VLSI Design Fundamentals (Digital Integrated Circuit Design Fundamentals) (Southeast University)

   This course is the main course of the microelectronics major, focusing on the design technology of very large-scale integrated circuits. It is suitable for undergraduates and graduate students in electronics and computer-related majors, and is also suitable for engineers who need to review basic professional knowledge after working.

The teaching content of the course is the basic theory and basic methods of VLSI design. Starting from the introduction of the mainstream technology of CMOS integrated circuits, the main technical foundations of VLSI design are introduced: CMOS device basics, combinational logic circuits, sequential logic circuits, and memory design. The main contents are as follows:

Chapter 1: Overview of VLSI design, understand the methods and technologies of today's VLSI system design. Chapter 2: Principles of MOS transistors: Master the basic structure, model and characteristics of MOS devices, and understand the integrated circuit manufacturing process. Chapter 3: Inverters and combinational logic circuits, master the analysis and design methods of CMOS inverters and combinational logic circuits. Chapter 4: Sequential logic circuits and synchronous design technology; Chapter 5: Design and process interface, understand the relationship and interface between design and process. Chapter 6: Cell library design technology, master the design of standard cells and IO, establish the idea of ​​system modular design; understand the basic layout of integrated circuits. Chapter 7: Memory Design. Chapter 8: Low power consumption topic.

This course was selected into the "National Excellent Online Open Courses" and "Jiangsu Province Online Open Courses" and was funded by the "Jiangsu University Brand Major Construction Project Funding Project". We would like to express our gratitude.

This course will have new and updated content this year, including more combinational logic gates, cutting-edge low-power technologies, new storage technologies, etc.

• Chapter 1：Course Introduction (3 minutes and 58 seconds)

• Chapter 2：History of Microelectronics and Moore’s Law (16 minutes and 32 seconds)

• Chapter 3：Supplement From Sand to CPU - How Chips Are Made (10 minutes and 15 seconds)

• Chapter 4：Systems and system integration (12 minutes and 14 seconds)

• Chapter 5：VLSI design methods (20 minutes and 59 seconds)

• Chapter 6：mos transistor structure (14 minutes and 18 seconds)

• Chapter 7：How MOS transistors work (15 minutes and 9 seconds)

• Chapter 8：IV equation of MOS transistor (15 minutes and 23 seconds)

• Chapter 9：Transfer characteristics of MOS tubes and depletion mode MOS tubes, etc. (17 minutes and 12 seconds)

• Chapter 10：CMOS structure and its advantages (8 minutes and 58 seconds)

• Chapter 11：CMOS inverter design (20 minutes and 47 seconds)

• Chapter 12：Dynamic indicators of CMOS inverter (19 minutes and 13 seconds)

• Chapter 13：CMOS logic gate structure-NAND gate and complex gate (11 minutes and 43 seconds)

• Chapter 14：Equivalent inverter design method (16 minutes and 9 seconds)

• Chapter 15：Example - Complex Gate Equivalent Inverter Design (9 minutes and 4 seconds)

• Chapter 16：Equivalent inverter exercise and its correction (10 minutes and 13 seconds)

• Chapter 17：XOR gate and NOR gate circuit (19 minutes and 18 seconds)

• Chapter 18：transmission gate (16 minutes and 40 seconds)

• Chapter 19：tri-state gate (7 minutes and 5 seconds)

• Chapter 20：Examples of sequential logic functions and state machines (9 minutes and 18 seconds)

• Chapter 21：Bistable structure and D flip-flop (14 minutes and 49 seconds)

• Chapter 22：Trigger timing parameters (16 minutes and 42 seconds)

• Chapter 23：Performance optimization of sequential logic (20 minutes and 59 seconds)

• Chapter 24：Power consumption optimization of sequential logic (18 minutes and 17 seconds)

• Chapter 25：Effects of deviation and jitter on circuits (20 minutes and 3 seconds)

• Chapter 26：Process basics (19 minutes and 25 seconds)

