Friday, January 29, 2016

Structural Electronics - A Business of Tens of Billions of Dollars Within the Coming Decade

Structural electronics  is one of the most important developments this century yet most people have never heard of it. Strange – there are over 37 million items on Google. Two years ago, IEEE published,”3D Printing for Rapid Prototyping of Structural Electronics”. Drayson revealed the “structural battery” in the aerofoil of its pure electric racing car. Tesla amazed us with an empty engine compartment and trunk in its pure electric car – the power train was entirely fitted into the sides and floor.


Fitting things into spare spaces, though it attracts the name, is really only a precursor of structural electronics. As covered in the reports, Future Technology for Hybrid and Pure Electric Cars and Structural Electronics, a much bigger gain comes when existing dumb metal and plastic are not needed because load-bearing electronics and electrics take over. A faster payback and much greater saving in weight and space result. Indeed, many other benefits accrue. Laminar batteries in the wings of an aircraft may not need water cooling because of their shape.


Load-bearing supercapacitors have already been made into a car trunk lid by Imperial College London and Vanderbilt University in the USA and others are doing similar things. Universities rarely use the term structural electronics for what they are doing – they prefer a longer string of words. Building Integrated Photovoltaics BIPV is not yet seen by proponents as a subset of structural electronics even though integral energy storage and circuitry is being explored. From aircraft fuselages having a human-like nervous system to the front panel of your washing machine being the electronics, the terminology is more likely to be manufacturing-oriented such as, “in-mold electronics”.


Nonetheless the big picture is structural electronics taking over from a century of joining components together and putting them in a box. Now is the century of electronic and electrical structures with a very different value chain. Providers of chemicals, laminates, composites, 3D electronic printing, smart skin for structures and, yes, in-mold electronics step forward.


The following pages are taken from the report “Structural Electronics 2015-2025: Applications, Technologies, Forecasts“.  This research appraises the market opportunity, assesses technologies, the competitive landscape, value chain drivers, barriers, case studies and global trends.


Structural electronics market forecast by component type for 2014-2024 in US $ billions, for printed and potentially printed electronics including organic, inorganic and composites


Structural Electronics Market Report


Details of the new report, table of contents and ordering information can be found on Electronics.ca Publications’ web site.  View the report: Structural Electronics 2015-2025: Applications, Technologies, Forecasts“.


 



Structural Electronics - A Business of Tens of Billions of Dollars Within the Coming Decade

Internet of Things Spending by Vertical Market

ELECTRONICS.CA PUBLICATIONS, the electronics industry market research and knowledge network, announces the availability of a new IDC report entitled “Worldwide Internet of Things Spending by Vertical Market 2015–2018 Forecast“, which defines the IT opportunity for  all vertical markets that comprise  the burgeoning Internet of Things market. The new report segments the IoT market as well as provides a forecast that illustrates which vertical industries show the greatest market opportunity over the next several years.


As the Internet of Things IoT market starts to coalesce in both concept and solution offering, IDC recommends vendors take the next step and look at this huge IT opportunity in a more realistic and valuable framework. As exciting as the overall opportunity for the IoT market currently exists, understanding the vertical ramifications is paramount. All of the greatest IoT IT opportunities — from the connected home, smart meters, the connected car, and smart grid to personal wellness and connected health — are driven from a vertical market perspective.


The Internet of Things market must be understood in terms of vertical markets because the value of IoT is based on individual use cases across all markets. Successful sales and marketing efforts by vendors will be based on understanding the most lucrative verticals that offer current growth and future potential and then creating solutions for specific use cases that address industry-specific business processes.


IDC defines the Internet of Things concept as a wired or wireless network connecting devices, or “things,” that is characterized by autonomous provisioning, management, and monitoring. IoT already impacts our everyday life down to the smallest processes. The vertical opportunity that arises from IoT is already in play, but only if the need for vertical expertise is recognized and offered. Realizing the existence of vertical opportunity is the first step to understanding the impact — and therefore market opportunity that exists — for IT vendors. In addition:


  • IDC has looked at the components, processes, and IT support for IoT and expects the technology and services revenue to expand from $4.8 trillion in 2012 to $7.3 trillion by 2017 at an 8.8% CAGR, with the greatest opportunity initially in the consumer, discrete manufacturing, and government vertical industries.

  • The IoT/M2M market is growing quickly, but the development of this market will not be consistent across all vertical markets. Industries that already “understand” IoT will see the most immediate growth, such as industrial production/automotive, transportation, and energy/utilities. However, all verticals will reflect great opportunity.

  • IoT is a derivative market containing many elements, including horizontal IT components as well as vertical and industry-specific IT elements. It is these vertical components where IT vendors will have to distinguish themselves to address industry-specific IoT needs.

  • IoT opens up many IT vendors to the consumer market, providing B2B2C services to connect and run homes and automobiles — all the places that electronic devices will have a networking capability.

According to the report, the first step to understand how vendors can position themselves will be to understand the components of the IoT/M2M IT ecosphere. Because this is a derivative market, there are many opportunities for vendors to offer parts or product suites that cover the needed IoT IT set. And vendors will have incentive to do so due to rapid growth which will occur as industries see the convenience, productivity, and efficiency that IoT brings to business processes. Accordingly, while horizontal-focused IT vendors will look to offer IoT solutions that appeal to many industries, there will also be impetus to offer vertical-focused solutions that make IoT tangible for both industries applications (M2M) and consumer needs (B2B2C).


The IoT market will greatly impact and offer the potential for vertical-aligned businesses to improve both performance and profitability. The IoT solutions space will expand exponentially and will offer every business endless IoT-focused solutions. The initial strategy of businesses should be to avoid choosing IoT-based solutions that will solve only immediate concerns and lack ‘staying power.


