Inovação e gerenciamento de programa sincronizado e colaborativo para novos programas
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Inovação e gerenciamento de programa sincronizado e colaborativo para novos programas
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Integration of mechanical, software and electronic systems technologies for vehicle systems
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A inovação de produtos através do gerenciamento eficaz de formulações, embalagens e processos de manufatura integrados
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O desenvolvimento de novos produtos aproveita dados para melhorar a qualidade e a lucratividade e reduz custos e tempo de introdução no mercado
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Supply chain collaboration in design, construction, maintenance and retirement of mission-critical assets
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Construction, mining, and agricultural heavy equipment manufacturers striving for superior performance
Explore IndustryMáquinas Industriais e Equipamento Pesado
Integration of manufacturing process planning with design and engineering for today’s machine complexity
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Visibility, compliance and accountability for insurance and financial industries
Explore IndustryMarinha
Inovação na construção naval para reduzir de maneira sustentável o custo do desenvolvimento de frotas futuras
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Siemens PLM Software, a leader in media and telecommunications software, delivers digital solutions for cutting-edge technology supporting complex products in a rapidly changing market.
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“Inovação de produtos personalizados" através da digitalização para atender a demandas do mercado e reduzir custos
Explore o SetorSmall & Medium Business
Remove barriers and grow while maintaining your bottom line. We’re democratizing the most robust digital twins for your small and medium businesses.
Explore IndustryComponent-based transfer path analysis
Component-based transfer path analysis
Leverage measured modular component models into full-vehicle noise predictions
Strict environmental regulations to reduce emissions are a challenge today. New technologies, such as electrification, stop & start, increased gear ratios, and weight reduction are helping reach fuel efficiency and emissions goals. Still, they may negatively impact other vehicle attributes, such as vehicle performance and noise and vibration. In this on-demand webinar, discover how component-based Transfer Path Analysis (TPA) predicts vehicle NVH performance without the need for assembled physical prototypes.
You will learn how to:
Lightweight strategies, hybridization, and electrification significantly increase vehicle complexity and the number of variants. Engineers investigating new powertrain concepts with complex load cases must consider the increased importance of road noise and secondary noise sources such as steering systems, tires, or HVAC. Component-based TPA is a technology that addresses these challenges. It allows to model a noise source component independently from the receiver structure and to predict its behavior when coupled to different receivers. It speeds up vehicle development and considerably increases design flexibility.
Component-based TPA extends the capabilities of a classical TPA approach. A component-based approach characterizes each source and component independently to generate virtual assemblies and re-use the identified loads to assess every variant and perform modification predictions. It first identifies key components likely to contribute to noise and vibration issues, then isolates those components for test bench data collection and independent load characterization. Engineers can characterize active components independently by invariant loads, such as blocked forces, and virtually store and recombine them to discover potential pitfalls of various subsystems, such as tires, electric drive units, or steering systems.
Component-based TPA technology is rapidly gaining ground in the automotive and other industries. It is one of the cornerstone technologies to predict vehicle NVH performance without assembling physical prototypes. Component-based TPA enables engineers to characterize sources and components invariantly while being able to later still couple those components into virtual assemblies. Engineers can run simulations to predict overall vehicle NVH performance, enabling teams to explore possibilities and assembly alternatives while saving high costs in development time.
Watch the on-demand webinar and take component-based TPA to the next level by implementing it as a methodology to benefit the whole organization.
Bart Verrecas
Business Development Team Manager, Siemens Digital Industries Software
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Leverage measured modular component models into full-vehicle noise predictions
Strict environmental regulations to reduce emissions are a challenge today. New technologies, such as electrification, stop & start, increased gear ratios, and weight reduction are helping reach fuel efficiency and emissions goals. Still, they may negatively impact other vehicle attributes, such as vehicle performance and noise and vibration. In this on-demand webinar, discover how component-based Transfer Path Analysis (TPA) predicts vehicle NVH performance without the need for assembled physical prototypes.
You will learn how to:
Lightweight strategies, hybridization, and electrification significantly increase vehicle complexity and the number of variants. Engineers investigating new powertrain concepts with complex load cases must consider the increased importance of road noise and secondary noise sources such as steering systems, tires, or HVAC. Component-based TPA is a technology that addresses these challenges. It allows to model a noise source component independently from the receiver structure and to predict its behavior when coupled to different receivers. It speeds up vehicle development and considerably increases design flexibility.
Component-based TPA extends the capabilities of a classical TPA approach. A component-based approach characterizes each source and component independently to generate virtual assemblies and re-use the identified loads to assess every variant and perform modification predictions. It first identifies key components likely to contribute to noise and vibration issues, then isolates those components for test bench data collection and independent load characterization. Engineers can characterize active components independently by invariant loads, such as blocked forces, and virtually store and recombine them to discover potential pitfalls of various subsystems, such as tires, electric drive units, or steering systems.
Component-based TPA technology is rapidly gaining ground in the automotive and other industries. It is one of the cornerstone technologies to predict vehicle NVH performance without assembling physical prototypes. Component-based TPA enables engineers to characterize sources and components invariantly while being able to later still couple those components into virtual assemblies. Engineers can run simulations to predict overall vehicle NVH performance, enabling teams to explore possibilities and assembly alternatives while saving high costs in development time.
Watch the on-demand webinar and take component-based TPA to the next level by implementing it as a methodology to benefit the whole organization.
Bart Verrecas
Business Development Team Manager, Siemens Digital Industries Software