• Chapter 27：Question raising and principles for selecting process lines (18 minutes and 16 seconds)

• Chapter 28：Rethinking the conduction conditions of NMOS transistors (1 minutes and 53 seconds)

• Chapter 29：The form and application examples of electrical design rules - SPICE simulation of three-input AND gate (19 minutes and 32 seconds)

• Chapter 30：geometric design rules (8 minutes and 43 seconds)

• Chapter 31：Introduction to transistor regular array design technology (15 minutes and 13 seconds)

• Chapter 32：ROM-based transistor array and its logic design (17 minutes and 12 seconds)

• Chapter 33：Or non-ROM layout design (15 minutes and 13 seconds)

• Chapter 34：And the layout of unstructured ROM (25 minutes and 34 seconds)

• Chapter 35：MOS transistor switching logic (19 minutes and 59 seconds)

• Chapter 36：Example - Design a circuit using one of four MUXes (9 minutes and 4 seconds)

• Chapter 37：PLA array structure (12 minutes and 39 seconds)

• Chapter 38：Examples of using PLA to design circuits and folding PLA (16 minutes and 58 seconds)

• Chapter 39：Gate array function and its layout structure (13 minutes and 59 seconds)

• Chapter 40：Gate Array Layout Analysis and Design Criteria (20 minutes and 6 seconds)

• Chapter 41：Application of regular array design technology-EPLD (15 minutes and 22 seconds)

• Chapter 42：E2PROM transistor structure and programming structure comparison (11 minutes and 43 seconds)

• Chapter 43：Introduction - Disadvantages of regular arrays (11 minutes and 21 seconds)

• Chapter 44：Cell library concepts and real cell library examples (15 minutes and 13 seconds)

• Chapter 45：Standard cell design technology (18 minutes and 11 seconds)

• Chapter 46：The process of implementing integrated circuits using standard cells (8 minutes and 10 seconds)

• Chapter 47：Classroom Exercise-Reading the Standard Unit Map (18 minutes and 36 seconds)

• Chapter 48：Functions of input and output units (12 minutes and 20 seconds)

• Chapter 49：Input unit layout design (14 minutes and 44 seconds)

• Chapter 50：Reverse output IOPAD design (20 minutes and 45 seconds)

• Chapter 51：Other output IOPAD (11 minutes and 13 seconds)

• Chapter 52：Mask programming input and output IOPAD (10 minutes and 9 seconds)

• Chapter 53：Summary of building block design technology and unit library (4 minutes and 57 seconds)

• Chapter 54：Big talk processor (20 minutes and 57 seconds)

• Chapter 55：Introduction to microprocessor architecture-Von Neumann and Harvard architecture (16 minutes and 40 seconds)

• Chapter 56：Comparison of von Neumann and Harvard structures (7 minutes and 49 seconds)

• Chapter 57：controller unit (24 minutes and 4 seconds)

• Chapter 58：ALU structure and half adder circuit (7 minutes and 49 seconds)

• Chapter 59：Multifunctional performance of full adder + peripheral circuit (8 minutes and 15 seconds)

• Chapter 60：Use full adder to build ALU-arithmetic operation design (17 minutes and 1 seconds)

• Chapter 61：Use full adder to build ALU-logical operation design (10 minutes and 49 seconds)

• Chapter 62：Design ALU-circuit implementation using full adder (14 minutes and 50 seconds)

• Chapter 63：Characteristics of transmission gate design and summary of microprocessor design (10 minutes and 50 seconds)

• Chapter 64：Multiplier design (9 minutes and 19 seconds)

• Chapter 65：Shifter design (18 minutes and 46 seconds)

• Chapter 66：The Importance and Classification of Memory (24 minutes and 3 seconds)

• Chapter 67：SRAM structure (15 minutes and 51 seconds)

• Chapter 68：SRAM bitcell design (22 minutes and 57 seconds)

• Chapter 69：On the topic of low power consumption (21 minutes and 27 seconds)

• Chapter 70：Under the topic of low power consumption (18 minutes and 9 seconds)