Details of the new report, table of contents and ordering information can be found on Electronics.ca Publications’ web site. View the report: “”Worldwide Internet of Things Spending by Vertical Market 2015–2018 Forecast



Internet of Things Spending by Vertical Market

Wednesday, January 27, 2016

Electronics Assembly IPC Standards Collection

It takes a lot to be successful in electronics assembly. Get the reference documents you need on all aspects of the job from solder materials, component characteristics, manufacturing and quality requirements, and acceptability of the final assembly. Includes 41 key documents for SMT and through-hole assembly, including the widely used IPC-A-610, J-STD-001 and IPC-A-620.  Get the complete IPC standards collection and save 55% on individual document prices. Users can also purchase and download IPC standards from Electronics.ca Publications by following IPC specs below.


Electronics Assembly IPC Standards Collection Includes


IPC 2611 Generic Requirements for Electronic Product Documentation
IPC 2612-2 Sectional Requirements for Electronic Diagramming Documentation (Schematic and Logic Descript
IPC 2612-1 Sectional Requirements for Electronic Diagramming Symbol Generation Methodology
IPC 3406 Guidelines for Electrically Conductive Surface Mount Adhesives
IPC 3408 General Requirements for Anisotropically Conductive Adhesives Films
IPC 7095C Design and Assembly Process Implementation for BGAs
IPC 7351B Generic Requirements for Surface Mount Design and Land Pattern Standard
IPC 9202 Material and Process Characterization/Qualification Test Protocol for Assessing Electrochemic
IPC 9203 Users Guide to IPC-9202 and the IPC-B-52 Standard Test Vehicle
IPC 9701A Performance Test Methods and Qualification Requirements for Surface Mount Solder Attachments
IPC 9702 IPC/JEDEC Monotonic Bend Characterization of Board-Level Interconnects
IPC 9703 IPC/JEDEC Mechanical Shock Test Guidelines for Solder Joint Reliability
IPC 9704A Printed Circuit Assembly Strain Gage Test Guideline
IPC 9706 Mechanical Shock In-situ Electrical Metrology Test Guidelines for FCBGA SMT Component Solder
IPC 9707 Spherical Bend Test Method for Characterization of Board Level Interconnects
IPC 9708 Test Methods for Characterization of Printed Board Assembly Pad Cratering
IPC 9709 Test Guidelines for Acoustic Emission Measurement during Mechanical Testing
IPC A-610F Acceptability of Electronics Assembly
IPC A-620B IPC/WHMA-A-620B Requirements and Acceptance for Cable and Wire Harness Assemblies
IPC C-406 Design & Application Guidelines for Surface Mount Connectors
IPC CA-821 General Requirements for Thermally Conductive Adhesives
IPC CC-830B Qualification and Performance of Electrical Insulating Compound for Printed Wiring Assemblies
IPC CM-770E Component Mounting Guidelines for Printed Boards
IPC D-326A Information Requirements for Manufacturing Printed Circuit Boards and Other Electronic Assemblies
IPC FC-234A Pressure Sensitive Adhesive (PSA) Assembly Guidelines for Flexible, Rigid or Rigid-Flex Printed Boards
IPC HDBK-001E Handbook and Guide to Supplement J-STD-001
IPC HDBK-005 Guide to Solder Paste Assessment
IPC JP002 JEDEC/IPC Current Tin Whiskers Theory and Mitigation Practices Guideline
IPC J-STD-001F Requirements for Soldered Electrical and Electronic Assemblies
IPC J-STD-002D EIA/IPC/JEDEC J-STD-002D Solderability Tests for Component Leads, Terminations, Lugs, Terminals and Wires
IPC J-STD-003C-WAM1 Solderability Tests for Printed Boards
IPC J-STD-004B Requirements for Soldering Fluxes
IPC J-STD-005A Requirements for Soldering Pastes
IPC J-STD-006C Requirements for Electronic Grade Solder Alloys and Fluxed and Non-Fluxed Solid Solders
IPC J-STD-020D-1 IPC/JEDEC Moisture/Reflow Sensitivity Classification for Nonhermetic Solid State Surf
IPC J-STD-027 Mechanical Outline Standard for Flip Chip and Chip Size Configurations
IPC J-STD-028 Performance Standard for Construction of Flip Chip and Chip Scale Bumps
IPC J-STD-030A Selection and Application of Board Level Underfill Materials
IPC J-STD-033C-1 Handling, Packing, Shipping and Use of Moisture/Reflow Sensitive Surface Mount Device
IPC J-STD-075 Classification of Non-IC Electronic Components for Assembly Processes
IPC MC-790 Guidelines for Multichip Module Technology Utilization
IPC S-816 SMT Process Guideline & Checklist
IPC SM-780 Component Packaging & Interconnecting with Emphasis on Surface Mounting
IPC SM-784 Guidelines for Chip-on-Board Technology Implementation
IPC SM-785 Guidelines for Accelerated Reliability Testing of Surface Mount Attachments
IPC SM-817 General Requirements for Dielectric Surface Mounting Adhesives
IPC SM-817A General Requirements for Dielectric Surface Mount Adhesives
IPC T-50K Terms and Definitions for Interconnecting and Packaging Electronic Circuits
IPC TR-001 An Introduction to Tape Automated Bonding Fine Pitch Technology


Downlaod ipc standards



Electronics Assembly IPC Standards Collection

Solar Panels Markets Reach $180.7 Billion By 2021

ELECTRONICS.CA PUBLICATIONS announces the availability of a new report entitled “Solar Panels: Market Shares, Strategy, and Forecasts, Worldwide, 2015 to 2021”. The 2015 study has 537 pages, 212 tables and figures. Worldwide solar panels markets are growing as units become more efficient and less costly for generating electricity. Rapid adoption of solar panels worldwide is occurring as systems provide peak power efficiently.


The ability to remain competitive depends upon the ability to develop technologically advanced products and processes. What better investment in infrastructure on the part of a government than solar power? Cheap energy promises to provide water, cheap manufacturing, electric vehicles, all sorts of things more useful than a war that the government might alternatively spend its money on.


