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所在平台: Udemy |
课程主页: https://www.udemy.com/course/the-beginners-guide-to-digital-design/
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课程名称：初学者的数字设计指南 课程概述： 本课程旨在为学习者提供全面的数字电子学介绍，涵盖从基本的数字系统和逻辑门到高级的顺序电路和有限状态机（FSMs）的各个重要主题。课程内容设计使学习者能够在组合逻辑和顺序逻辑方面建立坚实的基础，从而设计和分析复杂的数字系统。 课程内容包括： - 十进制、二进制和十六进制数字的基础知识； - 二进制加法和有符号数字的处理； - 各种逻辑门（AND、OR、NOT、XOR、NAND、NOR和XNOR）的功能与应用，包括N输入门和奇偶校验门； - 模拟概念，如数字抽象、供电电压、噪声裕度和逻辑电平； - 介绍晶体管及其直流转移特性。 学习者将深入研究组合电路，包括布尔方程、简化技术、积和（SOP）、和积（POS）形式、卡诺图、灰码、二进制编码十进制（BCD），以及实际组件如多路复用器、解码器和三态缓冲器。 顺序电路部分涵盖关键主题，如时钟信号、触发器、双稳态元件、锁存器和触发器，最终深入到有限状态机，包括梅利（Mealy）和摩尔（Moore）机，并通过交通信号控制器和序列检测器等实际示例进行讲解。 此外，课程还探讨了高级主题，如污染和传播延迟、关键路径与短路径分析，以及处理组合电路中的毛刺。 通过本课程的学习，参与者将掌握设计、仿真和优化组合逻辑和顺序逻辑电路的知识和技能，适合电子与计算机工程学生、VLSI初学者以及希望提升数字设计与验证专业知识的专业人士。
The course on Digital Logic Design and Sequential Circuits offers a comprehensive introduction to digital electronics, covering essential topics from fundamental number systems and logic gates to advanced sequential circuits and finite state machines (FSMs). The curriculum is designed to provide a strong foundation in both combinational and sequential logic, enabling learners to design and analyze complex digital systems. It includes topics such as decimal, binary, and hexadecimal numbers, binary addition, and signed numbers. The course delves into the functionality and applications of various logic gates, including AND, OR, NOT, XOR, NAND, NOR, and XNOR, along with N-input gates and parity gates. Analog concepts such as digital abstraction, supply voltage, noise margins, and logic levels are also covered, along with an introduction to transistors and DC transfer characteristics. Learners will explore combinational circuits, including Boolean equations, simplification techniques, Sum-of-Products (SOP), Product-of-Sums (POS) forms, Karnaugh Maps, Gray Code, Binary Coded Decimal (BCD), and practical components like multiplexers, decoders, and tristate buffers. The sequential circuits section covers critical topics such as clock signals, triggering, bistable elements, latches, and flip-flops, leading to finite state machines, including Mealy and Moore machines, with practical examples such as traffic light controllers and sequence detectors. The course also addresses advanced topics, including contamination and propagation delays, critical and short path analysis, and handling glitches in combinational circuits. By the end of this course, participants will gain the knowledge and skills to design, simulate, and optimize both combinational and sequential logic circuits, making it ideal for electronics and computer engineering students, VLSI freshers, and professionals seeking to enhance their expertise in digital design and verification.
