6533b828fe1ef96bd1288f0a

RESEARCH PRODUCT

High frequency modeling technique for three phase power electronics module

A. PecoraroGiovanni TineGiuseppe MarsalaAntonio CataliottiDario Di CaraAntonella Ragusa

subject

MarketingEngineeringRenewable Energy Sustainability and the Environmentbusiness.industryElectromagnetic compatibilityEnergy Engineering and Power TechnologyPower moduleElectromagnetic interferenceElectromagnetic interferenceStrategy and Management1409 Tourism Leisure and Hospitality ManagementSmart gridEMIHigh frequency modelingPower modulePower electronicsMiniaturizationElectronic engineeringElectromagnetic compatibilityElectronicsbusinessSettore ING-INF/07 - Misure Elettriche E Elettroniche

description

Nowadays, the high integrated power electronics modules (PMs), characterized by high speed, low loss and hard ware miniaturization, represent a new technology that meets the emerging demands of many applications, such us vehicle and home appliance, renewable energy sources in smart grid. The integration process and the high switching speeds increase the PM electromagnetic emissions that can create electromagnetic interference (EMI) with electric/electronic devices near the PMs. For this reason, electromagnetic compatibility (EMC) have to be carefully considered, yet in the design phase, to guarantee the reliability of PM systems. In this paper a method to develop a high frequency (HF) model, useful to study EMI phenomena of a three-phase PM, is presented. The method is based on experimental measurements at the PM external pins and it allows to extract internal inductive and capacitive parasitic coupling with out the knowledge of structural and physics parameters of the device. The PM HF model, developed in the 150kHz-30MHz frequency range, has been implemented in MATLAB® environment. The method has been experimental validated comparing the frequency responses of the PM characteristics with that obtained by the model.

yearjournalcountryeditionlanguage
2015-11-012015 5th International Conference on Electric Utility Deregulation and Restructuring and Power Technologies (DRPT)
https://doi.org/10.1109/drpt.2015.7432490