Unlock new levels of efficiency

• Save time and costs by empowering users of all expertise levels to achieve accelerated yet accurate results through discipline-specific applications tailored for diverse testing campaigns​
• Reduce product development time by maximizing efficiency and data reliability through automated testing workflows
• Accelerate time-to-market by enhancing team collaboration through structured and centralized data governance and reporting

Learn how Simcenter Testlab reduced measurement time by 70% enabling 3x faster product releases at Denso.

Lead with innovation

• Leverage AI assistance and advanced engineering intelligence to design superior products that consistently outperform the competition
• Integrate test, simulation, and digital twin technology to validate and optimize product designs, enhance performance, reduce costs, and mitigate risks
• Gain a powerful market advantage with predictive analytics, driven by AI enhanced meticulously labeled, comprehensive, and AI-ready data

Learn how Simcenter Testlab reduced development time by upto 50%, with innovative test methodologies, at Sanden.

Transform through shift-left component-based testing

• Gain time-to-market advantage by combining virtual and physical components to achieve next-level reliability in validating and optimizing designs at early-stage, preventing costly late-stage redesigns and integration issues.​
• Ensure optimal system performance by validating component designs early against diverse future system variants, enabling efficient multi-attribute balancing and design adaptation without waiting for costly full-system physical prototypes

Learn how Simcenter Testlab enabled expanded NVH prediction applications fivefold while eliminating physical prototypes at Renault.

Stay competitive

• Stay ahead in a rapidly evolving industry with guaranteed access to cutting-edge testing technologies (such as AI-assisted capabilities) and emerging trends (such as AI-driven performance engineering), while seamlessly integrating into broader engineering workflows to transform testing complexity into a powerful competitive advantage
• Minimize risks and costs with smooth future transitions and guaranteed long-term legacy project and data compatibility
• Count on a toolkit that is designed to scale seamlessly with your growth, accommodating teams of any size and evolving alongside your testing needs
• Optimize your ROI with a solution built for openness, seamlessly integrating with your existing tools and future environments to ensure compatibility and flexibility

• Full vehicle NVH development and validation: Measure, analyze and optimize interior and exterior NVH performance across the complete vehicle lifecycle.
• System NVH prediction and virtual prototyping: Predict vehicle‑level NVH early by virtually assembling systems using test and simulation data.
• Transfer Path Analysis and engineering: Identify, quantify and predict structure‑borne and airborne noise paths using classical and component‑based TPA.
• Pass‑by Noise engineering and homologation: Engineer, troubleshoot and certify pass‑by noise performance with indoor and outdoor PBN solutions.
• Electrified powertrain and EV NVH: Address electric motor, e‑drive, gearbox and battery NVH challenges unique to electrified vehicles.
• Powertrain and rotating machinery dynamics: Analyze engines, transmissions and rotating systems using torsional, order‑based and angle‑domain methods.
• Durability and road load data engineering: Acquire, process and synthesize real‑world loads to accelerate durability validation and testing.

• Operator comfort and cab NVH: Measure and optimize noise and vibration at the operator position to improve comfort, reduce fatigue, and increase machine acceptance.
• Full‑machine NVH testing and troubleshooting: Identify dominant noise and vibration sources across the complete machine to resolve complex NVH issues efficiently.
• Powertrain and engine NVH testing: Analyze engines, drivetrains and rotating systems under real operating conditions to improve reliability and acoustic performance.
• Sound power and exterior noise certification: Perform standardized sound power and cabin noise testing to comply with global construction and agricultural noise regulations.
• Durability and road load data engineering: Acquire and process real‑world load data to validate durability, support accelerated testing and extend machine lifetime.
• Multi‑physics field testing in harsh environments: Execute combined NVH, durability, vibration and strain measurements using rugged, distributed systems in extreme conditions.
• Early‑stage NVH optimization and transfer path analysis: Understand noise sources and transfer paths early to avoid costly late‑stage design changes and rework.

• Aircraft ground vibration testing (GVT) and certification: Perform full‑aircraft ground vibration testing to support flight certification, validate structural dynamics, and maintain in‑house GVT expertise with reduced test time and cost.
• Flutter testing and aeroelastic stability: Measure, analyze and verify aircraft flutter behavior across the flight envelope using advanced modal and damping identification techniques integrated with telemetry systems.
• Structural dynamics and modal testing: Validate structural behavior of aircraft, landing gear, and subsystems through experimental and operational modal analysis to support design verification and model correlation.
• Aircraft cabin noise and acoustic comfort: Identify and optimize interior noise sources using sound source localization and acoustic arrays to improve passenger comfort and cabin sound quality.
• Aeroacoustic testing and wind tunnel measurements: Localize and quantify aeroacoustic noise sources on scaled aircraft models in wind tunnels to support quieter aircraft designs early in development.
• Integrated systems and iron bird testing: Verify the performance of integrated mechanical, electrical and hydraulic systems using multi‑physics data acquisition on full aircraft integration rigs.
• Spacecraft structural and environmental testing: Acquire vibration, shock and acoustic data on satellites and subsystems during qualification testing to ensure launch survivability.
• Direct field acoustic testing for spacecraft: Perform on‑site acoustic qualification testing using direct field excitation to reduce cost, risk and dependency on reverberant chambers.
• Vibration control & MIMO testing of space systems: Execute single‑ and multi‑axis vibration control tests with high channel counts to improve efficiency and confidence in satellite qualification.

• Rail vehicle NVH development and validation: Measure, analyze and optimize interior and exterior noise and vibration performance for passenger comfort and environmental compliance.
• Transfer path analysis and engineering: Identify, quantify and rank structure‑borne and airborne noise paths (e.g., bogie to coach, wheel‑rail interaction) to diagnose and resolve NVH issues efficiently.
• Pass‑by noise engineering and certification: Analyze and optimize train pass‑by noise, localize dominant sources (rolling, aerodynamic, traction), and support compliance with environmental regulations.
• Acoustic source localization and sound quality engineering: Use advanced acoustic cameras and sound power methods to localize, quantify and improve interior and exterior noise sources.
• Powertrain and rotating machinery dynamics: Analyze traction motors, gearboxes and auxiliary systems using order tracking, torsional vibration and angle‑domain methods to understand operational NVH behavior.
• Structural dynamics and modal testing: Perform experimental and operational modal analysis on car bodies, bogies and subsystems to understand dynamic behavior and correlate simulation models.
• Durability and load data engineering: Acquire and process real‑world load data, derive test profiles and validate structural durability using accelerated testing and fatigue analysis.
• Ride comfort and vibration assessment: Evaluate passenger and driver comfort using standardized metrics (ISO 2631, EN12299) and dedicated processing workflows.