MEMORY STRATEGIES INTERNATIONAL TRAINING SEMINARS

Similar documents
Organization. 5.1 Semiconductor Main Memory. William Stallings Computer Organization and Architecture 6th Edition

Memory Challenges. Issues & challenges in memory design: Cost Performance Power Scalability

William Stallings Computer Organization and Architecture 6th Edition. Chapter 5 Internal Memory

Chapter 5 Internal Memory

Computer Organization. 8th Edition. Chapter 5 Internal Memory

Flash TOSHIBA TOSHIBA

CS 320 February 2, 2018 Ch 5 Memory

(Advanced) Computer Organization & Architechture. Prof. Dr. Hasan Hüseyin BALIK (5 th Week)

Basic Organization Memory Cell Operation. CSCI 4717 Computer Architecture. ROM Uses. Random Access Memory. Semiconductor Memory Types

Chapter 5. Internal Memory. Yonsei University

Internal Memory. Computer Architecture. Outline. Memory Hierarchy. Semiconductor Memory Types. Copyright 2000 N. AYDIN. All rights reserved.

Information Storage and Spintronics 10

Advanced 1 Transistor DRAM Cells

William Stallings Computer Organization and Architecture 8th Edition. Chapter 5 Internal Memory

Future Memories. Jim Handy OBJECTIVE ANALYSIS

ECE 485/585 Microprocessor System Design

Lecture 18: DRAM Technologies

Flash Memories. Ramin Roosta Dept. of Computer Engineering. EE 595 EDA / ASIC Design Lab

ECE321 Electronics I

Emerging NV Storage and Memory Technologies --Development, Manufacturing and

Basics DRAM ORGANIZATION. Storage element (capacitor) Data In/Out Buffers. Word Line. Bit Line. Switching element HIGH-SPEED MEMORY SYSTEMS

Memory classification:- Topics covered:- types,organization and working

Memory Device Evolution

Introduction read-only memory random access memory

SOLVING MANUFACTURING CHALLENGES AND BRINGING SPIN TORQUE MRAM TO THE MAINSTREAM

Embedded Systems Design: A Unified Hardware/Software Introduction. Outline. Chapter 5 Memory. Introduction. Memory: basic concepts

Embedded Systems Design: A Unified Hardware/Software Introduction. Chapter 5 Memory. Outline. Introduction

INTRODUCTION TO ADVANCED SEMICONDUCTOR MEMORIES

Memory Class Storage. Bill Gervasi Principal Systems Architect Santa Clara, CA August

CMOS Logic Circuit Design Link( リンク ): センター教官講義ノートの下 CMOS 論理回路設計

Large and Fast: Exploiting Memory Hierarchy

Recent Advancements in Spin-Torque Switching for High-Density MRAM

Intel s s Memory Strategy for the Wireless Phone

Memory technology and optimizations ( 2.3) Main Memory

TABLE OF CONTENTS III. Section 1. Executive Summary

Memory Overview. Overview - Memory Types 2/17/16. Curtis Nelson Walla Walla University

INSTITUTO SUPERIOR TÉCNICO. Architectures for Embedded Computing

Design and Implementation of an AHB SRAM Memory Controller

Access Time Time needed by the device to present the data out after the address has been validated.

+1 (479)

Computer Memory. Textbook: Chapter 1

Hardware Design with VHDL PLDs I ECE 443. FPGAs can be configured at least once, many are reprogrammable.

CS 261 Fall Mike Lam, Professor. Memory

NAND Flash Memory. Jinkyu Jeong Computer Systems Laboratory Sungkyunkwan University

Chhattisgarh Swami Vivekanand Technical University, Bhilai

EE414 Embedded Systems Ch 5. Memory Part 2/2

Main Memory Systems. Department of Electrical Engineering Stanford University Lecture 5-1

Embedded System Application

Embedded Systems: Architecture

Real Time Embedded Systems

The Memory Hierarchy 1

Memory Systems IRAM. Principle of IRAM

TABLE 20 JAPAN S SECURE DATA (SD) CARD PRODUCTION BY SITE, 2000 (UNITS PER MONTH) GOVERNMENT REGULATIONS INFLUENCES ON SALES...

