工厂物理学:制造企业管理基础

工厂物理学:制造企业管理基础
作 者: 美Wallace Hopp 美Mark Spearman
出版社: 清华大学出版社
丛编项: 国外大学优秀教材工业工程系列
版权说明: 本书为出版图书,暂不支持在线阅读,请支持正版图书
标 签: 企业管理
ISBN 出版时间 包装 开本 页数 字数
未知 暂无 暂无 未知 0 暂无

作者简介

暂缺《工厂物理学:制造企业管理基础》作者简介

内容简介

该书的作者是美国西北大学的Wallace J.Hopp教授和佐治亚理工学院的Mark L.Spearman教授,是生产运作管理领域的知名学者,他们运用自己深厚的物理学中方法论的背景,在多年实践经验和理论研究的基础上,深刻分析与阐述了作业管理中的内在规律,以独特的视角与思维方式对发生在制造企业中的现象和本质进行了透彻的分析和系统的总结,以类似于物理学中定律定理的方式给出了准确的定性描述或定量计算公式。书中不仅对生产管理的发展历史和现状、取得的成就和问题等进行了精辟的总结和分析,而且紧密跟踪当前最先进的方法和技术,并预测了今后的发展趋势。该书不同于一般的教科书,一方面涉猎范围极宽,广泛介绍了生产领域的概念、方法、技术及实践效果;另一方面对重点问题进行了极为深入细致的研究,探究了事物的本质,提出了独到的见解。该书的起点较高,适合作为“生产系统”和“运作管理”方面的研究生课程的主教材。对本科生教学,可以作为“生产运作管理”、“生产计划与控制”、“设施规划与物流分析”、“质量管理”等课程的主要参考书。

