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Connector Imperatives to Support Next Generation Electronic Equipment
Product ID : VSC-117-251
Published Date : Jan 2008

 

Overview:

Bishop and Associates has just released a new eight-chapter research report analyzing Connector Imperatives to Support Next Generation Electronic Equipment. This new report identifies emerging electrical, mechanical and economic attributes of connectors anticipated by the electronic system design community as well as provide examples of new products connector suppliers have released or are developing in order to address these emerging needs. The report is focused on three industry segments that are experiencing the most rapid and dramatic changes, and represent some of the most fertile markets for innovation in connector technology (Computers, Telecom and Automotive). Statistics are presented showing historical and forecast connector shipments for the years 2005, 2006, 2007 and 2011.

The key objectives of this new report are to identify specific attributes of electronic connectors as reported by the connector using community, and to compare them with new development work as well as recently released connectors from the connector manufacturing industry. Product extensions of existing features as well as new capabilities are reviewed.

Some Of The Issues Explored In This Report

Are connectors currently available on the market today capable of providing performance adequate to support systems for the foreseeable future?

What new connector attributes or features will be required that may not exist today?  When must these be in place?  Will customers be willing to pay for these features?

How has advanced transceiver chip technology enabled connectors to extend their design bandwidth?

What role will emerging industry standards organizations and special interest groups play in influencing connector design, development and implementation in the future? 

Which electronic products or market segments are driving the need for higher connector performance? Why?

What is the timetable required for new enhanced feature connectors to meet volume production requirements?

What are the U.S. domestic, European, and Asian connector market values today and forecasts for connectors in the computer, telecom and automotive markets?

Will new connector technologies being developed by small independent companies be able to influence system design using non-traditional interfaces or system packaging schemes?

What are the greatest connector challenges now being faced by next generation system design engineers?  What new products or technologies are connector users identifying as being critical to the successful development of their new systems?

What new interconnect technologies now in the concept or development stage; have the potential to change traditional connector paradigms?

Will contract manufacturers take over an increasing responsibility for actual system design? How will the use of EMS / ODMs in the manufacturing  design process influence the migration of new interconnect technology into new systems?  How will that change the OEM/connector vendor relationship?

Is the plated through hole in a PCB reaching a high-speed performance limit?  Will surface mounted connectors or some other technology become the high-speed PCB interface of choice?

How must power connectors evolve in order to address the growing thermal management issue? What new products have been introduced to address these needs?

Is the process by which new connectors are developed and introduced changing?  How, why?

How has the lead-free and other environmental initiatives influenced connector design, performance, and cost?

Will new materials and manufacturing processes developed from nanotechnology play a significant role in next generation connector designs?

How are connector manufacturers marketing their new interfaces given the movement of design engineering to offshore locations?  How is technical support being provided on a global 24/7 basis?

Is the connector-using community ready to make major paradigm shifts regarding interconnect technology and architecture?

Which connector suppliers are perceived as leading the industry in new interconnect technology?

How will connector companies protect their intellectual property as the manufacturing and design migration to offshore locations increases?

How are leading connector companies responding to customer demand for a viable second source on all critical interconnects?

How will the expansion of wireless technology influence the use of traditional copper connectors?

The first iteration of this report was published in March of 2005, and identified a series of anticipated industry interconnect needs to support the next generation of electronic equipment within the computer, telecom and automotive market segments.  In many cases, new connectors were either in development or recently introduced to address these needs.   Now, nearly three years later, many of the same requirements remain the primary focus of systems designers.  Targets in each metric have ratcheted up to support increased system performance. Continuing challenges in system bandwidth, signal density, and power management remain key concerns as all three spiral upwards, while pressures to reduce product cost and design cycle time make the selection of the most effective connector system a critical step early in design process.  The results of extensive interviews with connector manufacturers and users in preparation for this report revealed that many of these key metrics have remained the same.  Only the performance targets in terms of signal integrity, contacts per PCB inch, and amps per cubic inch continue to rise.  Many of the recently introduced connectors outlined in this report reflect the recognition of these trends.

Although the electronic equipment market is perceived as a dynamic rapidly evolving segment, the desire to remain within an established comfort zone and minimize risk continues to have a powerful influence on the adoption rate of new component technology.  Both connector manufacturers, as well as users, are trying to establish a fine balance between pushing the envelope to achieve their next generation equipment performance goals and cost constraints created by a highly competitive market.  Several comments received during the research phase suggest that system design is now often being done by low margin ODMs who are focused on reducing risk, and that many OEMs no longer have the internal resources to even evaluate new technology.   A host of new connectors have been introduced over the past three years that reflect this carefully measured pace of advancement. 