Memory. Outline. ECEN454 Digital Integrated Circuit Design. Memory Arrays. SRAM Architecture DRAM. Serial Access Memories ROM

Unleashing the Power of Embedded DRAM

CS311 Lecture 21: SRAM/DRAM/FLASH

ELE 455/555 Computer System Engineering. Section 1 Review and Foundations Class 3 Technology

More Course Information

Magnetic core memory (1951) cm 2 ( bit)

Storage and Memory Infrastructure to Support 5G Applications. Tom Coughlin President, Coughlin Associates

EMERGING MEMORIES POISED TO EXPLODE An Emerging Memory Report

Computer Systems Laboratory Sungkyunkwan University

ECSE-2610 Computer Components & Operations (COCO)

EE251: Thursday November 15

Database Management Systems, 2nd edition, Raghu Ramakrishnan, Johannes Gehrke, McGraw-Hill

Programmable Logic Devices Introduction CMPE 415. Programmable Logic Devices

Flash Memory Overview: Technology & Market Trends. Allen Yu Phison Electronics Corp.

CMPEN 411 VLSI Digital Circuits Spring Lecture 22: Memery, ROM

The DRAM Cell. EEC 581 Computer Architecture. Memory Hierarchy Design (III) 1T1C DRAM cell

Introduction to SRAM. Jasur Hanbaba

From Silicon to Solutions: Getting the Right Memory Mix for the Application

Later designs used arrays of small ferrite electromagnets, known as core memory.

EECS150 - Digital Design Lecture 16 - Memory

1998 Technical Documentation Services

March 20, 2002, San Jose Dominance of embedded Memories. Ulf Schlichtmann Slide 2. esram contents [Mbit] 100%

ELCT 912: Advanced Embedded Systems

The Memory Hierarchy Sept 29, 2006

Loadsa 1 : A Yield-Driven Top-Down Design Method for STT-RAM Array

Overview. Memory Classification Read-Only Memory (ROM) Random Access Memory (RAM) Functional Behavior of RAM. Implementing Static RAM

Introduction. Chapter 1. Logic Non-Volatile Memory. List of Sections. List of Figures

Memory Systems for Embedded Applications. Chapter 4 (Sections )

a) Memory management unit b) CPU c) PCI d) None of the mentioned

MEMORY AND PROGRAMMABLE LOGIC

Design with Microprocessors

emram: From Technology to Applications David Eggleston VP Embedded Memory

UNIT V (PROGRAMMABLE LOGIC DEVICES)

Designing with External Flash Memory on Renesas Platforms

EECS150 - Digital Design Lecture 16 Memory 1

Digital Systems. Semiconductor memories. Departamentul de Bazele Electronicii

Cellular Phone Application Specific RAM

Chapter 5. Large and Fast: Exploiting Memory Hierarchy

chapter 8 The Memory System Chapter Objectives

Technology and Manufacturing

,e-pg PATHSHALA- Computer Science Computer Architecture Module 25 Memory Hierarchy Design - Basics

Lecture Objectives. Introduction to Computing Chapter 0. Topics. Numbering Systems 04/09/2017

Chapter 1. Jin-Fu Li Advanced Reliable Systems (ARES) Lab. Dept. of Electrical Engineering. Jhongli, Taiwan

Memory Pearson Education, Inc., Hoboken, NJ. All rights reserved.

Views of Memory. Real machines have limited amounts of memory. Programmer doesn t want to be bothered. 640KB? A few GB? (This laptop = 2GB)

COMP3221: Microprocessors and. and Embedded Systems. Overview. Lecture 23: Memory Systems (I)

Design with Microprocessors

Transcription:

MEMORY STRATEGIES INTERNATIONAL TRAINING SEMINARS www.memorystrategies.com Lecturer: Author of: Betty Prince, Ph.D. Emerging Memories: Technologies and Trends, 2002, Kluwer Academic High Performance Memories, Revised Edition 1999, John Wiley & Sons Semiconductor Memories, 2nd Edition, 1992, John Wiley & Sons COURSES OFFERED: (DETAILED AGENDAS FOLLOW) 1. MODERN AND EMERGING MEMORIES 2. A BASIC COURSE IN SEMICONDUCTOR MEMORIES 3. OVERVIEW OF EMERGING MEMORIES: TECHNOLOGIES AND APPLICATIONS 4. HIGH PERFORMANCE DRAMS 5. FLASH MEMORIES AND EMBEDDED FLASH 6. MEMORIES FOR PORTABLE SYSTEMS 7. EMBEDDED MEMORIES: DRAM AND FLASH 8. BASICS OF MEMORIES WITH OVERVIEW OF FAST DRAMS 9. BASICS OF MEMORIES AND OVERVIEW OF FLASH 10. BASICS OF MEMORIES WITH OVERVIEW OF FAST SRAMS 11. APPLICATION SPECIFIC AND EMBEDDED DRAMS info@memorystrategies.com 1 www.memorystrategies.com

1. Seminar on Modern and Emerging Memories Overview: This two day seminar provides an overview of modern and emerging memories. Modern memories include: high speed DRAMs, low power DRAMs, P-SRAMs, fast SRAMs and NAND / AND and NOR Flash. It also covers emerging memories including: FeRAM and MRAM technology, product status and target applications; after DRAM memories such as SESO, STTM and Capacitorless DRAM: after Flash memories such as silicon nanocrystal and varieties of SONOS; phase change memories such as PCRAM and PMC; negative resistance memories such as T-RAM, non-silicon memories such as molecular memories, and polymer memories along with other vertical memories. Day 1 9:00 Modern DRAMs (Fast, Low Power, P-SRAM) 10:30 Fast SRAMs (products and issues) 11:00 Post-DRAM Emerging Memories (SESO, STTM, Capacitorless DRAM) 1:00 Modern Flash (NAND/AND, NOR) 3:00 Post-Flash Emerging Memories (Silicon Nanocrystal, SONOS) 3:45 Polymer Memories Day 2 9:00 FeRAM - technology, product status and target applications 11:00 Phase Change/Chalcogenide Memory (PMC, PC-RAM) 1:00 Magnetic RAM - technology, product status and target applications 3:00 Negative Resistance and Non-Silicon Memory (T-RAM, Molecular) 3:45 Vertical Memories info@memorystrategies.com 2 www.memorystrategies.com

2. A BASIC COURSE IN SEMICONDUCTOR MEMORIES Overview: This two day seminar, targeted at memory marketing staff, managers and new memory engineers, covers the basics of semiconductor memories including markets, applications, process technology, product characteristics, design, test, packaging, and reliability. Products discussed include: Fast DRAMs, Low Power DRAMs, SRAMs, P-SRAMs, Non-Volatile Memories (ROMs, EPROMs, EEPROMs, Flash), an overview of new non-volatiles (FeRAM and MRAM) and embedded memories. The intent is to provide familiarity with most aspects of semiconductor memories. Day 1: 9:00 Memory Market Overview and Applications 10:00 Basic Memory Manufacturing Process 11:00 Basic Memory Architecture and Cell 12:00 Lunch break 1:00 Fast SRAM Trends (SRAM, SSRAM, QDR, DDR SRAM, esram) 3:00 RAM Reliability Issues (SER, hard errors, leakage, etc.) 3:45 Memory Electrical and Test Issues (ECC, BIST, redundancy, repair) Day 2: 9:00 DRAM Applications and System Issues 9:30 Basics of Fast DRAMs (Operation, Bandwidth, Banking, Page and Burst Mode) 10:00 High Performance DRAMs (SDRAM, DDR, DDR2, RDRAM, RL-DRAM) 11:00 Low Power DRAMs (FCRAM, MoBL RAM, Cellular RAM, various P-SRAMs, etc.) 12:00 Lunch break 1:00 Non-Volatiles (EPROM, EEPROM, NAND / NOR Flash, Multi-bit Flash, SONOS / NROM) 3:00 New Non-Volatiles (FeRAM, MRAM) 3:45 Embedded Memory vs. Advanced Packaging (MCP) info@memorystrategies.com 3 www.memorystrategies.com