图书目录

0 Factory Physics?

0.1 The Short Answer

0.2 The Long Answer

0.2.1 Focus:Manufacturing Management

0.2.2 Scope:Operations

0.2.3 Method:Factory Physics

0.2.4 Perspective:Flow Lines

0.3 An Overview of the Book

PART I THE LESSONS OF HISTORY

1 Manufacturing in America

1.1 Introduction

1.2 The American Experience

1.3 The First Industrial Revolution

1.3.1 The Industrial Revolution in America

1.3.2 The American System of Manufacturing

1.4 The Second Industrial Revolution

1.4.1 The Role of the Railroads

1.4.2 Mass Retailers

1.4.3 Andrew Carnegie and Scale

1.4.4 Henry Ford and Speed

1.5 Scientific Management

1.5.1 Frederick W.Taylor

1.5.2 Planning versus Doing

1.5.3 Other Pioneers of Scientific Management

1.5.4 The Science of Scientific Management

1.6 The Rise of the Modern Manufacturing Organization

1.6.1 Du Pont,Sloan,and Structure

1.6.2 Hawthorne and the Human Element

1.6.3 Management Education

1.7 Peak,Decline,and Resurgence of American Manufacturing

1.7.1 The Golden Era

1.7.2 Accountants Count and Salesment Sell

1.7.3 The Professional Manager

1.7.4 Recovery and Globalization of Manufacturing

1.8 The Future

Discussion Points

Study questions

2 Inventory Control:From EOQ to ROP

2.1 Introduction

2.2 The Economic Order Quantity Model

2.2.1 Motivation

2.2.2 The Model

2.2.3 The Key Insight of EOQ

2.2.4 Sensitivity

2.2.5 EOQ Extensions

2.3 Dynamic Lot Sizing

2.3.1 Motivation

2.3.2 Problem Formulation

2.3.3 The Wagner-Whitin Procedure

2.3.4 Interpreting the Solution

2.3.5 Caveats

2.4 Statistical Inventory Models

2.4.1 The News Vendor Model

2.4.2 The Base Stock Model

2.4.3 The Model

2.5 Conclusions

Appendix 2A Basic Probability

Appendix 2B Inventory Formulas

Study Questions

Problems

3 The MRP Crusade

3.1 Material Requirements Planning-MRP

3.1.1 The Key Insight of MRP

3.1.2 Overview of MRP

3.1.3 MRP Inputs and Outputs

3.1.4 The MRP Procedure

3.1.5 Special Topics in MRP

3.1.6 Lot Sizing in MRP

3.1.7 Safety Stock and Safety Lead Times

3.1.8 Accommodating Yield Losses

3.1.9 Problems in MRP

3.2 Manufacturing Resources Planning-MRP II

3.2.1 The MRP II Hierarchy

3.2.2 Long-Range Planning

3.2.3 Intermediate Planning

3.2.4 Short-Term Control

3.3 Beyond MRP II-Enterprise Resources Planning

3.3.1 History and Success of ERP

3.3.2 An Example:SAP R/3

3.3.3 Manufacturing Execution Systems

3.3.4 Advanced Planning Systems

3.4 Conclusions

Study Questions

Problems

4 The JIT Revolution

4.1 The Origins of JIT

4.2 JIT Goals

4.3 The Environment as a Control

4.4 Implementing JIT

4.4.1 Production Smoothing

4.4.2 Capacity Buffers

4.4.3 Setup Reduction

4.4.4 Cross-Training and Plant Layout

4.4.5 Total Quality Management

4.5 Kanban

4.6 The Lessons of JIT

Discussion Point

Study Questions

5 What Went Wrong

5.1 Introduction

5.2 Trouble with Scientific Management

5.3 Trouble with MRP

5.4 Trouble with JIT

5.5 Where from Here?

Discussion Points

Study Questions

PART II FACTORY PHYSICS

6 A Science of Manufacturing

6.1 The Seeds of Science

6.1.1 Why Science?

6.1.2 Defining a Manufacturing System

6.1.3 Prescriptive and Descriptive Models

6.2 Objectives,Measures,and Controls

6.2.1 The Systems Approach

6.2.2 The Fundamental Objective

6.2.3 Hierarchical Objectives

6.2.4 Control and Information Systems

6.3 Models and Performance Measures

6.3.1 The Danger of Simple Models

6.3.2 Building Better Prescriptive Models

6.3.3 Accounting Models

6.3.4 Tactical and Strategic Modeling

6.3.5 Considering

6.4 Conclusions

Appendix 6A Activity-Based Costing

Study Questions

Problems

7 Basic Factory Dynamics

7.1 Introduction

7.2 Definitions and Parameters

7.2.1 Definitions

7.2.2 Parameters

7.2.3 Examples

7.3 Simple Relationships

7.3.1 Best-Case Performance

7.3.2 Worst-Case Performance

7.3.3 Practical Worst-Case Performance

7.3.4 Bottleneck Pates and Cycle Time

7.3.5 Internal Benchmarking

7.4 Labor-Constrained Systems

7.4.1 Ample Capacity Case

7.4.2 Ful Flexibility Case

7.4.3 CONWIP Lines with Flexible Labor

7.5 Conclusions

Study Questions

Problems

Intuition-Building Exercises

8 Variabiity Basics

8.1 Introduction

8.2 Variability and Randomness