Main areas of solar panels is for: large scale utility systems connected to the electrical grid. Residential and commercial markets are evolving further.


Solar panel market driving forces relate primarily to the prospect of inexpensive, lasting energy from the sun. In 2015, analysts agree, a tipping point has been reached, solar panel markets are at the critical point in the market development, where an inevitability of adoption is certain. Solar panels markets have been an up and down evolving situation that was completely dependent on government subsidies.


Now the government subsidies seem certain. Market development without government subsidies seems certain. Utilities have to have solar energy. Governments have to have solar energy. People have to have solar energy. The stability of the solar panel market leads to a new and irreversible positive thrust for the market. Market development is certain to occur, the question is simply how fast.


Solar panel markets have crossed a threshold and gains will possibly have significant momentum, triggered by the technology. Solar panel adoption is now a dynamic process of innovation, insight, and influence through advocacy. The critical point in solar panel adoption is a process that is now unstoppable.


The growth of solar has been driven by a single paradigm at the federal and state levels worldwide. Now, with China so entirely dedicated to making solar less expensive than coal electrical generation, solar energy will take hold worldwide. Almost all solar has taken advantage of — and needed to take advantage of — state-level incentives.


China has had government subsidies for a long time. This continues to be the case, but in China now, grid parity is a result of taxing coal electrical generation, making solar panels attractive. The US is poised to see rapid adoption of solar panels in various regions.


According to Susan Eustis, the lead author of the team that created the study, “Solar panel market driving forces relate primarily to the prospect of inexpensive, lasting energy from the sun. In 2015, analysts agree, a tipping point has been reached, solar panel markets are at the critical point in the market development, where an inevitability of adoption is certain. Utilities have to have solar energy to meet the regulatory requirements. Governments have to have solar energy to achieve clean air standards. People have to have solar energy to charge electric cars. The stability of the solar panel market leads to a new and irreversible positive thrust for the market. Market development is certain to occur, the question is simply how fast.”


Solar panels have moved from the trial stage to the early adopter stage. Markets at $24.2 billion in 2014 are expected to reach $180.7 billion by 2021. Growth is expected to achieve rapid adoption of renewable energy.



Solar panels market sharesDetails of the new report, table of contents and ordering information can be found on Electronics.ca Publications’ web site. View the report: 
Solar Panels: Market Shares, Strategy, and Forecasts, Worldwide, 2015 to 2021“.


 



Solar Panels Markets Reach $180.7 Billion By 2021

Monday, January 25, 2016

World PCB Production in 2014 Estimated at $60.2 Billion

The world market for printed circuit boards (PCBs) reached an estimated $60.2 billion in value in 2014, growing just 0.7 percent in real terms, according to IPC’s World PCB Production Report for the Year 2014. Production growth in China, Thailand and Vietnam compensated for declining PCB production in most other regions. Developed by a team of the world’s leading PCB industry analysts, the annual study is the definitive source of PCB production data, indicating the volumes and types of PCBs being made in the world’s major producing countries.


The report contains estimates of 2014 PCB production value by nine product categories and by 30 countries or sub-regions. Four categories of rigid PCBs, three categories of flexible circuits, and IC substrates are covered. The standard multilayer rigid PCB values are further segmented by those having microvia structures and those with non-microvia structures. The report also includes updates on metal-core PCBs, as well as regional trends and historical data on regional shifts in PCB production.


The data show that the worldwide rigid PCB market grew modestly in 2014, while flexible circuit growth was flat. Regional trends are also examined, including China’s slowing production growth and the spectacular growth in the PCB industries of Thailand and Vietnam.


“PCB production is an international business and the landscape continues to change,” says Sharon Starr, IPC director of market research. “Companies based in Taiwan, Japan and South Korea, are responsible for more than two-thirds of world PCB production. These and other companies around the world are powering the impressive growth of PCB production in southeast Asia.”


Details of the new report, table of contents and ordering information can be found on Electronics.ca Publications’ web site. View Report Contents: World Printed Circuit Borads Production Report for the Year 2014.


 


 


 



World PCB Production in 2014 Estimated at $60.2 Billion

Security Devices for Connected Homes Market: -- Markets Reach $7.7 Billion By 2021

ELECTRONICS.CA PUBLICATIONS announces the availability of a new study “Security Devices For Connected Homes: Market Shares, Strategy, and Forecasts, Worldwide, 2015 to 2021”.  Next generation home security devices achieve a complete replacement of existing security systems, 3D video cameras, automated connected thermostats, access sensors, and intrusion detection devices can al alert a person on the smart phone. Devices are wireless, are more energy efficient, last longer and have a significantly lower cost of operation. The study has 366 pages and 116 table and figures.


With successful strategies for increased market presence, product leadership and cost-efficiency, apps are well positioned for continued long-term profitable growth driven by the major economic trends: urbanization, rapid technological development and increased security requirements.


There is significant innovation in the market for the connected home. Lower hardware prices, increased bandwidth availability, abundance of cloud capacity, sensor miniaturization, advances in wireless standards and mobile device smart phone evolution are market forces. Improved interfaces and alerting systems are the foundation for the connected home.


Home integrated networks implement home energy management (HEM) and security for the connected home. The connected home is evolving into a multibillion-dollar industry as people use the apps on their smart phone to substitute for a security monitoring service. The smart phone can send alerts and allow control of lighting. As wireless communication standards evolve to support systems integration, home owners gain more control of the living environment through remote access controlled by apps on the smart phone.


Growth has huge implications for energy efficiency and demand response. The plethora of wireless communication standards include Wi-Fi, ZigBee, Z-Wave, Thread, and Bluetooth LE. Numerable platforms are available. A lack of standards has presented a substantial barrier to overall smart home adoption by limiting interconnectivity between devices. The best security products to keep the home and family safe are interconnected modules.