3. OVERVIEW OF EMERGING MEMORIES: TECHNOLOGIES AND APPLICATIONS Our one-day seminar on Emerging Memories is available as an added day to other seminars. It describes the technology and potential applications of various new memory technologies being investigated in research and development groups today. These are technologies beyond direct evolutionary scaling of CMOS memory technologies used in volume production today. An agenda for the seminar follows. Emerging Memories: Technology and Application 9:00 Ferroelectric Memories (2T2C, 1T1C, Materials, Reliability, Trends) 10:30 Magnetic RAMs (Spin Valve, Pseudo-Spin Valve, MTJ, Hall MRAM, Vertical MRAM, Technology, Reliability, Trends) 1:00 Non-Volatiles after Floating Gate - Some Contenders (SONOS/NROM, Proton, Single Electron, Silicon Nanocrystal) 1:45 After DRAM - Some Novel Contenders (Gain memories- SESO, PLEDM, SOI, RTD memories - Esaki RAM, Thyristor RAM, etc.) 2:45 Memories After Silicon (Polymer, Molecular, Chalcogenic/Ovonic, Carbon Nanotube, Photonic, DNA, etc.) 3:30 Silicon Structure Memories (Micromechanical, Vertical, 3-D, etc.) 4:00 End info@memorystrategies.com 4 www.memorystrategies.com

4. HIGH PERFORMANCE DRAMS Overview: This two-day course in High Performance DRAMs provides background for new DRAM engineers and a refresher for current memory Engineering Staff. It focuses on the architecture, operation and applications of the fast new architecture DRAMs. Included are a review of fast access modes Fast Page and EDO, background on the architecture and operation of the various Synchronous DRAMs including SDRAM, DDR SDRAM; Rambus DRAMs; alternative architecture DRAMs such as the CDRAM, ESDRAM, MDRAM, FCRAM and VCDRAM; and the various Graphics DRAMs. DRAM modules, test, and reliability are also covered. Day 1: 9:00 Overview of Fast DRAM System Trends 10:00 Basics of fast DRAMs (architecture, bandwidth, granularity, refresh) 11:00 Fast access modes in DRAMs (Fast Page, EDO) 1:00 SDR SDRAM Operation 2:30 DDR SDRAM Operation 3:00 DDR II SDRAM Operation 3:30 High Speed Interfaces for DRAMs 4:00 Fast Interface DRAMs (RDRAM) Day 2: 9:00 Fast Core SDRAM Concepts: (ESDRAM, FCRAM, RL-DRAM, multi-bank DRAM) 10:30 Graphics DRAM Issues 11:00 Networking DRAMs (1 transistor SRAMs) 1:00 Mobile DRAM/ Low Power DRAM Issues 2:00 Fast DRAM Packaging and Modules 3:30 DRAM Test and Reliability Issues info@memorystrategies.com 5 www.memorystrategies.com

5. FLASH MEMORIES AND EMBEDDED FLASH: Application, Product and Technology Overview: This two-day seminar is targeted at engineering staff and management and new nonvolatile memory engineers. The first day includes: market and applications for non-volatile memories, an overview of CMOS non-volatile process technology, discussion of products such as NOR and NAND flash memory and alternative flash technologies such as multilevel storage flash and SONOS/NROM types of memories. An overview is given of test and reliability of nonvolatile memories followed by of various flash roadmaps. The second day includes: embedded flash applications and systems trends, embedded non-volatile technologies and foundries, new non-volatiles such as FeRAM and MRAM technologies and products and an overview of flash vendors. A discussion of packaging trends including stacked packages, CSP and flipchip is followed by a section on CSP assembly and one on modules and memory cards. Day 1 9:00 Flash Memory Applications, Systems and Markets 10:00 Basic CMOS Non-Volatile Processes and Cells 11:00 Standalone NOR Flash 12:00 Lunch 1:00 Standalone NAND Flash 2:00 Alternative Flash Technologies (multi-level, SONOS/NROM) 3:00 Flash Test and Reliability 4:00 Flash Roadmaps Day 2 9:00 eflash Market, Applications and System Trends 10:00 Embedded Non-Volatile Technologies and Foundries 11:30 New Non-Volatile Products (FeRAM, MRAM) 12:30 Lunch Break 1:30 Overview of Flash from Various Vendors 2:30 Packaging and Package Integration Trends 3:30 CSP Assembly Trends 4:00 Modules and Memory Cards info@memorystrategies.com 6 www.memorystrategies.com

