Power Flow Characterization of a Bidirectional Galvanically Isolated High-Power DC/DC Converter Over a Wide Operating Range

By Yanhui Xie, Jing Sun, James S. Freudenberg. IEEE transactions on power electronics, 2010

247 citations recorded by the source corpus.

Subfields: Automotive Engineering, Control and Systems Engineering, Electrical and Electronic Engineering

View Paper: https://www.semanticscholar.org/paper/2fb5144ed963718b737c584f6d70cfccfe96016f

How researchers see this paper

The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.

In Automotive Engineering

1. Zhan Wang
2. Yun Wei Li
3. Nie Hou
4. Nadia Mei Lin Tan
5. T. Abe
6. J. W. Kolar
7. Florian Krismer
8. R. T. Naayagi

In Control and Systems Engineering

1. R. T. Naayagi
2. Yun Wei Li
3. Hirofumi Akagi
4. Andrew J. Forsyth
5. Nie Hou
6. Roger Shuttleworth
7. Leszek S. Czarnecki
8. R. Inzunza

In Electrical and Electronic Engineering

1. Yun Wei Li
2. Nie Hou
3. Zhan Wang
4. Wenhua Liu
5. Qiang Song
6. Biao Zhao
7. J. W. Kolar
8. Nadia Mei Lin Tan

Citations in the corpus

• Overview and Comparison of Modulation and Control Strategies for a Nonresonant Single-Phase Dual-Active-Bridge DC–DC Converter (2020, background): “Although, the NSDAB dc–dc converter can achieve a good efficiency under the SPS modulation when both side voltages are matched, the SPS modulation method will always result in high-circulating power and limited zero-voltageswitching (ZVS) range when both side voltages are mismatched, which negativel”
• Dead-Time Effect of the High-Frequency Isolated Bidirectional Full-Bridge DC–DC Converter: Comprehensive Theoretical Analysis and Experimental Verification (2014, background): “It needs to point out that the definition of the phase drift phenomenon is different with that in [25], but same with the internal power transfer phenomenon.”
• High-Power Bidirectional DC–DC Converter for Aerospace Applications (2012, methodology): “Recently, a model was proposed [21] for the DAB converter that has been validated under certain operating conditions for low load, low efficiency, and low-power operation, but the device average and rms current models and transformer/inductor RMS current models which could serve useful for hardware ”
• Closed Form Solution for Minimum Conduction Loss Modulation of DAB Converters (2012, background): “2) Characteristics of the DAB in Steady State Operation: calculation of the impact of dead time intervals and semiconductor losses on the power transferred [8]; converter operation at low power levels [9]; accurate prediction of the power losses of the DAB [4].”
• Design and Performance of a Bidirectional Isolated DC–DC Converter for a Battery Energy Storage System (2012, background): “[18] have proposed a more accurate power transfer model for the dc–dc converter, which is divided into eight different regions of operation.”
• A Soft Switching Three-phase Current-fed Bidirectional DC-DC Converter With High Efficiency Over a Wide Input Voltage Range (2012, background): “Furthermore, the mismatch between the primary side and secondary side DC-link voltages will result in large RMS and peak current in both transformer and switches even in no load conditions [2], thus high efficiency is hard to achieve over wide input or output voltage ranges [11].”
• Generalized Average Modeling of Dual Active Bridge DC–DC Converter (2012, unknown): “Recent advancements in dc– dc DAB converters include design optimization [7], a detailed model to evaluate power loss [5], PWM control schemes [8], advanced modulation schemes [9], advanced switching strategies to reduce loss [10]–[12], and detailed models to address some parasitic nonlinear effects”