Advancements in grid converter technology have been pivotal in the successful integration of renewable energy. The high penetration of renewable energy systems is calling for new more stringent grid requirements. As a consequence, the grid converters should be able to exhibit advanced functions like: dynamic control of active and reactive current injection during faults, and grid services support.This book explains the topologies, modulation and control of grid converters for both photovoltaic and wind power applications. In addition to power electronics, coverage focuses on the specific applications in photovoltaic and wind power systems where grid condition is an essential factor.With a review of the most recent grid requirements for photovoltaic and wind power systems, the relevant issues are discussed: Modern grid inverter topologies for photovoltaic and wind turbines Islanding detection methods for photovoltaic systems Synchronization techniques based on second order generalized integrators (SOGI) Advanced synchronization techniques with robust operation under grid unbalance condition Resonant controller techniques for current control and harmonic compensation Grid filter design and active damping techniques Power control under grid fault conditions, considering both positive and negative sequencesThroughout, the authors include practical examples, exercises, and simulation models and an accompanying website sets out further modeling techniques using MATLAB® and Simulink environments and physical security information management (PSIM) software.Grid Converters for Photovoltaic and Wind Power Systems is intended as a course book for graduate students with a background in electrical engineering and for professionals in the evolving renewable energy industry. For professors interested in adopting the course, a set of slides is available for download from the website.Companion Websitewww.wiley.com/go/grid_converters

HIGH-POWER CONVERTERS AND AC DRIVES(Bin Wu)学习变换器和电机传动的好书

频率解析Matlab代码该存储库包含用作本文基准系统的SIMULINK模型和MATLAB代码： A. Tayyebi，D。Groß，A。Anta，F。Kupzog和F.Dörfler，“同步机和形成网格的电源转换器的频率稳定性”（在IEEE Xplore上提供） droop.m，VSM.m，matching.m和dVOC.m分别为IEEE 9总线测试系统生成基础数据，包括下垂，VSM，匹配和dVOC控制的网格形成转换器。 Library.slx包含用于同步机和网格形成转换器的各种实现的自定义模型。 IEEE_9_Bus_Test_System.slx包含标准IEEE 9总线测试系统实现，而没有任何生成单元。 分发该源代码是希望它会有用，但没有任何保证。 我们确实要求采用该测试平台的出版物通过引用上述论文明确承认这一事实： @ARTICLE {TGAKD20，作者= {A。 {Tayyebi}和D. {Groß}和A. {Anta}和F. {Kupzog}和F. {Dörfler}}，journal = IEEE_J_ESTPE，卷= {8}，数字= {2}，页数= {1004- 101

数据转换方面的资料CMOS Data Converters for Communication

office兼容包FileFormatConvertersoffice2007-2003

ADC参考文档

这个是一个simulink模型，采用六步方波控制BLDC，已经搭建好六步控制逻辑，将传统的电源替换成了一个BUCK电源，简单的调节PID参数即可跟踪给定转速。

关于Delta+Sigma ADC原理，过采样的参考书.可以参考

matlab开发代码管理访问 了解更多信息。 WEC-Sim 存储库 文档：WEC-Sim 文档。 请参阅编译 . 示例：WEC-Sim 模型示例 来源：WEC-Sim 源代码 测试：WEC-Sim 测试 教程： 有关 WEC-Sim 代码的更多应用，请参阅存储库。 源代码管理 WEC-Sim 的稳定版本在 WEC-Sim 上维护，WEC-Sim 的稳定版本在 GitHub 上标记。 WEC-Sim 开发是在 dev 分支上使用 . 新的 WEC-Sim 功能是在 WEC-Sim 存储库的分支上开发的，并提交以将开发分支中的新功能合并到主 WEC-Sim 存储库中。 为新的 WEC-Sim 功能提交拉取请求时，拉取请求应提交到 . 此工作流程的唯一例外是错误修复，错误修复的拉取请求应提交给 .

DC-DC关于地回路的研究文章，纯干货，欢迎研究讨论