6. MEMORIES FOR PORTABLE SYSTEMS Overview: This two day seminar, targeted at portable system application engineers, memory marketing staff, managers and new memory engineers, covers the requirements of memories for portable systems including: processors used in portable systems, trends in low power DRAMs and SRAMs, and low power DRAM architecture and design concepts. Reliability issues such as soft errors at low voltages and atomic particles are discussed. The architecture and operation of various Flash memories used in portable systems are discussed along with basics of the new ferroelectric and magnetic memories being targeted at portable applications. Miniature packaging and modules are also discussed along with an overview of smart cards and memory cards Day 1 9:00 RAM Memory Requirements for Portable Systems 9:45 Processors for Portable Systems 10:15 Low Power SRAM Trends 11:00 Low Power DRAM Trends 1:00 Low Power DRAM Architecture and Design Concepts 3:00 Low Voltage Issues for Portable Memory Systems 3:30 Reliability Issues for Portable Memories Day 2 9:00 Non-Volatile Memory Requirements for Portable Systems 10:00 NOR-Flash Architecture and Operation 11:15 NAND-Flash Architecture and Operation 1:00 The New Non-volatiles - FeRAM Products and Issues 1:45 The New Non-volatiles - MRAM Products and Issues 2:30 Other New Non-Volatiles - OUM, Polymer, etc. 3:00 Miniature and Modular Packaging (BGA, ubga, MCM, MCP, Vertical) 4:00 Smart Cards and Memory Cards info@memorystrategies.com 7 www.memorystrategies.com

7. EMBEDDED MEMORIES: DRAM AND FLASH Overview: This two-day seminar is targeted at memory and ASIC engineering staff and management. It covers system problems solved by Integrated Memory/Logic along with some cost analysis, alternatives to integration, and trade-offs along with types of applications most likely to be integrated. Discussion of the technical challenges of integration includes process options, design options (tools, cell and block compilers, macro's, outside design houses) and foundry considerations. Test issues, including BIST and BISR, are considered. Commercial test tools are reviewed. An overview analysis is given of the features and technology of Integrated Memory-Logic chips from various manufacturers. Day One: 9:00 Overview of Trends in Embedded Memory 9:30 System Problems Solved by Integrated Memory-Logic 10:30 Applications most likely to be Embedded 1:00 Technology Issues - RAM 2:00 Technology Issues - Flash 3:00 Cost Models and Trade-offs 4:00 The Business Model (Foundries, IP, etc.) Day Two: 9:00 Design Issues I (architecture) 10:30 Design Issues II (compilers, tools, design houses) 1:00 Testing Issues (BIST, Burn-in, BISR, commercial test tools) 2:00 Alternatives to Integration (MCM, MCP, etc.) 3:00 Analysis of Integrated Chips from Various Manufacturers info@memorystrategies.com 8 www.memorystrategies.com

8. BASICS OF MEMORIES WITH OVERVIEW OF FAST DRAMS Overview: This two-day seminar is targeted at fast DRAM engineering staff, management and new DRAM engineers. The first day covers the basics of semiconductor memories including markets, applications, process technology, product characteristics, design, test, packaging, and reliability. The second day provides an overview of the fast new architecture DRAMs, their architecture, operation, and application. Day 1: 9:00 Overview of Memory Market and Applications 9:45 Basic Memory Manufacturing Process 10:45 Basic Memory Architecture and Cell (DRAM, SRAM, Flash) 12:00 Lunch break 1:00 Fast SRAM Trends (SRAM, SSRAM, QDR, SigmaRAM, DDR SRAM) 1:45 Non-Volatile Memory (EPROM, EEPROM, Flash, MRAM, FRAM) 2:30 Basics of Integrated DRAM and Logic 3:15 Memory Packaging (MCM, MCP, Vertical, Flipchip) 4:00 Memory Test and Reliability Day 2: 9:00 Fast DRAM Architecture and Operation (basics, FP, EDO) 9:45 Basics of Synchronous DRAMs 10:30 DDR Basics and Operation 11:15 DDR II Basics and Operation 1:00 Application Specific DRAMs (RL-DRAM, FCRAM, ESDRAM, 1T SRAM, RDRAM) 2:40 Graphics Memory Issues and Applications 3:40 Fast DRAM Modules info@memorystrategies.com 9 www.memorystrategies.com

