Hierarchical Technology CAD---Process, Device, and Circuits

A two-day program: August 9-10, 1995 Stanford, California


Registration form below

Stanford University has been at the forefront of Integrated Circuit (IC) modeling and simulation for nearly two decades. The research and development associated with programs such as SUPREM and PISCES has broadly supported both academic and industrial interest in technology modeling.

This year's meeting continues the presentation and consideration of important shifts in scope and content of the field of TCAD, both at Stanford and in the much broader context of the SIA Roadmap and other groups working in this field. The concepts of and initial efforts in creating a hierarchy of TCAD models that spans from atomic-scale process models through circuit level applications for TCAD will be presented. In the process and device modeling sessions, there will be increased consideration of the fundamental models used in tools such as SUPREM and PISCES, including calibration based on both experiments and deeper physical modeling techniques such as Monte Carlo and molecular dynamics. Trends in technology development, both core technologies (CMOS, Low Power...) and application "drivers" (Radio Frequency (RF), etc.), will be used to motivate discussion of modeling topics and as specific examples. Computational prototyping will be the other main focus of the meeting with balanced consideration given to: 1) examples that demonstrate how the concepts build on hierarchical TCAD and 2) the underlying software engineering and basic research issues needed to realize such systems.

The meeting format is a combination of lectures and demonstrations. Copies of speaker slides are provided for easy reference. Coffee breaks and meals as listed are included in the registration fee and provide an excellent opportunity to interact with speakers and other participants.

The first day's agenda focuses on process and device modeling, calibration of models, and TCAD tools that support new developments in the field. Both SRC- and ARPA-funded programs related to process and device modeling will be reviewed. After an overview of recent trends in modeling and general status of tools such as SUPREM and PISCES, in-depth presentations will address specific issues such as physical models and the creation of a modeling hierarchy. The discussion of hierarchical devices models is a research theme of growing importance within the National Center for Computational Electronics (NCCE) sponsored by NSF. The final set of talks in this session provide a very exciting and diverse set of applications for TCAD.

The second day shifts the emphasis to computational prototyping and applications for device, interconnect, and circuit modeling. The opening session will introduce the key concepts of new ARPA-funded efforts in this area. Building on many of the hierarchical TCAD concepts, the discussion shifts toward advanced software issues for computational prototyping. Issues related to device and interconnect scaling will be one unifying theme that demonstrates a range of complementary analysis methods. Advanced capabilities using FASTCAP and SAMPLE 3D will be one set of highlights in this session. Modeling and circuits issues related to mixed signal applications will be considered along with the recent developments in BSIM3. A key theme in several of the sessions relates to internet collaboration, including the growing use of the world-wide web (WWW). The day ends with a WWW-based set of demonstrations that will be available for browsing after the meeting.

Wednesday, August 9, 1995

8:00 a.m.	Registration

Advanced Impurity Diffusion Modeling
8:30	Physical Models for Process Simulation			Peter Griffin
9:10	Precipitation, Clustering and Bipolar Applications	Paul Rousseau
9:35    Implant Damage and Transient Enhanced Diffusion		Henry Chao
10:00	Transient Enhanced Diffusion and SOI Applications	Scott Crowder

10:25	Break

Advanced Oxidation Modeling
10:50	Characterization of Thin Films--Nitrides, Oxides 
        and Polysilicon						Charlie Yu
11:15	Experiments on Submicron Isolation Structures		Peter Smeys
11:40	New Constitutive Model for Visco-Elastic Oxidation	Vinay Rao 

12:05	Lunch

Physical Models for Device Simulation
1:00	Hierarchical Device Modeling--from Quantum Transport 
        to Compact Models					Edwin Kan
1:40	A Unified Consideration toward Macroscopic 
        Hot Carrier Modeling MOS Devices	                Chiang-Sheng Yao     
2:05 	Monte Carlo Simulation using Full Band 
        (DAMOCLES) and Reduced Band Models			Gyo-Young Jin

2:30	Break

Technology Scaling--Applications of TCAD
2:50	CMOS Low-Power Design Using PROPHET and PADRE		Aon Mujtaba
3:15	Characterization of ESD Devices and Protection 
        Circuits						Stephen Beebe
3:40	Substrate Noise--Measurements and Modeling		Bruce Wooley
4:15	Advanced Thermal Modeling for SOI Devices		Ken Goodson

6:00	Dinner, Faculty Club

Thursday, August 10, 1995

Computational Prototyping--A Paradigm Shift 
8:30	Computational Prototyping of 21st Century `
        Semiconductors 						Bob Dutton
9:00	Assessing Advanced IC Technologies--Present 
        Capabilities and Future Needs				James Chung
9:30	New Research Paradigm using Internet Collaboration	Paul Losleben