2014 saw a wide expansion of security based do-it-yourself (DIY) home devices. Hub-based systems, point solutions, modules, and kits were available as self-install home security units. Security systems are part of a larger smart home systems market. Early adopters are adding to units already in place. The new modules are interconnected to apps on the smart phone.


Point solutions category are primarily focused on security. The broader set of connected home solutions have modules that range from thermostats, doorbells and ceiling fans to slow cookers and irrigation controllers. Crowdfunding sites like Indiegogo played a major role in helping drive funding for connected home devices and startups.


Consumers, especially in younger generations, expect mobile apps, security cameras, and mobile notification features with their home security systems. Older generations and the non-do-it-yourselfers have a hard time with installation and maintenance of DIY connected home solutions. The combination of needs from both the young and old are creating a favorable environment for strong sustained growth in the Do-It-For-Me (DIFM) interactive security and connected home space.


According to Susan Eustis, leader of the team that prepared the study, “In 2014 the Security for Connected Homes saw a large number of big-name acquisitions and entries. Samsung made an acquisition of SmartThings. Google’s acquisitions were of Nest, Dropcam and Revolv. Apple acquired HomeKit. Quantities of fielded point devices and systems increased. What defines the market is the ability of a device to connect to a smart phone app and send alerts directly from a connected device to a remote smart phone”


Open platforms and device interoperability help consumers preserve their investments by building on top of their existing connected home devices and services. This compatibility also expands the value of connected homes by linking previously isolated devices and services, further enhancing peace of mind and convenience in the home. The hope is to offer consumers a more unified experience by giving them access to all of their devices from a single app or interface and enabling interactions and automation between previously isolated devices and services.


Security Devices for Connected Homes Market


Security devices for the connected home markets at $1.2 billion in 2014 are forecast to reach $7.7 billion dollars, worldwide by 2021. The continuation of 2014 trends, combined with low market awareness of the value of home automation, will force many connected home vendors to pivot and offer more than simple apps for device monitoring and control. This leads us to a big trend for 2015: movement toward interoperability between vendors, devices and platforms.


Security Devices for Connected Homes Market

Security Devices For Connected Homes: Market Shares, Strategy, and Forecasts, Worldwide, 2015 to 2021


Details of the new report, table of contents and ordering information can be found on Electronics.ca Publications’ web site.
View the report:Security Devices For Connected Homes: Market Shares, Strategy, and Forecasts, Worldwide, 2015 to 2021“.



Security Devices for Connected Homes Market: -- Markets Reach $7.7 Billion By 2021

Friday, January 22, 2016

Market Demand for Surge Protection Devices

Electronics.ca Publications announces the release of a comprehensive global report on surge protection devices market. The global market for Surge Protection Devices (SPDs) is forecast to reach US$2.4 billion by 2020, driven by the growing need to protect sensitive electronic equipment from power fluctuations.


Global Surge Protection Devices Market Report


Surge protection devices such as transient voltage surge suppressors and surge arrestors are growing in importance, given the billions of dollars of losses caused by voltage fluctuations and power line abnormalities. Widespread use of sophisticated electrical, electronic communication and data equipment is driving the importance of power management solutions including SPDs, in both developed and developing economies. Proliferation of home appliances, personal computers, heating and air conditioning equipment in residential homes, and installation of high-end industrial electronic equipment in manufacturing plants are driving growth in the market. Future growth in the market will continue to benefit from the increasing use of electronics in the rapidly growing world telecommunication industry.


The commercial end-use sector is expected to witness strong growth in the coming years. With nationwide alternate energy programs gaining popularity in Germany, China and other major economies, demand for surge protectors is expected to gain strength. Substitution of conventional coil and core street lamps with light emitting diodes for outdoor lighting is also opening up new growth avenues for SPD manufacturers. Miniaturization and clock speeds of microprocessors as dictated by Moore’s Law comes at a price, namely higher sensitivity of the chips to power transients, electromagnetic interference, radio frequency interference and electrical field transients. The increasing sensitivity of modern electronic devices to even split-second electricity fluctuations bodes well for sales of SPDs. The global market for SPDs is extremely competitive characterized by a high degree of fragmentation, and pricing pressures. The relatively commoditized SPD technology leaves very little scope for differentiation. Pure-play SPD manufacturers face stiff competition from large diversified electrical equipment makers.


As stated by the new market research report on Surge Protection Devices (SPDs), the United States represents the largest market worldwide. Developing countries are forecast to spearhead future growth in the market led by mounting issues related to stable power supply. Escalating demand for energy as a result of robust pace of economic development and industrialization, inefficient energy infrastructure and power shortages, are key reasons responsible for poor power quality in these countries. Asia-Pacific, led by China and India, is forecast to witness the strongest growth over the analysis period. Key factors driving growth in the region include the growing consumer appetite for expensive electronic devices, and migration of industries towards digitization and automation of production and business processes.


Major players covered in the report include Advanced Protection Technologies Inc., Belkin international Inc., DEHN + SONS GmbH + Co. KG, Eaton Corporation PLC, Emerson Electric Co., GE Industrial Solutions, Hubbell Incorporated, Koninklijke Philips N.V., Legrand SA, Leviton Manufacturing Co. Inc., Nexus Industries Ltd., Novaris Pty Ltd., OBO BETTER MANN GmbH & Co. KG, Panamax LLC, Phoenix Contact GmbH & Co. KG, REV Ritter GmbH, Schneider Electric SA, Smiths Interconnect, Shenzhen Dowin Lightning Technologies Co. Ltd., Thomas & Betts Power Solutions LLC, Tripp Lite, and Weidmüller GmbH & Co. KG, among others.