Some old things are new again.  The need to understand the basics of contact physics continues to be an issue as senior designers who have personally experienced the negative effects of such interconnect phenomenon as fretting corrosion, the formation of inter-metallic layers between dissimilar contact materials, and tin whiskers continue to retire or are laid off in downsizings.  Although system problems due to the failure of a connector continue to be a relatively rare occurrence, product failures attributed to the interconnect are being revisited among the crop of new engineers who have little training or experience in connection technology.  The replacement of gold with alternative non-noble plating, elimination of the nickel underplating, and the selection of an inappropriate contact design for the application were reported and illustrate the potential for failure.

Significant concern was expressed about a potential decline in system reliability as product manufacturing and more recently product design migrates to offshore locations. The impact of improper design and selection of inappropriate materials driven more by cost reduction, introduces an entirely new level of concern in insuring product reliability.  More than one interviewee indicated that their company has either re-evaluated their design and manufacturing verification process, or actually brought their product manufacturing back to the U.S.

New products are reaching the market at an accelerating rate.  Hand held consumer products that offer communications, entertainment and Internet access illustrate the faster, smaller, and cheaper trend.  Advanced applications in such diverse markets as industrial control, medical imaging, and security, which utilize Internet access, continue to drive the need to upgrade the infrastructure of the network.  The electronic content of automobiles is exploding, as drivers demand their car become an extension of the communication, computing and entertainment features available in their home.  Additional navigational, diagnostic and safety equipment together with electronic management of every major component within the car further extend electronic content.

This relentless pace of new product introduction guarantees that the pressure to develop advanced interconnection systems will continue.  Existing connector families will be fine tuned to address higher speed circuits, while entirely new interconnects will be introduced that address greater packaging flexibility and current density.


Table Of Contents :

Chapter 1 - Report Scope And Methodology

Methodology and Approach
Data Collection Forms:
Connector Imperatives to support Next Generation Electronic Equipment
Connector User
Connector Imperatives to support Next Generation Electronic Equipment
Connector Manufacturer

Chapter 2 - Introduction

Chapter 3 - Current Connector Technology

Universal Attributes of Future Connectors
Lead-Free Electronic Assemblies
Complete Families of Connectors
Multiple Sourced Connectors
High-Speed Performance Headroom
Accurate Performance Data and Models
Renewed Interest In The Use Of Alternative Card Architecture Including Mezzanine
And Midplane Configurations.

Chapter 4 - Connector Attributes, Computer, Telecom Markets

Computer / Telecom Industry
Connector Attribute:  Increased Signal Density
Connector Industry Response
Increased Signal Density
Computer / Telecom Industry
Connector Attribute:  Increased High-Speed Performance
Connector Industry Response
Increased High-Speed Performance
Computer / Telecom Industry
Connector Attribute:  Improved Power Connectors
Connector Industry Response
Improved Power Connectors
Computer / Telecom Industry
Connector Attribute:  Increased Connector Robustness
Connector Industry Response
Increased Connector Robustness
Computer / Telecom Industry
Connector Attribute:  Standards Driven Interfaces
Connector Industry Response
Standards Driven Interfaces
Computer / Telecom Industry
Connector Attribute:  Connectors Optimized for Orthogonal Midplanes
Connector Industry Response
Connectors Optimized for Orthogonal Midplanes
Computer / Telecom Industry
Connector Attribute:  Improved Differential Skew Control
Connector Industry Response
Improved Differential Skew Control
Computer / Telecom Industry
Connector Attribute:  High performance / Density Fiber Optic Connectors
Connector Industry Response
High performance / Density Fiber Optic Connectors
Computer / Telecom Industry
Connector Attribute:  Increasing Use of Flex Interconnects
Connector Industry Response
Increasing Use of Flex Interconnects

