2 項進行中

115-1 選課時程

進行中

  • 初選第一階段 6/15 – 6/18
  • 初選第二階段 6/22 – 6/25
  • 校際選修 進行中 8/24 – 9/18
  • 初選第三階段 8/31 – 9/3
  • 開學後加退選 進行中 9/7 – 9/21
  • 逾期加退選 9/21 – 9/24
選課資源

加入行事曆

選擇訂閱 Google Calendar,或下載通用的 ICS 檔案。

使用 Google Calendar 時,Google 會收到這份課表的公開連結。

元件精簡模型

Compact Modeling

學期
115-1
學分
3 學分
當期課號
535914
永久課號
STST30043
開課單位
國際半導體產業學院博士班、國際半導體產業學院碩士班
授課教師
吉里斯
校區
光復
類別
選修
上課時間表
週五
5
13:20–14:10
元件精簡模型
EE116(光復)
3 節連堂
6
14:20–15:10
7
15:30–16:20

* 根據陽明交大上課時間表所列

概述

Compact models serve as a bridge or a translator between the physics-based half of the semiconductor industry (devices and foundries) and its computer-based half (EDA tools and IC design). This course will comprehensively cover the physics and modeling aspects of semiconductor devices, including MOS capacitors and MOSFETs, along with their non-ideal effects. The course aims to delve into the strategies for developing models that meet the industry's requirements for accuracy, computational speed, and robustness. Students will be introduced to industry-standard models such as BSIM-BULK and BSIM-CMG and will also learn benchmarking tests for compact models. Additionally, the course will familiarize students with EDA tools, including SPICE, Verilog-A hardware description language, and ICCAP parameter extraction software, preparing them for real-world applications.

先修科目

Semiconductor physics fundamentals

備註

無備註

教學方式

教師未提供此項資料

評分方式

Midterm exam: 20% Final exam: 30% Homework + Project: 40% Class participation: 10%

課程大綱

教師未提供此項資料

週次計畫
週次主題
第 1 週

Device Modeling Introduction, Need for Compact models for IC design, Compact modeling requirements, Simulation introduction (atomistic, TCAD, SPICE)

2026-09-11(五)
第 2 週

Introduction to SPICE: SPICE syntax and netlist, DC, AC, and transient analysis Verilog-A language introduction, compact modeling simplifications

2026-09-18(五)
第 3 週

Holiday

2026-09-25(五)
第 4 週

Recap of Semiconductor Physics Fundamentals

2026-10-02(五)
第 5 週

Holiday

2026-10-09(五)
第 6 週

Modeling of Metal Oxide Semiconductor (MOS) Capacitor: Types of oxide charges, Flat band voltage, Impact of gate biasing conditions and Band diagrams: physics of accumulation, depletion, and inversion

2026-10-16(五)
第 7 週

Modeling of Metal Oxide Semiconductor (MOS) Capacitor: charge/surface potential approximations in different MOS operating regions, Numerical solution of surface potential for Three-terminal MOS structure

2026-10-23(五)
第 8 週

Mid-term exam

2026-10-30(五)
第 9 週

MOSFET Modeling: Operating principle, charge-surface potential relation, accumulation, depletion, and inversion characteristics.

2026-11-06(五)
第 10 週

MOSFET Modeling: Approximate modeling of accumulation, depletion, and inversion characteristics.

2026-11-13(五)
第 11 週

MOSFET Modeling: Pinch-off voltage, Current models, Subthreshold swing and Boltzmann limit, Threshold voltage, and Case studies of industry-standard BSIM4 and BSIM-BULK models.

2026-11-20(五)
第 12 週

Modeling of Real Device Effects: Mobility degradation and scattering mechanisms, Parasitic series resistances, Temperature effects, Self-heating, Short channel effects, Velocity saturation, Channel length modulation, Ballistic operation, Hot Carriers and impact Ionization, Quantum mechanical effects, Leakage currents.

2026-11-27(五)
第 13 週

Advanced MOSFET Models: Moore's Law and Dennard's Scaling, Introduction to FinFET, FDSOI, and GAAFET Technologies Introduction to industry-standard BSIM-CMG model

2026-12-04(五)
第 14 週

Transient Modeling: Quasi-static approximation, Modeling of terminal charges and capacitances, Transit time, Limitations of quasi-static approach, Introduction non-quasi-static models.

2026-12-11(五)
第 15 週

Industry-standard compact model features and tests: Parameter binning, Instance parameters vs model parameters, Local parameter fitting vs global parameter fitting, Benchmarking tests.

2026-12-18(五)
第 16 週

Final exam.

2026-12-25(五)
教科書

1. Y. Tsividis and C. McAndrew, "Operation and Modeling of the MOS Transistor", Oxford Univ. Press, 2010 2. G. Gildenblat, "Compact Modeling: Principles, Techniques and Applications", Springer, 2010 3. W. Liu and C. Hu, "Bsim4 and MOSFET Modeling For IC Simulation", World Scientific Publishing Co., 2011 4. CC Enz, “Charge-based MOS transistor modeling: the EKV model for low-power and RF IC design”. John Wiley & Sons; 2006. 5. C. Hu, "Modern Semiconductor Devices for Integrated Circuits", Pearson, 2009

Office Hours
地點
EF471
時間
Monday 3-4 pm or by appointment
聯絡方式
girish@nycu.edu.tw