The research report titled “Surge Protection Devices (SPDs): A Global Strategic Business Report“, provides a comprehensive review of market trends, growth drivers, challenges, issues, and strategic industry activities of major companies worldwide . The report provides revenue estimates and projections for all major geographic markets, including the US, Canada, Japan, Europe (France, Germany, Italy, UK, Spain, Russia and Rest of Europe), Asia-Pacific (China, India, and Rest of Asia-Pacific), Latin America (Brazil, and Rest of Latin America) and Rest of World. The global and regional markets for SPDs are analyzed in US dollars by the following product types: Plug-In, Hard-Wired, Line Cord, and Power Control Center. The global SPDs market is further analyzed by end-use sectors comprising Communication, Consumer, and Others (includes Industrial, and Healthcare Applications, among others).



Market Demand for Surge Protection Devices

Structural Electronics - A Business of Tens of Billions of Dollars Within the Coming Decade

Structural electronics  is one of the most important developments this century yet most people have never heard of it. Strange – there are over 37 million items on Google. Two years ago, IEEE published,”3D Printing for Rapid Prototyping of Structural Electronics”. Drayson revealed the “structural battery” in the aerofoil of its pure electric racing car. Tesla amazed us with an empty engine compartment and trunk in its pure electric car – the power train was entirely fitted into the sides and floor.


Fitting things into spare spaces, though it attracts the name, is really only a precursor of structural electronics. As covered in the reports, Future Technology for Hybrid and Pure Electric Cars and Structural Electronics, a much bigger gain comes when existing dumb metal and plastic are not needed because load-bearing electronics and electrics take over. A faster payback and much greater saving in weight and space result. Indeed, many other benefits accrue. Laminar batteries in the wings of an aircraft may not need water cooling because of their shape.


Load-bearing supercapacitors have already been made into a car trunk lid by Imperial College London and Vanderbilt University in the USA and others are doing similar things. Universities rarely use the term structural electronics for what they are doing – they prefer a longer string of words. Building Integrated Photovoltaics BIPV is not yet seen by proponents as a subset of structural electronics even though integral energy storage and circuitry is being explored. From aircraft fuselages having a human-like nervous system to the front panel of your washing machine being the electronics, the terminology is more likely to be manufacturing-oriented such as, “in-mold electronics”.


Nonetheless the big picture is structural electronics taking over from a century of joining components together and putting them in a box. Now is the century of electronic and electrical structures with a very different value chain. Providers of chemicals, laminates, composites, 3D electronic printing, smart skin for structures and, yes, in-mold electronics step forward.


The following pages are taken from the report “Structural Electronics 2015-2025: Applications, Technologies, Forecasts“.  This research appraises the market opportunity, assesses technologies, the competitive landscape, value chain drivers, barriers, case studies and global trends.


Structural electronics market forecast by component type for 2014-2024 in US $ billions, for printed and potentially printed electronics including organic, inorganic and composites


Structural Electronics Market Report


Details of the new report, table of contents and ordering information can be found on Electronics.ca Publications’ web site.  View the report: Structural Electronics 2015-2025: Applications, Technologies, Forecasts“.


 



Structural Electronics - A Business of Tens of Billions of Dollars Within the Coming Decade

Wednesday, January 20, 2016

Thin Film and Printed Battery (TFB) Market Opportunities

Thin, Flexible and Printed Battery Market Will Increase To Over $300m By 2024


Form factor is becoming a major driver shaping innovation and transforming the energy storage industry globally. This is fueled by the emergence of new market categories such as wearable electronic devices and Internet of Things, which demand thinness and flexibility. These new market categories will help the market for thin and flexible batteries reach $300 million in 2024.


Thin, flexible or printed batteries have commercially existed for more than ten years. Traditionally, the micro-power thin and printed batteries were used in skin patches, RFID tags and smart cards. Today, however, the composition of the target market is undergoing drastic change driven by the emergence of new addressable market categories. This trend has enticed many large players to enter the foray, starting to transform a business landscape that was once populated predominantly by small firms.


The change in target markets is inevitably driving change in the technology landscape too. This means that the market in 2024 will look vastly different from that in 2014, both on the technology and market level. Technology and markets that are major contributes today will have a small role to play, while new segments and technology will grow to dominate this sector.


Printed-BatteriesFor more details of the new report on flexible and printed battery market, visit: Flexible, Printed and Thin Film Batteries 2015-2025: Technologies, Forecasts, Players.


 



Thin Film and Printed Battery (TFB) Market Opportunities

North American Electronics Sales Growth Flat but Outlook is Positive

As of November 2014, sales growth was flat in the bare printed circuit board (PCB) and electronics manufacturing services (EMS) segments of the electronics industry, in sharp contrast to semiconductor sales that continued to skyrocket. U.S. new orders for electronics products, which tend to lead sales by about one month, continued to sag.


IPC’s PCB book-to-bill ratio, which normally leads PCB sales by three to six months, climbed further to 1.06 in November after hovering around 1.00 during most of 2014. Ratios above parity (1.00) indicate greater demand than supply, which may be a precursor of strengthening sales growth in the PCB industry in 2015.


All data cited in this report are based on rolling averages of the past three months, which smooths out some of the volatility in monthly data to show clearer trends.


Electronics Sales Growth


Electronics Sales Growth


Note on the graph:  All indices are based on the same baseline of the average month in 2000=100, and reflect a three-month rolling average.


Sources: IPC statistical programs for the EMS and PCB industries; SIA for semiconductor data; U.S. Census Bureau for U.S. new orders for computer and electronic products.


Learn more about Electronic Contract Manufacturing Services market and publications that provide informed perspective and relevant analysis of emergent technologies.


Electronic Contract Manufacturing Services – Global Strategic Business Report” analyzes the worldwide markets for Electronic Contract Manufacturing Services in US$ Million by the following Product Segments: Consumer Electronics, Computers & Peripherals, Telecommunications, Industrial Electronics, and Others. The report provides separate comprehensive analytics for the US, Canada, Japan, Europe, Asia-Pacific, Latin America, and Rest of World. Annual estimates and forecasts are provided for the period 2013 through 2020. Also, a seven-year historic analysis is provided for these markets. Market data and analytics are derived from primary and secondary research. The report profiles 308 companies including many key and niche players such as –


Altadox, Inc.

