Design verification and design validation are two distinct activities in the product development process. Design verification answers the question: did we build the design right? It confirms that the design meets its specified requirements — that a component has the structural strength the design specification requires, that a software function behaves as the software requirements specification defines. Design validation answers the question: did we build the right design? It confirms that the product meets the needs of the intended user or application — that the product performs correctly in real operating conditions, not just against paper specifications. In automotive, verification is performed against internal design specifications; validation is performed against customer usage scenarios and regulatory requirements. EMUG’s VERIFY Framework structures both verification and validation activities into a single integrated program with traceability from customer need through specification through test evidence.
The EMUG VERIFY Framework is EMUG’s six-phase quality, testing, and validation delivery methodology, standing for: Validate requirements, Establish evidence strategy, Realize testing program, Investigate findings, Finalize compliance, and Yield documentation. The framework structures validation programs from requirements completeness review through evidence strategy definition, test execution, findings resolution, compliance package assembly, and final documentation delivery. Its primary design principle is requirements-to-evidence traceability: every requirement is linked to a specific evidence item (test report, analysis report, inspection record) and every evidence item is linked back to the requirement it covers — enabling complete, auditable demonstration of requirements coverage at any point in the program.
EMUG’s virtual testing approach uses validated computational models — models whose accuracy has been confirmed against physical test data from representative samples — to perform structural, thermal, NVH, and fatigue analysis that replaces or supplements physical testing for requirements addressable by simulation. The key enabler is model validation: simulation models are only used as primary validation evidence when a model correlation study confirms that simulation results match physical test results within an agreed accuracy threshold (typically within 10 percent for linear structural analysis). For programs with validated models and established correlation data, 25 to 40 percent of physical test cases can be replaced by simulation analysis — reducing prototype fabrication cycles, test facility booking lead times, and program calendar time.
EMUG supports PPAP (Production Part Approval Process) and PSW (Part Submission Warrant) preparation for automotive Tier 1 and Tier 2 suppliers through the complete 18-element PPAP package: design records confirmation, engineering change documents, customer engineering approval, DFMEA review, control plan, measurement system analysis (MSA), dimensional results, records of material and performance tests, initial process study (Cpk analysis), qualified laboratory documentation, appearance approval report, sample production parts, master sample, checking aids, customer-specific requirements, and PSW with warrant. EMUG facilitates the DFMEA and control plan development, supports dimensional and performance test coordination, and assembles the complete PPAP package in the format required by each automotive OEM customer.
EMUG supports compliance engineering for the primary automotive regulatory frameworks applied in EMUG client markets. For UN-ECE regulations: ECE R94 (frontal collision), ECE R95 (side collision), ECE R100 (electric vehicle safety), ECE R127 (pedestrian safety), ECE R155 (cybersecurity), and ECE R156 (software updates). For US FMVSS (Federal Motor Vehicle Safety Standards): FMVSS 208 (occupant protection), FMVSS 214 (side impact), and FMVSS 305 (electric vehicle electrolyte spillage). For Euro NCAP: adult occupant protection, child occupant protection, vulnerable road user protection, and safety assist protocol compliance. For China GB standards relevant to automotive safety in the Chinese market.
IATF 16949 audit support from EMUG covers three engagement types. Gap assessment: a structured review of the client’s quality management system against the full IATF 16949:2016 requirement set, identifying non-conformances and opportunities for improvement before a certification audit. Internal audit program management: planning and executing the IATF 16949 required internal audit program, covering all processes and all clauses within the three-year certification cycle, with findings reports and corrective action tracking. Certification preparation: intensive preparation support in the 8 to 12 weeks before a third-party IATF 16949 certification or surveillance audit — addressing known gaps, preparing evidence packages, and coaching process owners on audit response.
Yes — EMUG’s quality and validation practice integrates virtual and physical testing within a single program managed by one team. The validation evidence strategy defines for each requirement whether the primary evidence source is simulation analysis, physical test, or a combination. Where simulation is the primary evidence, EMUG performs virtual testing and produces analysis reports. Where physical testing is required, EMUG supports test planning, laboratory coordination, test data management, and report generation. Where both are used — for model correlation studies, or for requirements requiring both simulation coverage and physical confirmation — EMUG manages the combined virtual and physical test program with consistent evidence standards across both. This integrated approach eliminates the coordination overhead and evidence inconsistency that results from managing virtual and physical validation as separate workstreams with different reporting formats.
EMUG delivers quality, testing, and validation services to automotive OEMs and Tier 1 suppliers (IATF 16949, ECE regulations, Euro NCAP), aerospace and defense organizations (AS9100, EASA, FAA, DO-178C, DO-254), industrial machinery manufacturers (EU Machinery Directive, ISO 13849, ATEX), energy and oil and gas companies (ASME, PED, IEC 61511), and engineering services and EPC firms (ISO 9001). Delivery countries include Germany, France, UK, Netherlands, Sweden, Italy, Spain, Poland, Czech Republic, UAE, Saudi Arabia, Qatar, Kuwait, Bahrain, India, China, Japan, South Korea, Malaysia, Thailand, USA, Canada, Mexico, Brazil, South Africa, Nigeria, and Kenya.