9. BASICS OF MEMORIES AND OVERVIEW OF FLASH Overview: This two-day seminar is targeted at engineering staff, management and new engineers involved in the Flash memory or other non-volatile memory areas. The first day covers the basics of semiconductor memories including markets, applications, process technology, product characteristics, design, test, packaging, and reliability. The second day provides an overview of the non-volatile floating gate memories including Flash memories and EEPROMs - their applications, technology, cell structure, architecture, and operation. Embedded Flash options along with Ferro-electric RAMs and other specialty non-volatile memories are also discussed. Day 1: 9:00 Memory Market Overview and Applications 10:00 Memory Manufacturing Process 11:00 MOS Memory Architecture Basics of SRAM, DRAM, Non-Volatiles 12:00 Lunch break 1:00 SRAMs and Cache Theory 2:00 Fast DRAM Overview 2:30 Basics of Integrated Memory and Logic 3:15 Memory Packaging and Assembly Basics 4:00 Memory Test and Reliability Day 2: 9:00 Flash Memory Applications and Market 10:00 Basic CMOS Non-Volatile Processes and Cells 11:00 Overview of Standalone Flash Memory - NOR Flash 12:00 Lunch 1:00 Overview of Standalone Flash Memory - NAND Flash 2:00 Embedded Flash - technology and cell 2:45 Alternative non-volatile technologies (FRAM, MRAM) 3:30 Flash Test and Reliability 4:00 Flash Modules and Memory Cards info@memorystrategies.com 10 www.memorystrategies.com

10. BASICS OF MEMORIES WITH OVERVIEW OF FAST SRAMS Overview: This two-day seminar is targeted at engineering staff, management and new engineers involved in the SRAM area. The first day covers the basics of semiconductor memories including markets, applications, process technology, product characteristics, design, test, packaging, and reliability. The second day provides an overview of SRAMs, their architecture, technology, operation, application, test, and packaging. Embedded SRAMs are also discussed. Day 1: 9:00 Memory Market Overview and Trends 9:30 Applications for Memories Markets and Systems 10:15 Memory Manufacturing Process 11:00 MOS Memory Architecture 12:00 Lunch break 1:00 Non-volatile Memory Overview 2:00 Modern DRAM Overview 3:00 Basics of Integrated Memory and Logic Day 2: 8:30 SRAM Applications and Trends 9:45 Basics of SRAM Architecture 10:15 Asynchronous SRAMs 11:15 Cache Theory 1:00 Synchronous SRAMS 2:00 Specialty and Embedded SRAMs 3:00 Memory Packaging and Assembly Basics 3:45 Memory Test and Reliability info@memorystrategies.com 11 www.memorystrategies.com

