ITRS 2001 Factory Integration Chapter Model Information

Slides:



Advertisements
Similar presentations
18 July 2001 Work In Progress – Not for Publication 2001 ITRS Test Chapter ITRS Test ITWG Mike Rodgers Don Edenfeld.
Advertisements

4 December 2002, ITRS 2002 Update Conference 2002 ITRS Factory Integration ITWG Michio Honma, NEC Jeff Pettinato, Intel.
2001 ITRS Factory Integration ITWG
Work in progress Do not publish or distribute ITRS Factory Integration (FI) Update Public Conference Gopal Rao Factory Integration Chair July 2011 San.
ITRS Factory Integation TWG
ITRS Factory Integation TWG
Assembly and Packaging TWG
FCX Performance, Inc.. The Power of One 2 World class flow control solutions built on over 100 years of experience FCX does not run businesses; we provide.
ITRS Factory Integration Presentation
McGraw-Hill/Irwin © 2006 The McGraw-Hill Companies, Inc. All rights reserved. 3-1 BUSINESS DRIVEN TECHNOLOGY Business Plug-In B3 Supply Chain Management.
EYYUP ORAK Material requirements planning (MRP) is a computer-based inventory management system designed to assist production managers in.
Bringing Profitability Into Focus Optimizing the Chemical Value Chain
Supply Chain Management Managing the between all of the parties directly and indirectly involved in the procurement of a product or raw material.
T h e Y i e l d M a n a g e m e n t C o m p a n y Service Business Rich Ruiz Director, Global Provisioning GSS Service Supply Chain Mgmt.
Supply Chain Management
McGraw-Hill/Irwin ©2008 The McGraw-Hill Companies, All Rights Reserved CHAPTER 8 SUPPLY CHAIN MANAGEMENT.
Advanced Manufacturing Laboratory Department of Industrial Engineering Sharif University of Technology Session #2.
DRIVING INNOVATION AND ABILITY TO COMPETE THROUGH OUTSOURCING Anthony (Tony) C. Bernardo, Alloy Polymers Inc. NPE 2003 bernardo:
ERP Benefits.
Electronic Commerce Semester 2 Term 2 Lecture 29.
McGraw-Hill/Irwin ©2008 The McGraw-Hill Companies, All Rights Reserved SECTION 8.1 SUPPLY CHAIN FUNDAMENTALS.
Chapter 3 Network and System Design. Objectives After reading the chapter and reviewing the materials presented the students will be able to: Understand.
ITRS Factory Integration Difficult Challenges Last Updated: 30 May 2003.
Value and Supply Chain Management. What is Logistics? The Institute of Logistics defines logistics as the management of the flow of goods, information.
Power IT Solution in KEPCO. com Contents Introduction 1 EIS in KEPCO 2 Results of EIS 3 Future Expansion 4 You can briefly add outline.
Southwold Enterprises Co.,Ltd. An outsourcing partner committed to your company.
Software Product Line Material based on slides and chapter by Linda M. Northrop, SEI.
SCM is a set of approaches utilized to efficiently integrate suppliers, manufacturers, warehouses, and stores, so that merchandise is produced and distributed.
Align Business and Information Technology – with SOA Pradeep Nair Director – Software Group (IBM India/SA)
SUPPLY CHAIN MANAGEMENT SYSTEMS Part I. 7-2 LEARNING OUTCOMES 1.List and describe the components of a typical supply chain 2.Define the relationship between.
1 Margaret Christison Head of Product Data Standards Product Information Standards Defence Logistics 2004.
Main Function of SCM (Part I)
Xilinx Confidential Oracle APS Mark Hopkins Manager, Operations Systems Xilinx, Inc.
PGDM/ / II Trimester/E-Business. What is supply chain management?  Supply chain management is the co- ordination of entities, activities, information.
READ ME FIRST Use this template to create your Partner datasheet for Azure Stack Foundation. The intent is that this document can be saved to PDF and provided.
Functional and Enterprise Systems
Supply Chain Management
Healthy planet = higher profits HP’s approach to sustainability
Preface The use of modern manufacturing practices (such as automation, computer control machines, robotics, JIT) can significantly change the structure.
Network Optimization Executive Seminar Track 1, Session A
CIM Modeling for E&U - (Short Version)
SEMI 300mm Equipment Standards Overview E39, E40, E84, E87, E90, E94, E116 Mike Baxter INTEL CONFIDENTIAL.
Greening Your Information Systems
IBM Tivoli Web Site Analyzer Training Document
UNIT –V SUPPLY CHAIN MANAGEMENT
Functional and Enterprise Systems
William Band, Vice President, Principal Analyst
Achieving Operational Excellence and Customer Intimacy:Enterprise Applications Chapter 9 (10E)
E2E Testing in Agile – A Necessary Evil
ITRS Factory Integation TWG
Maximize the value of your cloud
VENDORS, CONSULTANTS AND USERS
Why DevOps Success Depends on the Right Infrastructure.
Computer Integrated Manufacturing ( CIM). Chapter One 1.1 Introduction 1.2 Types of Manufacturing 1.3 CIM Hardware and CIM Software 1.4 Nature and Role.
Outline Sources and references Global Operations Management
Supply Chain Management (SCM) Basics
Fundamental Cornerstones of Managerial Accounting Chapter Six
Catalyst Pitchback Energy Efficiency as a Service
World-Views of Simulation
ITRS 2003 Factory Integration Chapter Backup Material
EUnomia Overview eUnomia Product Complete Overview.
Details and Assumptions for Technology Requirements
A Process View of the Supply Chain
Technical Capabilities
Purchasing and Supply Chain Management
Chapter 2: Operating-System Structures
Supply Chain Management: From Vision to Implementation
Pertemuan 20 Understanding e-SCM
ENTERPRISE MARKETING & CUSTOMER EXPERIENCE SOLUTIONS
Chapter 2: Operating-System Structures
Presentation transcript:

