Ȩ Ä«Å×°í¸® ¸ÂÃãÇü½ÃÀåÁ¶»ç ±¹Á¦ÄÁÆÛ·±½º ±Û·Î¹ú ÆÄÆ®³Ê ¸ÞÀϸµ ¼­ºñ½º ȸ»ç¼Ò°³È¸»ç¼Ò°³ Contact Us
English Japaness Chinese
Home > ½ÃÀ庸°í¼­ > ÀüÀÚºÎǰ/¹ÝµµÃ¼ > Ä¿³ØÅÍ > Connector Standards in the Computer and Telecom Industries
Ä«Å×°í¸®
ÀüÀÚºÎǰ/¹ÝµµÃ¼ (1999)
µð½ºÇ÷¹ÀÌ (217)
¸â½º(MEMS) (100)
¹ÝµµÃ¼ Àç·á (76)
¹ÝµµÃ¼ Á¦Á¶Àåºñ (463)
¼¾¼­ (196)
ÀμâÀüÀÚ (122)
Á¶¸í/LED (189)
Ä¿³ØÅÍ (57)
ÆÄ¿öµð¹ÙÀ̽º (109)
½ÃÀ庸°í¼­

Connector Standards in the Computer and Telecom Industries

¸®¼­Ä¡»ç Bishop & Associates, Inc.
¹ßÇàÀÏ 2008³â 09¿ù »óǰÄÚµå 74338
ÆäÀÌÁö Á¤º¸ 150 PAGES
°¡°Ý
US $ 3,950 £Ü 4,706,400 Hard Copy
US $ 4,345 £Ü 5,177,000 Hard Copy + 1 Additional Print Copy
US $ 5,135 £Ü 6,118,300 PDF on CD-ROM (Multi-User Corporate License) & Hard Copy


¿µ¹®¸ñÂ÷

Abstract

Bishop and Associates has just released a new eleven-chapter research report analyzing Connector Standards in the Computer and Telecom Industries. This report provides an analysis of major standards development organizations and a select group of connector standards that impact the computing and telecommunications markets. While standardization of individual connectors is a continuing process, the inclusion of connectors in standards of much broader scope, such as VITA), and IEEE is becoming increasingly important.

Standards have played a long and important role in the development of the electronic industry. The creation of standards that address everything from safety issues to intermateability of related equipment have enabled the industry to offer reliable, equipment with assured compatibility produced by a global array of suppliers. The establishment of standardized equipment platforms has allowed the introduction of reference designs that can greatly accelerate the new product development process.

Connectors that conform to a particular standard assure the designer and user of intermateability, a key requirement in an industry that produces a wide variety of interconnected equipment. Many standards address both electrical and mechanical compatibility to a specified limit, at the system level.

Formal organizations such as IEEE (Institute of Electrical and Electronic Engineers) and VITA (formerly VME International Trade Association) have a long-established record of creating industry standards that have shaped the emerging market. More recently, special interest groups (SIGs) and other industry consortia have become particularly effective in promoting system architectures, which include the interconnects. Organizations such as PCI Industrial Computer Manufacturers Group (PICMG) focus on a particular class of product. PICMG is an example of a particularly effective consortium of more than 450 companies that collaboratively develop specifications that adapt PCI protocol to emerging market requirements.

From the original equipment manufacturers' (OEM) perspective, designing a new product around an established specification assures system compatibility and a potentially reduced design cycle. Standards groups often sponsor "plugfests" where equipment manufacturers can verify compliance to the specification. Components defined in the specification, including connectors, are often tooled by a wide variety of manufacturers, which assures multiple sources and competitive prices. Designing a system around a standard platform also has its drawbacks. In some cases, the standards development process has taken years to finalize. By the time the standard is released, the technology may have become obsolete making the manufacturer vulnerable to more advanced systems. Adopting an architecture based on a standard also opens the potential for the development of an aftermarket that offers compatible components such as daughtercards. The OEM may lose control of this valuable long-term source of revenue.

Connector manufacturers that choose to tool an industry-standard connector can anticipate the rapid development of a large potential market. The costly decision to tool a new connector is tempered by this confidence. The downside is that a widely adopted standard quickly attracts a host of low-cost manufacturers that are not burdened with the development costs of the interface. Many standards organizations require that the originator of a proposed connector license the ability to tool the product at a reasonable and non-discriminatory (RAND) fee. Potentially valuable intellectual property is made available to any competitor in the market. A standard connector can quickly evolve to commodity product pricing, which reduces the profit margin. Connectors that are designed around an industry standard are typically tooled for high volume and produced in low-cost-of-labor regions of the world. Additionally, there is risk associated with being on the front end of a new standardized interface. If the final standard is not widely accepted in the industry, the specified interface may quickly become obsolete. Sockets that were developed to accept bubble memory devices proved to be a loss to manufacturers that chose to develop and tool this unique interface.

Design of equipment utilizing industry standards continues to grow as price and time-to-market pressures demand a more-efficient design process and the use of cost-effective components.

