Common Failure Points | Prevention Strategy |
| RF Performance | Modular approval pathways, host integration requirements, licensed and unlicensed operation | Antenna mismatch, spurious emissions, band-edge violations | Comprehensive antenna testing and clear integration guidelines |
| SAR/MPE | FCC OET 65, IEC 62209 series | Excessive RF exposure levels exceeding limits | Early RF exposure modeling and optimized antenna placement |
| Antenna Patterns | 3D radiation characterization | Pattern distortion, inconsistent or reduced gain performance | Anechoic chamber validation and near-field scanning techniques |
Medical Devices & Healthcare IoT
| Test Category | Key Requirements | Common Failure Points | Prevention Strategy |
| EMC | IEC 60601-1-2, FDA guidance | Interference with life-support or critical medical equipment | Specialized medical EMC testing and structured risk management |
| RF Performance | FCC Part 18, medical device exemptions | Unwanted emissions affecting nearby devices | Medical-specific RF validation protocols |
| Electrical Compliance | IEC 60601-1 and related collateral standards | Incorrect applied part classification, excessive touch current | Medical compliance expertise with applied-part analysis and validation |
Industrial Equipment & Automation
| Test Category | Key Requirements | Common Failure Points | Prevention Strategy |
| EMC | EN 61000-6-2, EN 61000-6-4, CISPR 11 | Immunity failures in harsh industrial environments | Industrial-grade EMC testing and surge protection design |
| Surge Immunity | IEC 61000-4-5 (Surge), IEC 61000-4-4 (EFT) | Component damage and unexpected system resets | Robust surge protection design and transient analysis |
| Environmental | IEC 60068 series, IP rating validation | Temperature cycling stress and humidity-related degradation | Accelerated environmental testing protocols |
Testing Phase Checklist
Compliance work spans four distinct phases. The table below maps each phase to its critical activities, required documentation, and the specific MiTest® automation features that reduce time and manual effort at each stage.
| Phase | Critical Activities | Documentation Required | MiTest® Automation Benefits |
| Pre-Compliance (Design) | Design review, component selection, early EMC assessment | Technical specifications, block diagrams, antenna specifications | Automated test strategy generation and requirement identification |
| Prototype Validation | Initial RF testing, EMC screening, preliminary IEC assessments | Test plans, prototype documentation, risk assessments | Real-time test execution and automated data collection |
| Formal Testing | Full compliance testing to target standards and certification submission | Complete technical files, test reports, Declaration of Conformity preparation | Reduced test cycle time and automated report generation |
| Post-Certification | Certificate maintenance, regulatory change monitoring, market surveillance | Updated certificates and change control documentation | MiPassport® certificate tracking and automated compliance alerts |
Documentation Requirements by Region
Each market has distinct documentation requirements. Missing or incorrect files are one of the most common causes of certification delays. Review the applicable region’s list before submission.
North America (FCC/ISED)
- Technical specifications and operational description
- Block diagrams and schematics (confidential sections allowed)
- Antenna specifications and radiation pattern data
- RF exposure evaluation (SAR/MPE calculations)
- Test reports from accredited laboratories
- Equipment authorization application (FCC Form 731)
- Agent authorization letter (for non-U.S. applicants)
Europe (CE/RED/UKCA)
- Technical Construction File (TCF)
- EU Declaration of Conformity (DoC)
- Essential requirements compliance demonstration
- Risk assessment documentation
- Post-market surveillance procedures
- Authorized representative designation (for non-EU manufacturers)
- UKCA-specific documentation for UK market access
Asia-Pacific
- Japan MIC: Technical conformity certificates, Japanese agent appointment
- South Korea: KC certification documentation, Korean testing requirements
- Australia: EME report, ACMA compliance marking requirements
Top Testing Failure Points
These three failure categories account for the most common delays and retest cycles MiCOM Labs sees across certification projects. The table below maps each failure to its root causes and the prevention approach MiCOM Labs applies.
| Failure Category | Common Issues | Prevention Approach |
| RF Performance | Spurious emissions exceeding regulatory limits; power spectral density violations; antenna efficiency below specifications | Early-stage antenna characterization with 3D pattern analysis; pre-compliance spectrum screening via MiTest®; design consultation before PCB finalization |
| EMC/EMI | Conducted emissions from switching power supplies; radiated emissions from high-speed digital circuits; immunity failures under burst and surge conditions | EMC-aware design guidelines during prototype phase; pre-compliance scanning with automated limit comparison; component-level immunity validation |
| Documentation | Incomplete technical files; missing regulatory agency authorizations; incorrect test report specifications | MiTest® automated documentation generation; regulatory requirement cross-referencing; pre-submission file validation |
How MiTest® Drives Your Compliance Workflow
MiTest® automates test planning, documentation, and global requirement synchronization in a single ISO 17025-compliant platform. The table below breaks down each core feature and its direct impact on your certification timeline.
| Feature | What It Does | Benefit |
| Automated Test Strategy Generation | Complete the device questionnaire and receive a comprehensive test plan | Eliminates guesswork in compliance planning |
| Real-Time Progress Monitoring | Track testing through secure dashboards with live data feeds | Eliminates coordination delays |
| Intelligent Documentation Management | Automatically generates test reports, technical files, and regulatory submissions | Ensures built-in quality checks and standardized formatting |
| Global Requirement Synchronization | Automatically updates test requirements as regulations change | Keeps compliance strategies current across all target markets |
Engage MiCOM Labs Before You Build Your First Prototype
MiCOM Labs engineers review your design before the prototype is completed. They identify compliance risks when a redesign costs hundreds rather than hundreds of thousands.
Here is what that engagement includes:
- Design review: Engineers flag potential compliance issues before PCB finalization
- Market entry sequencing: MiCOM Labs develops submission strategies that enable simultaneous multi-region certification
- Standards interpretation: MiCOM Labs engineers participate in standards development and maintain direct relationships with global certification bodies