10:00	Break

Tools for Computational Prototyping
10:20	Multi-Processor Device Simulation (PISCES-MP)		Bruce Herndon
10:55	Framework-based Architecture of SUPREM OO7 
        (Object-Oriented)					Zak Sahul	
11:20	A Layered Model (Ala Mode) Approach for SUPREM 
        Modules							Dan Yergeau
11:45	Centralized Geometry Services Using BTU			Robert Wang
12:10	Lunch

Hierarchical Interconnect Modeling
1:00	Extraction for Interconnect Analysis Using SAMPLE 3D	John Sefler
1:25	Tools for Interconnect--Delay and Signal Integrity 
        Analysis						Jacob White
1:50	Devices and Interconnect Constraints			Krishna Saraswat
2:15	Back-End Process Simulation				Mike Deal
2:40	Break

Technologies for Wireless and Circuit Modeling
3:00	Circuit and Device Considerations for Wireless 
        Applications						Tom Lee
3:40	Virtual Instrument Using PISCES--Harmonic Balance 
        and Mixed-Mode						Boris Troyanovsky       
4:05	BSIM3--SPICE Modeling for MOS Devices			Chenming Hu
4:45	WWW-based Demos and Reception

INSTRUCTIONAL STAFF:

Stephen G. Beebe, Device Engineer, Advanced Micro Devices
Henry Chao, Research Assistant, Stanford University
James Chung, Professor, Massachusetts Institute of Technology
Scott W. Crowder, Research Assistant, Stanford University
Michael Deal, Senior Research Associate, Stanford University
Robert W. Dutton, Professor, Stanford University
Kenneth E. Goodson, Professor, Stanford University
Peter B. Griffin, Senior Research Associate, Stanford University
Bruce P. Herndon, Research Assistant, Stanford University
Chenming Hu, Professor, University of California, Berkeley
Gyo-Young Jin, Postdoc Research Affiliate, Stanford University
Edwin Kan, Research Associate, Stanford University
Thomas Lee, Professor, Stanford University
Paul Losleben, Senior Research Scientist, Stanford University
Aon Mujtaba, Research Assistant, Stanford University
Vinay Rao, Research Assistant, Stanford University
Paul M. Rousseau, Research Assistant, Stanford University
Zakir H. Sahul, Research Assistant, Stanford University
Krishna Saraswat, Professor, Stanford University
John Sefler, Research Assistant, Univ. of California, Berkeley
Peter Smeys, Research Assistant, Stanford University
Boris Troyanovsky, Research Assistant, Stanford University
Robert Wang, Research Assistant, Univ. of California, Berkeley
Jacob White, Professor, Massachusetts Institute of Technology
Bruce A. Wooley, Professor, Stanford University
Chiang-Sheng Yao, Device Engineer, LSI Logic Corporation
Dan Yergeau, Research Assistant, Stanford University
Charlie Yu, Research Assistant, Stanford University

GENERAL INFORMATION

Location: Terman Auditorium, Stanford University, Stanford, California.

Fee: The fee for each day is $250 including lecture notes, luncheon, and dinner (August 9, 1995) or $425 for attending both days. Enrollment is limited, and advance enrollment is required.

How to enroll: Please complete and return the registration form. Enrollment may be made by individuals or companies. Deadline for submission of enrollment forms: July 21, 1995.

Refunds: If you enroll and then cannot attend, a refund will be granted if requested in writing prior to August 1, 1995.

Housing: A block of rooms has been reserved at the Holiday Inn (415) 328-2800. Housing is also available on the Stanford campus residences at reasonable rates. Campus recreational facilities are available for your use. For further information, contact the Conference Office at 123 Encina Commons, Stanford, California, 94305-6020; telephone (415) 725-1429. A list of hotels and motels in the vicinity of Stanford University can be provided upon request.

For further information: Write or call Stanford University Integrated Circuits Laboratory, c/o Robert W. Dutton, AEL 202, Stanford, California 94305-4055; telephones (415) 723-1950 and 723-1349; FAX (415) 725-7731; or send e-mail to cad95@gloworm.stanford.edu.

REGISTRATION FORM:

Using your Web browser, print this page to your local printer, fill in the form and mail to the address shown below. Deadline is July 21, 1995.

I enclose a check in the amount of ______

$_____ to cover ___  enrollment(s) in (check one)

[ ] Wednesday			August 9, 1995 ($250)
[ ] Thursday			August 10, 1995 ($250)
[ ] Both Days			August 9-10 1995 ($425)
[ ] SRC Member/Government rate  August 9-10, 1995($350)

Name ___________________________________________________

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Make check payable to Stanford University, and send to

Professor Robert W. Dutton
202 AEL Building
Stanford University
Stanford, CA 94305-4055