Benchmark Electronics, Inc.

Celestica, Inc.

Compal Electronics, Inc.

Creation Technologies LP


 



North American Electronics Sales Growth Flat but Outlook is Positive

Monday, January 18, 2016

European EMS Market Analysis

2014 was a tough year for most EMS companies with revenues in Western Europe  declining by 3% while an increase of 3.4% in Central and Eastern Europe (CEE) and  Middle East/North Africa (MENA) helped the overall European market post growth of 0.5%. Although the market is expected to recover, growth is forecast to remain flat in 2015/2016 before gaining some traction in the later part of the forecast period.



EMS revenues in Western Europe are forecast to reach Euro 11.16 billion in 2019, up from Euro 10.37 million in 2014, with the market increasingly focused on the Aerospace, Defence, Automotive, Medical, Control & Instrumentation, Industrial and Telecom  (ADAMCIT) segments of the market.


The European EMS Industry - A Strategic Study of the European EMS Industry 2014-2019

Source: RER , The European EMS Industry – A Strategic Study of the European EMS Industry 2014-2019


The transfer of production to manufacturing facilities in  CEE/MENA to reduce costs and  the increasing demand by OEMs for EMS to offer local manufacturing in key global markets will dampen growth in Western Europe during the period to 2019.


The reverse applies to CEE/MENA where growth will be boosted by the transfer of production from Western Europe and in particular, lower volume high mix products in the ADAMCIT segments. This is expected to be offset in part by the migration of higher volume products in the consumer, computing and communications, or 3C, segment to Asia as the major global EMS companies come under increasing pricing pressure.  Assuming that the leading global EMS providers remain committed to retaining a major manufacturing presence in the region revenues are forecast to reach Euro 16.21 billion by 2019, up from Euro 15.15 billion in 2014


Major EMS Players


Although made up of over 1,000 companies, the industry is dominated by a small number of Global players with the Top 3 – Foxconn, Flextronics and Jabil – accounting for around 44.5% of revenues in 2014, with nearly 90% from plants in CEE focused on  the 3C segment.


Approaching 75% of the total sales (Euro 19.1 billion) are achieved by the leading 50 companies or 5% of the total number. We are expecting that there will be further consolidation across the industry due to the downward price pressure, slow economic growth and requirement to broaden and deepen the design, development and aftercare services to customers.


This comprehensive report provides:


  • A detailed market analysis to 2019 for Western Europe, CEE and North Africa in a single report.

  • A breakdown of the market by major sector.

  • An in-depth analysis and comment on the key market trends impacting the European EMS Industry.

  • A ranking and detailed profiles of the Top 20 EMS providers in Europe.

  • An overview of electronic production and EMS manufacturing in the major countries and regions including a ranking of the leading companies and profiles of the major players.

  • A directory by country of the EMS manufacturing locations with addresses, contact numbers, websites.

An appendix with the estimated sales turnover for 2014 of the Top 50 European EMS providers and the Top 50 European EMS companies based on global revenues and a list of the prevailing and historical currency exchange rates.


The European EMS Industry report allows you to track these developments in a single cost-effective study providing both detailed market and company analysis. The eleventh edition of the European EMS industry report, published by Reed Electronics Research, highlights the issues impacting the European EMS industry.


Details of the new report, table of contents and ordering information can be found on Electronics.ca Publications’ web site: The European EMS Industry – A Strategic Study of the European EMS Industry 2014-2019.


 



European EMS Market Analysis

New IPC Standards For Printed Circuit Boards

NEW IPC-A-610F Acceptability of Electronic Assemblies


IPC-A-610 is the most widely used standard for circuit board production in the world. IPC-A-610F illustrates acceptability requirements for electronic assemblies with over 814 colour images and illustrations. Topics include flex attachment, board in board, part on part, lead free, component orientation and soldering criteria for through-hole, SMT (new termination styles) and discrete wiring assemblies, mechanical assembly, cleaning, marking, coating, and laminate requirements. This revision F includes two new SMT termination styles, and changes in plated-through hole fill and BGA void criteria. Major topics include flex attachment, board-in-board, part-on-part, both lead-free and tin-lead criteria, component orientation and soldering criteria for through hole, SMT, cleaning, marking, coating and laminate requirements. IPC Standards for printed circuit boards: order and download IPC A-610F


IPC-A-610 is invaluable for all inspectors, operators and trainers. Revision F has 814 photos and illustrations of acceptability criteria — 86 of them new or updated. The document is most often used with the material and process standard IPC J-STD-001.


NEW J-STD-001F Requirements for Soldered Electrical and Electronic Assemblies


J-STD-001F is recognized worldwide as the sole industry-consensus standard covering soldering materials and processes. This revision includes support for both traditional solder alloys and for lead-free manufacturing. Revision to plated-through hole, PTH, minimum fill requirements; criteria for two new SMT termination types; and expanded conformal coating criteria. Clarification of criteria descriptions for easier understanding. The requirements for all three classes of construction are included. Full color illustrations are provided for clarity. This standard fully complements IPC-A-610F and is supported by IPC-HDBK-001. Order and  download IPC J-STD-001F


IPC-7527 Requirements for Solder Paste Printing


IPC-7527 covers the many aspects of solder paste application, from initial placement on the board through production and testing. To equipment operators, the new standard serves as a reference guide with more than 50 photos packed into the 15-page standard.  IPC-7527 provides the operators with a standard that will help them make the right decisions when they face issues in production, and no professionals or specialists are present.


While there are standards that detail what a completed assembly should look like, IPC-7527 is the first one to provide requirements for what the printed solder paste should look like and how far off centers can be before they’re considered defects. It covers everything from basic squeegees to jet dispensers and needle dispensers to closed print heads. In addition, IPC-7527 provides information on automated paste inspection using either cameras or lasers. Order and download IPC-7527.