Chapter 5 - Connector Attributes, Automotive

Automotive Market
Automotive Industry
Connector Attribute:  Compliant Pin, Surface Mount and Compressive PCB Termination
Connector Industry Response
Compliant Pin, Surface Mount and Compressive PCB Termination
Automotive Industry
Connector Attribute:  Lower Mating Force Connectors
Connector Industry Response
Lower Mating Force Connectors
Automotive Industry
Connector Attribute:  Greater Variety Of Consumer Accessible Interfaces
Connector Industry Response
Greater Variety Of Consumer Accessible Interfaces
Automotive Industry
Connector Attribute:  Low Cost Filtered Connectors
Connector Industry Response
|Low Cost Filtered Connectors|
Automotive Industry
Connector Attribute:  “Integrated Connectors”
Connector Industry Response
“Integrated Connectors”
Automotive Industry
Connector Attribute:  Increased use of Shielded and Coaxial Connectors
Connector Industry Response
Increased use of Shielded and Coaxial Connectors
Automotive Industry
Connector Attribute:  Fiber Optic Connectors
Connector Industry Response
Fiber Optic Connectors
Automotive Industry
Connector Attribute:  Standards Driven Interfaces
Connector Industry Response
Standards Driven Interfaces
Automotive Industry
Connector Attribute:  Hybrid Connectors
Industry Response
Hybrid Connectors

Chapter 6 - Additional Issues

Protection Of Intellectual Property In The Global Marketplace
Impact of Wireless Technology on Copper Interfaces
Differential Impedance Changing From 100 to 85 ohms
Global Migration of System Design
Nanotechnology in Connector Fabrication
Connectors With Integrated ESD Protection
Non-Traditional Interfaces
Connections to Non-Conventional Materials

Chapter 7 - Connector Market Values

World Computer / Peripheral Connector Market By Geographic Region
World Telecom / Datacom Connector Market By Geographic Region
World Automotive Connector Market By Geographic Region
Market Forecast by Region of the World
Computer / Peripheral Connector Market Forecast
Computer / Peripheral Connector Market Share by Region - 2006
Computer / Peripheral Connector Market Share by Region - 2011
Telecom / Datacom Connector Market Forecast
Telecom / Datacom Connector Market Share by Region - 2006
Telecom / Datacom Connector Market Share by Region - 2011
Automotive Connector Market Forecast
Automotive Connector Market Share by Region - 2006
Automotive Connector Market Share by Region - 2011

Chapter 8 - Major Findings And Conclusions

Computer and Telecom Markets
Key ConsiderationsCost Drivers
Compressive Connectors
Resistance to Change
Gb/s Performance
Surface Mount
Scalability
Performance Headroom
Orthogonal Midplane Connectors
Industry Standards
Technical Support
Wireless Technology
Connector Content Value
Offshore Migration
Connector Technical Support
IP Protection
Mezzanine Connectors
Connector Support Tools
Performance Comparison
High-Speed Channel Metrics
85-Ohm Differential Impedance
Increased Pin Density
Automotive Market
Key Consideration
Expanding Electronic Applications
EMI/ESD Connectors
Compliant Pin & Surface Mount Termination
Optic Connectors
Second Source
Consumer Interfaces
Connector Integration
General Observations
Environmental Standards
Industry Standards
Flex Circuitry
Nano Technology
Second Source Imperative
Emerging Markets
Incremental Advances
Continuing Trends

Appendix - Connector Definitions, Acronyms And Technologies

Ambient Temperature
Ampere
Anti-pad
ATCA
Attenuation
Bandwidth
BGA
Bit Error Rate
Blindmate Connector
BOM
Breakdown Voltage
Broadside Coupled
Bulk Resistance
Capacitance
Characteristic Impedance
Clearance Distance
Conductivity
Constriction Resistance
Contact Resistance
COTS
Creepage Distance
Crosstalk
Current
Current Rating
DC
D-to-D Converter
De-emphasis
Derating
Dielectric
Dielectric Constant
Distributed Power Architecture
Differential Signaling
Dry Circuit Resistance
Edge Coupled
EMC
EMI
EMS
EYE Patterns
GBIC
Heat Sink
Hot Swap
Inductance
Insertion Loss
Intersymbol Interference
I/O
Jitter
Joule
LAN
LGA
Loss Tangent
MEMS
Microstrip
MSA
N+1 Redundancy
Normal Force
ODM
OEM
Ohm
Ohm’s law
Operating Temperature
Parallel Signaling
PCB
Power
Propagation Delay
PTH
PICMG
PMC
Reflections
Resistance
Risetime
RoHS
S Parameter
SERDES
Serial Signaling
SFP
SIG
Signal Integrity
Single Ended Signaling
Skew
Skin Effect
Smith Chart
SPICE
Stripline
Supertemperature
Surge / inrush current
TDR
Telematics
Thermal Runaway
Transmission Line
VME
VoIP
Volt (V)
Watt
WiMax


Publisher : Bishop & Associates