8.2.1 The Roots of Randomness

8.2.2 Probabilistic Intuition

8.3 Process Time Variability

8.3.1 Measures and Classes of Varibability

8.3.2 Low and Moderate Variability

8.3.3 Highly Variable Process Times

8.4 Causes of Variability

8.4.1 Natural Variability

8.4.2 Variability from Preemptive Outages(Breakdowns)

8.4.3 Variability from Nonpreemptive Outages

8.4.4 Variability from Recycle

8.4.5 Summary of Variability Formulas

8.5 Flow Variability

8.5.1 Characterizing Variability in Flows

8.5.2 Batch Arrivals and Departures

8.6 Variability Interactions-Queueing

8.6.1 Queueing Notation and Measures

8.6.2 Fundamental Relations

8.6.3 The M/M/1 Queue

8.6.4 Performance Measures

8.6.5 Systems with General Process and Interarrival Times

8.6.6 Parallel Machines

8.6.7 Parallel Machines and General Times

8.7 Effects of Blocking

8.7.1 The M/M/1/b Queue

8.7.2 General Blocking Models

8.8 Variability Pooling

8.8.1 Batch Processing

8.8.2 Safety Stock Aggregation

8.8.3 Queue Sharing

8.9 Conclusions

Study Questions

Problems

9 The Corrupting Influence of Variability

9.1 Introduction

9.1.1 Can Variability Be Good?

9.1.2 Examples of Good and Bad Variability

9.2 Performance and Variability

9.2.1 Measures of Manufacturing Performance

9.2.2 Variability Laws

9.2.3 Buffering Examples

9.2.4 Pay Me Now or Pay Me Later

9.2.5 Flexibility

9.2.6 Organizational Learning

9.3 Flow Laws

9.3.1 Product Flows

9.3.2 Capacity

9.3.3 Utilization

9.3.4 Variability and Flow

9.4 Batching Laws

9.4.1 Types of Batches

9.4.2 Process Batching

9.4.3 Move Batching

9.5 Cycle Time

9.5.1 Cycle Time at a Single Station

9.5.2 Assembly Operations

9.5.3 Line Cycle Time

9.5.4 Cycle Time,Lead Time,and Service

9.6 Diagnostics and Improvement

9.6.1 Increasing Throughput

9.6.2 Reducing Cycle Time

9.6.3 Improving Customer Service

9.7 Conclusions

Study Questions

Intuition-Building Exercises

Problems

10 Push and Pull Production Systems

10.1 Introduction

10.2 Definitions

10.2.1 The Key Difference between Push and Pull

10.2.2 The Push-Pull Interface

10.3 The Magic of Pull

10.3.1 Reducing Manufacturing Costs

10.3.2 Reducing Variability

10.3.3 Improving Quality

10.3.4 Maintaining Flexibility

10.3.5 Facilitating Work Ahead

10.4 CONWIP

10.4.1 Basic Mechanics

10.4.2 Mean-Value Analysis Model

10.5 Comparisons of CONWIP with MRP

10.5.1 Observability

10.5.2 Efficiency

10.5.3 Variability

10.5.4 Robustness

10.6 Comparisons of CONWIP with Kanban

10.6.1 Card Count Issues

10.6.2 Product Mix Issues

10.6.3 People Issues

10.7 Conclusions

Study Question

Problems

11 The Human Element in Operations Management

11.1 Introduction

11.2 Basic Human Laws

11.2.1 The Foundation of Self-interest

11.2.2 The Fact of Diversity

11.2.3 The Power of Zealotry

11.2.4 The Reality of Burnout

11.3 Planning versus Motivating

11.4 Responsibility and Authority

11.5 Summary

Discussion Points

Study Questions

12 Total Quality Manufacturing

12.1 Introduction

12.1.1 The Decade of Quality

12.1.2 A quality anecdote

12.1.3 The Status of Quality

12.2 Views of Quality

12.2.1 General Definitions

12.2.2 Internal versus External Quality

12.3 Statistical Quality Control

12.3.1 SQC Approaches

12.3.2 Statistical Process Control

12.3.3 SPC Extensions

12.4 Quality and Operations

12.4.1 Quality Supports Operations

12.4.2 Operations Supports Quality

12.5 Quality and the Supply Chain

12.5.1 A Safety Lead Time Example

12.5.2 Purchased Parts in an Assembly System

12.5.3 Vendor Selection and Management

12.6 Conclusions

Study Questions

Problems

PART III PRINCIPLES IN PRACTICE

13 A Pull Planning Framework

13.1 Introduction

13.2 Disaggregation

13.2.1 Time Scales in Production Planning

13.2.2 Other dimensions of Disaggregation

13.2.3 Coordination

13.3 Forecasting

13.3.1 Causal Forecasting

13.3.2 Time Series Forecasting

13.3.3 The Art of Forecasting

13.4 Planning for Pull

13.5 Hierarchical Production Planning

13.5.1 Capacity/Facility Planning

13.5.2 Workforce Planning

13.5.3 Aggregate Planning

13.5.4 WIP and Quota Setting

13.5.5 Demand Management

13.5.6 Sequencing and Scheduling

13.5.7 Shop Floor Control

13.5.8 Real-Time Simulation