IPC-7093 Design and Assembly Process Implementation for Bottom Termination components




This standard describes the design and assembly challenges for implementing Bottom Termination surface mount Components (BTCs) whose external connections consist of metallized terminals that are an integral part of the component body. The BTCs in this document include all types and forms of bottom-only termination components intended for surface mounting. This includes such industry descriptive nomenclature as QFN, DFN, SON, LGA, MLP and MLF. The focus of the information is on critical design, assembly, inspection, repair, and reliability issues associated with BTCs.


The target audiences for this document are managers, design and process engineers, and operators and technicians who deal with the electronic design, assembly, inspection and repair processes. The intent is to provide useful and practical information to those companies who are using or considering tin/lead, lead free, adhesives or other forms of interconnection processes for assembly of BTC type components. Although not a complete recipe, the document identifies many of the characteristics that influence the successful implementation of robust and reliable assembly processes and provides guidance information to component suppliers regarding the issues being faced in the assembly process. Order and  download IPC-7093


IPC-7095C Design and Assembly Process Implementation for BGAs




Implementing ball grid array (BGA) and fine-pitch ball grid array (FBGA) technology presents some unique challenges for design, assembly, inspection and repair personnel. IPC-7095C delivers useful and practical information to anyone currently using BGAs or FBGAs. Many issues have become especially important due to the change in the alloys of the ball, the ball shape, and the attachment procedures. The major emphasis of Revision C is to provide information on some of the new mechanical failure issues such as cratering or laminate defects caused after assembly.


In addition to providing guidelines for BGA inspection and repair, IPC-7095C addresses reliability issues and the use of lead-free joint criteria associated with BGAs. There are many photographs of X-ray and endoscope illustrations to identify some of the conditions that the industry is experiencing in the implementation of BGA assembly processes. Order and download IPC-7095C


IPC-7711/7721B Rework, Modification and Repair of Electronic Assemblies




This guide includes everything needed for repair and rework of electronic assemblies and printed circuit boards! IPC-7711B/7721B Rework, Modification and Repair of Electronic Assemblies has received a complete procedure by procedure update to assure applicability to both lead free and traditional SnPb soldered assemblies. Order and download IPC-7711/7721B.




Purchase and Download IPC Standards For Printed Circuit Boards from Electronics.ca Publications today!


Effective January 1, 2015, a price increase of 4 percent will be implemented on all standards.




IPC Standards For PCB Design and CADIPC Member

 











New IPC Standards For Printed Circuit Boards

Real-Time Location System (RTLS) Market Worth $3,923.6 Million by 2020

According to a new market research report “Real-Time Location System (RTLS) Market Product, Technology, Application and Geography – Forecasts & Analysis to 2020“, the global RTLS Market was valued at $720.5 Million in 2014 and is expected to reach $3,923.6 Million by 2020, at an estimated CAGR of 33.03% between 2015 and 2020. The healthcare sector constituted the largest application for the RTLS Market in 2014 and is expected to continue to grow at a significant rate because of increasing applications in the healthcare segment, especially the old age care segment. Industrial manufacturing, government and defense, process industries, and transportation and logistics sectors are the next major applications of RTLS solutions and are expected to grow at a considerable rate due to the increasing adoption of RTLS solutions in the same.



The RTLS Market players have been focusing on the innovations in terms of technological advancements to cater to the specific needs of enterprises in tracking and monitoring the precise location of assets or personnel. UWB and ZigBee based RTLS technologies have been the emerging technologies in the RTLS Market, which provide high accuracy and precise location of objects in shorter locations compared to any other RTLS technology. The market for these technologies is expected to grow at a higher CAGR in the forecast period than others because of the increasing adoption of the RTLS solutions based on these technologies. Furthermore, these technologies have been able to overcome the difficulties faced by the other technologies in tracking objects in harder mediums such as concrete wall or other substances. However, Wi-Fi and RFID technologies are expected to account for a major market share during the forecast period, due to their lesser cost compared to UWB and ZigBee technologies.


The Americas and Europe were the largest markets for the RTLS technology in 2014. Asia-Pacific is expected to be the fastest growing region, followed by RoW which is also among the major regions that plays a significant role in the growth of the RTLS market. The growth of the RTLS Market in the Americas was largely driven by the U.S., which accounted for 74.7% of the total Americas RTLS Market in 2014. The Asia-Pacific market for RTLS is expected to be driven by its key markets such as Japan, Australia, China,Malaysia, and Singapore. The industrial manufacturing and retail sector along with, transportation and logistics is likely to provide a huge growth opportunity for RTLS solutions in these regions. The market would also be fuelled by the increase in focus of the major global RTLS vendors to expand their product and service offerings in the Asia-Pacific region as this region is expected to witness a higher growth in terms of the adoption of RTLS solutions and market value.


The report describes market dynamics that include the key drivers, restraints, challenges, and opportunities with respect to the RTLS Market and forecasts the market till 2020. This global report provides a detailed view of the RTLS market across products, technologies, applications, and geographies. The report also profiles the prominent players in the RTLS market along with their key growth strategies. The competitive landscape of the market analyses a large number of players with their market share. The RTLS Market is witnessing numerous collaborations and partnerships across the value chain, to cater to various industries in different geographies.


The major companies in the global RTLS Market that have been included in this report are Zebra Technologies Corporation (U.S.), AeroScout, Inc. (U.S.), Savi Technology, Inc. (U.S.), TeleTracking Technologies, Inc. (U.S.), Ubisense Group Plc (U.K.), Ekahau, Inc. (U.S.), Identec Group AG (Liechtenstein), CenTrak, Inc. (U.S.), Awarepoint Corporation (U.S.), and Versus Technology, Inc. (U.S.), and others.