There are a large number of organizations that are currently active in introducing standards that include connectors. Beyond the formal organizations such as IEEE, and VITA, consortiums and special interest groups are generating new standards at a rapid pace. Recognizing the size of this expanding universe of standards, this report will focus on a select group of key organizations and standards as examples of the influence they are having on the electronic connector market. Prior to that discussion, however, several basic issues of standardization and the standardization process will be reviewed.

Table of Contents

Chapter 1 - Overview

  • Report outline and objectives

Chapter 2 - The What and Why of Standards

  • Introduction
  • What is a Standard?
  • Why Standards are Important

Chapter 3 - History of Standardization

  • The Origins of Standardization
  • Industrial Standardization
  • The Origins of Industrial Standardization
  • Contemporary Standardization

Chapter 4 - Standards Organizations

  • Introduction
  • International Standards Organizations, IEC and ISO
  • IEC Standards Development Process
  • National Standards Organizations
  • National / Industry Standards Organizations
  • EIA
  • IEEE
  • Industry Standards Organizations II
  • OEM and Supplier Standards

Chapter 5 - Computer Architectures

  • VITA and VMEbus
  • VME 32/64 (ANSI / Vita 1.0)
  • VME 64X (ANSI / Vita 1.1)
  • VXS (ANSI / VITA 41)
  • VPX (ANSI / VITA 46)
  • Peripheral Component Interconnect (PCI)
  • PCI-X
  • PCI Express (PCIe)
  • PICMG - 1.0 (PCI/ISA)
  • PICMG - 1.3 (SHB Express)
  • PICMG - 2.0 (Compact PCI)
  • PICMG - 3.0 (Advanced Telecom Computing Architecture, ATCA)
  • PICMG - AMC.0 (Advanced Mezzanine Card)
  • PICMG - EXP.0 (Compact PCI Express)
  • PICMG - (Micro Telecom Computing Architecture, MTCA)
  • PC/104

Chapter 6 - VMEbus and VITA Standards

  • History of VITA
  • VITA Standards
  • VME-32
  • ANSI / VITA 1, VME 64
  • ANSI / VITA 1.1, VME 64 Extensions
  • ANSI / VITA 31.1, Gigabit Ethernet on VME 64X Backplanes
  • ANSI / VITA 41, VXS - VMEbus Switched Serial Standard
  • ANSI / VITA 42, XMC
  • ANSI / VITA 46, VPX
  • Comparison of VME, 1, 1.1, VXS, VPX Applications and Markets
  • VITA Connectors
  • VME 32 / 64
  • ANSI / VITA VME 64 Extensions
  • ANSI / VITA 31.1 Gigabit Ethernet
  • ANSI / VITA 41 VXS, VMEbus Switched Serial Standard
  • ANSI / VITA 42, XMC
  • ANSI VITA 46, VPX
  • VITA Guidance Documents

Chapter 7 - Peripheral Component Interconnect (PCI) Standards

  • History of PCI
  • PCI - Special Interest Group (PCI-SIG)
  • PCI-SIG Specifications
  • PCI V1.0, 2.0, 2.1
  • PCI V2.3, 3.0
  • PCI-X, 1.0, 2.0
  • PCIe 1.0a, PCIe 2.0
  • PCI / PCI-X Connectors
  • PCI Power Connectors

Chapter 8 - PCI Industrial Computer Manufacturers Group (PCIMG)

  • PICMG 1.0
  • PICMG 1.3 SHB Express
  • PICMG 2.0 CPCI
  • PICMG 2.2, VME-64m 2.11 Power Interfaces
  • PICMG 2.16 - Packet Switching Base / 2.50 Compact TCA
  • PICMG 3.0, ATCA
  • PICMG, AMC
  • PICMG, EXP
  • PICMG, COM.
  • PICMG, MTCA
  • ATCA and MTCA Applications
  • PICMG Connectors
  • PICMG 1.0 PCI / ISA, SHB Express
  • PICMG 2.0 CompacPCI
  • PICMG 2.2 / VME 64, PICMG 2.11 Power Interface
  • PICMG 2.16, 2.50, 3
  • PICMG AMC
  • PICMG EXP
  • PICMG COM
  • PICMG MTCA

Chapter 9 - PC/104 and SFF-SIG

  • PC/104 History
  • PC/104 Specifications
  • PCI/104 Express and PCIe/104
  • EPIC / EBX
  • EPIC
  • EBX
  • EPIC Express
  • PC/104 Form Factors
  • PC/104 Connectors
  • PC/104-Plus
  • PC/104 - Express and PCIe/104
  • SFF-SIG History
  • SUMIT
  • Express 104
  • Comparison of PC104 and SFF-SIG Specifications

Chapter 10 - Standards and Intellectual Property

  • Introduction
  • Ex ante in the Standards Development Process
  • Standards Organizations and Intellectual Property Policies
  • International Standards Organizations
  • National Standards Organizations
  • Industry Standards Organizations
  • IEEE
  • VITA
  • Ex ante and Patent Policy
  • IEEE, VITA and the Department of Justice Business Review Letters

Chapter 11 - Major Findings and Conclusions

Back to Top