13.5.9 Production Traching

13.6 Conclusions

Appendix 13A A Quota-Setting Model

Study Questions

Problems

14 Shop Floor Control

14.1 Introduction

14.2 General Considerations

14.2.1 Gross Capacity Control

14.2.2 Bottleneck Planning

14.2.3 Span of Control

14.3 CONWIP Configurations

14.3.1 Basic CONWIP

14.3.2 Tandem CONWIP Lines

14.3.3 Shared Resources

14.3.4 Multiple-Product Families

14.3.5 CONWIP Assembly Lines

14.4 Other Pull Mechanisms

14.4.1 Kanban

14.4.2 Pull-from-the-Bottleneck Methods

14.4.3 Shop Floor Control and Scheduling

14.5 Production Tracking

14.5.1 Statistical Throughput Control

14.5.2 Long-Range Capacity Tracking

14.6 Conclusions

Appendix 14A Statistical Throughput Control

Study Questions

Problems

15 Production Scheduling

15.1 Goals of Production Scheduling

15.1.1 Meeting Due Dates

15.1.2 Maximizing Utilization

15.1.3 Reducing WIP and Cycle Times

15.2 Review of Scheduling Research

15.2.1 MRP,MRP II,and ERP

15.2.2 Classic Scheduling

15.2.3 Dispatching

15.2.4 Why Scheduling Is Hard

15.2.5 Good News and Bad News

15.2.6 Practical Finite-Capacity Scheduling

15.3 Linking Planning and Scheduling

15.3.1 Optimal Batching

15.3.2 Due Date Quoting

15.4 Bottleneck Scheduling

15.4.1 CONWIP Lines Without Setups

15.4.2 Single CONWIP Lines with Setups

15.4.3 Bottleneck Scheduling Results

15.5 Diagnostic Scheduling

15.5.1 Types of Schedule Infeasibility

15.5.2 Capacitated Material Requirements Planning-MRP-C

15.5.3 Extending MRP-C to More General Environments

15.5.4 Practical Issues

15.6 Production Scheduling in a Pull Environment

15.6.1 Schedule Planning,Pull Execution

15.6.2 Using CONWIP with MRP

15.7 Conclusions

Study Questions

Problems

16 Aggregate and Workforce Planning

16.1 Introduction

16.2 Basic Aggregate Planning

16.2.1 A Simple Model

16.2.2 An LP Example

16.3 Product Mix Planning

16.3.1 Basic Model

16.3.2 A simple Example

16.3.3 Extensions to the Basic Model

16.4 Workforce Planning

16.4.1 An LP Model

16.4.2 A Combined AP/WP Example

16.4.3 Modeling Insights

16.5 Conclusions

Appendix 16A Linear Programming

Study Questions

Problems

17 Supply Chain Management

17.1 Introduction

17.2 Reasons for Holding Inventory

17.2.1 Raw Materials

17.2.2 Work in Process

17.2.3 Finished Goods Inventory

17.2.4 Spare Parts

17.3 Managing Raw Materials

17.3.1 Visibility Improvements

17.3.2 ABC Classification

17.3.3 Just-in-Time

17.3.4 Setting Safety Stock/Lead Times for Purchased Components

17.3.5 Setting Order Frequencies for Purchased Components

17.4 Managing WIP

17.4.1 Reducing Queueing

17.4.2 Reducing Wait-for-Batch WIP

17.4.3 Reducing Wait-to-Match WIP

17.5 Managing FGI

17.6 Managing Spare Parts

17.6.1 Stratifying Demand

17.6.2 Stocking Spare Parts for Emergency Repairs

17.7 Multiechelon Supply Chains

17.7.1 System Configurations

17.7.2 Performance Measures

17.7.3 The Bullwhip Effect

17.7.4 An Approximation for a Two-Level System

17.8 Conclusions

Discussion Point

Study Questions

Problems

18 Capacity Management

18.1 The Capacity-Setting Problem

18.1.1 Short-Term and Long-Term Capacity Setting

18.1.2 Strategic Capacity Planning

18.1.3 Traditional and Modern Views of Capacity Management

18.2 Modeling and Analysis

18.2.1 Example:A Minimum Cost,Capacity-Feasible Line

18.2.2 Forcing Cycle Time Compliance

18.3 Modifying Existing Production Lines

18.4 Designing New Production Lines

18.4.1 The Traditioinal Approach

18.4.2 A Factory Physics Approach

18.4.3 Other Facility Design Considerations

18.5 Capacity Allocation and Line Balancing

18.5.1 Paced Assembly Lines

18.5.2 Unbalancing Flow Lines

18.6 Conclusions

Appendix 18A The Line-of-Balance Problem

Study Questions

Problems

19 Synthesis-Pulling It All Together

19.1 The Strategic Importance of Details

19.2 The Practical Matter of Implementation

19.2.1 A Systems Perspective

19.2.2 Initiating Change

19.3 Focusing Teamwork

19.3.1 Pareto's Law

19.3.2 Factory Physics Laws

19.4 A Factory Physics Parable

19.4.1 Hitting the Trail

19.4.2 The Challenge

19.4.3 The Lay of the Land

19.4.4 Teamwork to the Rescue

19.4.5 How the Plant Was Won

19.4.6 Epilogue

19.5 The Future

References

Index