11. APPLICATIONS SPECIFIC AND EMBEDDED DRAMS Overview: This two-day course is covers commodity DRAMs, Applications Specific DRAMs and Embedded DRAMs. It is targeted at engineering management, staff and new DRAM and ASIC DRAM engineers. It provides an overview of the high performance DRAMs, their architecture, operation, and application. Included are a review of fast access modes in DRAMS including SDR SDRAM, DDR & DDR II SDRAMs; Rambus DRAMs; fast core DRAMs such as the ESDRAM, 1-Transistor SRAMs, FCRAM, and RL-DRAM. High-speed interfaces, modules, test, and reliability are also covered. The second day covers systems problems solved by Integrated RAM-Logic along with consideration of the types of applications most likely to be integrated. Discussion of the technical challenges of integration includes various process options, design considerations, and design tools. Test issues, including BIST and BISR, are considered and commercial test tools are reviewed. An overview analysis is given of the features and technology of Integrated RAM-Logic chips from various manufacturers. Day 1: 9:00 Overview of Fast DRAM System Trends 9:30 Basics of fast DRAMs (architecture, bandwidth, granularity, refresh, access modes) 10:15 SDR SDRAM Basics and Operation 11:30 DDR SDRAM Basics and Operation 1:00 DDR II SDRAM Basics and Operation 2:00 High Speed Interfaces 2:30 Alternative Architecture DRAMs (Including Networking and Graphics DRAMs and Packet Protocol DRAMs) 3:15 DRAM Test and Reliability Issues 4:00 Packaging and Module Issues Day 2: 9:00 Analysis of Market and Trends in Embedded DRAMS 9:30 System Problems Solved by Embedded DRAM 10:15 Embedded DRAM Applications - Solutions and Trade-offs 11:00 Embedded DRAM Architecture and Trends 1:00 Technology Issues (process options, cell types, performance, power, refresh) 1:45 Design Issues (compilers and design tools, bandwidth and power, parallelism) 2:30 Supplier Models - ASIC, Custom DRAM, Foundries 3:15 Testing Issues (BIST, Burn-in, repair, commercial test tools ) 4:00 Alternatives to Integration (MCM, CSP, MCP) info@memorystrategies.com 12 www.memorystrategies.com

Contact: Memory Strategies International 16900 Stockton Drive Leander, Texas 78641 Phone: 1-512-260-8226 FAX: 1-512-260-3967 info@memorystrategies.com www.memorystrategies.com Cost: 2-Day Course: $2600.00 per course up to10 participants. This base fee is due in advance. $250.00 for each additional participant over 10, with maximum of 30 per course. 1-Day Courses are only offered in combination with other courses. Contact us for information. A binder of the lecture material is provided to each participant. Lecture room and digital projector are to be provided by sponsoring organization. Travel expenses for one from Austin, Texas are additional. Attendance numbers must be provided 10 days in advance. Cancellation Policy: Cancellations less than 30 days in advance will be billed for any nonrefundable travel arrangement expenses. To cover preparation costs, cancellations less than 10 days in advance will be billed a fee of $60 per person per course. (41 days & 20 days, respectively, for classes outside the continental U.S.) Lecturer: Dr. Prince is CEO of Memory Strategies International, a semiconductor memory services company in Leander, Texas, founded in 1993 and President of Processor Strategies International, a subsidiary of Memory Strategies. She has spent over 30 years in Engineering, Marketing and Operations Management in the semiconductor industry in both the USA and Europe with Texas Instruments, N.V. Philips, Motorola, RCA Semiconductor, and Fairchild Semiconductor. She is on the Scientific Advisory Board of Cavendish Kinetics (S'Hertogenbosch, NL), and has also served on the Scientific Advisory Boards of Silicon Access Networks (U.S.A.) and Cogent Chipware (Vancouver, B.C.). She was on the Board of Directors of Mosaid Technologies (Ottawa, Canada) from 1997 to 2003. She is author of the books, Semiconductor Memories (1982), Semiconductor Memories 2nd Edition (1992), High Performance Memories, (1996, revised 1999), Emerging Memories- Technologies and Trends, (2002), and Modern Memories to be published by John Wiley & Sons. She is a Senior Member of the IEEE and is involved in the Non-Volatile Section of the ITRS Technology Roadmap. She was a member of the EIA JEDEC JC42 Memory Standards Committee for 20 years where she served as founder and chairman of the JC16 Electrical Interface Standards Committee, Co-Chair of the JC-42.4 SRAM/CAM Standards Committee and US National Delegate to the IEC SC47 WG3 International Memory Standards Group. She has served on the Editorial Board of the IEEE Spectrum, and has given technical papers and tutorials at various IEEE conferences. She holds several patents in the semiconductor memory area. She has a B.Sc. in Physics, an M.Sc. in Physics, an MBA in International Business and a Ph.D. in International Finance. (200405) info@memorystrategies.com 13 www.memorystrategies.com