Novel modeling strategy for a BCI set-up applied in an automotive application: An industrial way to use EM simulation tools to help hardware and ASIC designers to improve their designs for immunity tests
Electronics suppliers of automotive industry use BCI (Bulk Current Injection) measurements to qualify immunity robustness of their equipment whereas electronics components manufacturers use DPI (Direct Power Injection) to qualify immunity of their component. Due to harness resonances, levels obtained during a BCI test exceed standard DPI requirements imposed by automotive suppliers onto components' manufacturers. We propose to use BCI set-up modeling to calculate the equivalent DPI level obtained at the component level during equipment testing and to compare results with DPI measurements realized at IC level.
Immunity simulation method for automotive power module using electromagnetic analysis
This paper provides an immunity simulation method for product-level automotive power modules that contain printed circuit boards (PCBs). A stress-strength model is adopted as an estimation method for the susceptibility. The stress is the value of the RF power injected into a victim circuit, and the strength is the acceptance stress criteria of the victim circuit. By using electromagnetic simulation, the stress of the victim circuit is calculated. The strength of the victim circuit is determined by the DPI test result. By comparing the stress and strength of the victim circuit, the susceptibility thresholds can be predicted. The results show good agreement with the experimental results in the DPI test for a power module containing a complex product-level PCB and exhibit a good correlation with the BCI test for the power module.
Degradable polymers : principles and applications
1. Why Biodegradable Polymers? G. Scott. 2. An Overview of Biodegradable Polymers and Biodegradation of Polymers S.H. Huang. 3. Degradation and Stabilization of Carbon-Chain Polymers G. Scott. 4. Techniques and Methods of Polymer Degradation S. Karlsson, A.-C. Albertsson. 5. Biodegradation of Aliphatic Polyesters Suming Li, M. Vert. 6. Starch-Polymer Composites C. Bastioli. 7. Polymers from Renewable Sources E. Chiellini, et al. 8. Sustainable Poly(Hydroxyalkanoate) (PHA) Production G. Braunegg. 9. Polyhydroxyalkanoates: Properties and Modification for High Volume Application I. Chodak. 10. Biodegradable Polymers in Medicine E Piskin. 11. Environmentally Biodegradable Water-Soluble Polymers G. Swift. 12. Plastics and the Environment J. Guillet. 13. Degradable Hydrocarbon Polymers in Waste and Litter Control G. Scott, D.M. Wiles. Subject Index.