ITRS 2001 Factory Integration Chapter Model Information ITRS Factory Integation TWG 2019/4/23 ITRS 2001 Factory Integration Chapter Model Information 1. Fab Ramp Model 2. Fab Capital Cost Model 3. Yield and Profit Model 2019/4/23 ITRS Factory Integration TWG FITWG 2000

ITRS Factory Integation TWG 2019/4/23 Factory Integration Scope and Drivers UI Factory Operations Production Equipment Factory Information & Control Systems Facilities AMHS Si Substrate Mfg Wafer Mfg Chip Mfg Product Mfg Distribution Reticle Mfg FEOL BEOL Probe/Test Singulation Packaging Test Increasing cost & Cycle time implications The Factory continues to be driven by Cost, Productivity, and Speed -> Reduce factory capital and operating costs per function remain challenging and important as ASP’s decline and factory are not 100% loaded -> Customers continue to demand fast delivery of new and volume products. Competition dictates that we more quickly and pervasively qualify leading edge process technologies on new products -> We continue to see the need to heavily reuse facilities and equipment to maintain or reduce cost even as we change wafer sizes or add more advanced process technology capabilities Factory is driven by Cost, Productivity, and Speed: Reduce factory capital and operating costs per function Faster delivery of new and volume products to the end customer Efficient high volume production, high reliability, & high equipment reuse Enable rapid process technology shrinks and wafer size changes 2019/4/23 ITRS Factory Integration TWG FITWG 2000

Manufacturing Strategy Evolution ITRS Factory Integation TWG 2019/4/23 Manufacturing Strategy Evolution Throughput center-minded Speed and environment center-minded Specific Tech. Level TR (Eq., AMHS, FICS) Effort Effort Specific Tech. Potential Solution (Eq., AMHS, FICS) Factory Operation Requirement * Manufacturing strategy requires different perspectives to understand requirements, needs, and solutions depending upon which level of the manufacturing hierarchy you look at. * At the Enterprise level, the requirement is to deliver product to the customer from factories starting at design through delivery which is an end to end delivery concept. Cycle time means something very specific at this level and the systems to support it cast a wider net across the entire enterprise including mulitple factories, design and integration, etc. At the technology level, we are concerned with products and equipment at the factory floor which support the high level requirements of the enterprise and which enable the enterprise to deliver. So run rate of process equipment and delivery time of AMHS is important All of this must be integrated to ensure that the enterprise, factory, and equipment/product levels work together and efficiently Enterprise Level Requirement Current values Next generation Values Wider coverage needed FITWG 2000

ITRS Factory Integation TWG 2019/4/23 Search for New Metrics Carrier Delivery Time ECM Facility Technical Element Level Equipment Control AMHS T/F Design AMHS AMHS MTTR & MCBF SCM FICS Eq. Availability & Utilization Production Flexibility Eq. Process Speed X Factor Factory Operation Level NPW Activity NPW-Start Usage Development Speed NPW Control ES & H Productivity Lot Cycle Time For 2003, we have spent a considerable amount of time to understand which metrics are meaningful to suppliers, the Factory, and to the enterprise. We expect more emphasis in 2004 on the enterprise level of metrics and capabilities within the ITRS since the complexities of this level deal directly with the business and economics of semiconductor. Productivity and flexibility measure for high mix Production Methodology and Constraints Consumables and cost reduction Enterprise Level Line capability strategy Floor Space Effectiveness Energy saving Product Development FITWG 2000

Seek Higher Visibility ITRS Factory Integation TWG 2019/4/23 Seek Higher Visibility Newer Requirements (Difficult Challenges) More on Speed Agile manufacturing More on Environment Newer visualization scheme needed Example1: More of fab floor activity for better governance Example2: of B factor in y=Ax+B equation for B reduction Exmaple3: More of fab energy consumption for resource consumption reduction Need newer metrics and domain concept into production CIM frame work Visualization, Fab Transparency We are driving toward higher visability in the ITRS on cause and effect at the various Potential Implementation Solution (System and Contents) Accomodate various production methodology values in ITRS messages FITWG 2000

What Does a Leading Edge 300mm Fab Look Like Today? High product mix operations enabled using automation 100% AMHS Storage and Intrabay Transport Systems in place Aggressive focus on lot cycle time reduction Pervasive use of Standards for carriers, equipment interfaces, and software systems FOUP carrier tracking using ID tags at load ports Some Wafer Level Tracking & Recipe/Parameter Changes Very high use of APC and Yield systems Factory Scheduler And Material Control Data SPC R2R FDC Yield PCS EPT APC, Yield, and E-Manufacturing Capabilities (EEC) Recipes E-Diag Systems Scaled for > 30k wspm Equipment Control Systems Manufacturing Execution Systems Most equipment data feed through SECS/GEM communications All lots and wafers tracked and processed using the MES Equipment Performance Tracking (EPT) Data Partner, Customer Or Supplier Some use of E-Diagnostics

Some Projected Attributes of a 300mm < 45nm Fab Wafer Data Standard For Packaging Data standards and Systems for Rapid Mask Set Creation Very Fast Cycle time Fabs for Hot & Normal lots Equipment & Systems designed for High Mix operation 100% Direct Tool Delivery AMHS Aggressive NPW Reduction & Efficient Spares Mgmt Full Wafer Level Tracking & Recipe/Parameter Changes Systems Scaled for > 50k wspm Ubiquitous APC; Rapid Process Matching & New Product Qualification Manufacturing Execution Systems Equipment Engineering Capabilities Equipment Control Systems Equipment & Process Data SECS Control Line APC FDC SPC Recipes Factory Scheduler And Material Control Yield PCS E-Diag EPT Equipment Data Acquisition (EDA) Standards to get Rich Equipment Data Offline tools to test schedule rules and rapidly put in Mfg Partner, Customer Or Supplier Pervasive E-Diagnostics Standard, Detailed Equipment Performance Tracking (EPT) Data

Fab Ramp Model Assumptions Factory Size Metrics are driven by high-volume factories: 40K+ WSPM (or ~9.2K WSPW) that are either: (a) high-mix factories More than 5 large volume products, with no one product accounting for more than 50% of all wafers in the factory (b) low-mix factories Hot lots : < 2% of all lots for hi-vol/low-mix; and <10% for hi-vol/hi-mix Avg # of wafers per hot lot: 5-10 wafers Ramp rate Based on leading-edge IC makers first high-volume fab for a major technology node (example 180nm to 130nm) ~20K WSPM Alpha tools Beta tools PO for Production capacity 400 WSPM Slope ~ 4900wspm/qtr ~170 mm2 die 12 months 12 months 12 months 2019/4/23 ITRS Factory Integration TWG