Details of the new RTLS market report, table of contents and ordering information can be found  on Electronics.ca Publications’ web site. View the report:  Real-Time Location System (RTLS) Market Product, Technology, Application and Geography – Forecasts & Analysis to 2020.


 



Real-Time Location System (RTLS) Market Worth $3,923.6 Million by 2020

Friday, January 15, 2016

New Amendments for J-STD-001F and IPC-A-610F

Now Available: Amendments for J-STD-001F and IPC-A-610F


In order to keep up with industry demand, IPC has released amendments for J-STD-001F, Requirements for Soldered Electrical and Electronic Assemblies, and IPC-A-610F, Acceptability of Electronic Assemblies. For each standard, IPC-A-610F Amendment 1 and IPC-J-STD-001F Amendment 1 represents a critical shift to deliver necessary updates to these already robust standards.


Why wait? Download these Necessary Amendments Today!


With topics ranging from vertical hole fill to BGA voiding, these amendments include updates that:


Reintroduce the Space Shuttle symbol to show where there are different criteria in the J-STD-001FS, Space Applications Electronic Hardware Addendum to IPC J-STD-001F, Requirements for Soldered Electrical and Electronic Assemblies


Revise the Class 2 requirements for vertical solder fill on plated through holes with less than 14 leads to include requirements when there is a connected internal thermal plane


Eliminate requirements for BGA voiding for BGA components with noncollapsing balls


Download IPC-J-STD-001F and IPC-A-610F PDFDemonstrate the importance of quality in your operations by using the most current standard amendments.


Update today with IPC-A-610F Amendment 1 and IPC J-STD-001F Amendment 1!


NOTE: The amendments are being sold in a downloadable format only.


 



New Amendments for J-STD-001F and IPC-A-610F

European Manufacturing Spotlight: Trends, Innovations, and Growth

IPC President and CEO John Mitchell discusses the growth of the European manufacturing industry and how IPC supports IPC members through standards, education and advocacy efforts.



https://www.youtube.com/watch?v=N07iGd5zbsI


To achieve a high quality end product and maintain a competitive position in the marketplace, you need to infuse quality throughout the manufacturing process.


Downlaod ipc standardsDid you know there is an IPC standard associated with nearly every step of printed circuit board production and assembly?  From design and purchasing to assembly and acceptance, Electronics.ca Publications offers IPC Standards to help you assure superior quality, reliability and consistency in the electronic assemblies that go into your product. Download IPC Standards Spec Tree – PDF file.


As with the manufacturing process — which uses a step-by-step approach – IPC standards also build upon one another. To achieve your desired results, it’s important to implement the appropriate IPC standards associated with each step of production.




Download IPC Standards

IPC Standards are available from Electronics.ca Publications in English, German, French, Spanish, Chinese, Japanese, and other languages.


Download IPC Standards Spec Tree – PDF File


Why Use IPC Standards in Your Manufacturing Process?


  • Gain Control Over End Product Quality and Reliability — Quality and reliability are the cornerstones of competing in the marketplace and critical to your company’s reputation and profitability. By implementing IPC standards throughout the manufacturing process, you help ensure better performance, longer life and compliance with lead-free regulations.

  • Improve Communication with Suppliers and Employees — IPC standards are the standards that your competitors, suppliers and EMS providers use. Working from an established IPC standard helps all of you to “speak the same language” — the language of the global electronic industry. In addition, using IPC standards eliminates confusion for employees, because they know they need to perform to an established industry standard.

  • Help Contain Costs — Ensuring that your design and the bare boards you purchase comply with IPC standards allows you to produce electronic assemblies that meet stringent quality tests down the line, minimizing costly delays, rework and scrap.

IPC on European ManufacturingThe Most Popular IPC Documents are available from Electronics.ca Publications in PDF Format


Download IPC Standards


IPC A-610F – Acceptability of Electronic Assemblies
IPC-A-610 is the most widely used electronics assembly standard in the world. A must for all quality assurance and assembly departments.


IPC J-STD-001F – Requirements for Soldered Electrical and Electronic Assemblies
J-STD-001 Requirements for Soldered Electrical and Electronic Assemblies has emerged as the preeminent authority for electronics assembly manufacturing. The standard describes materials, methods and verification criteria for producing high quality soldered interconnections. The standard emphasizes process control and sets industry-consensus requirements for a broad range of electronic products. This revision now includes support for lead free manufacturing.


IPC A-620B – Requirements and Acceptance for Cable and Wire Harness Assemblies
Revision B is now available for the only industry-consensus standard for Requirements and Acceptance of Cable and Wire Harness Assemblies.


IPC-DRM-PTH-E
Now updated to Revision D of the latest IPC-A-610E and J-STD-001E – our Training & Reference Guide illustrates critical acceptance criteria for the evaluation of through-hole solder connections.


IPC-DRM-SMT-E
Useful as a training aid in the classroom or on the shop floor, DRM-SMT-E contains computer generated color illustrations of Chip component, Gull Wing and J-Lead solder joints.


IPC-J-STD-033C
J-STD-033 Provides Surface Mount Device manufacturers and users with standardized methods for handling, packing, shipping and use of moisture/reflow sensitive SMDs.


IPC-J-STD-020D-1
IPC-J-STD-020D-1 standard identifies the classification levels of nonhermetic solid state surface mount devices that are sensitive to moisture-induced stress.


J-STD-075

J-STD-075 provides test methods to classify worst-case thermal process limitations for electronic components. Classification is referenced to common industry wave and reflow solder profiles including lead-free processing.


IPC Collections:


IPC-C-103 – Electronics Assembly Standards Collection


IPC-C-1000 Essential Document Collection for Board Design, Assembly and Manufacture


IPC-C-108 Cleaning Guides and Handbooks Collection


Through Electronics.ca you can order IPC standards for printed circuit board design and manufacturing and electronics assembly, including handbooks, guidelines and IPC training videos.


Learn more about European manufacturing market and publications that provide informed perspective and relevant analysis of emergent technologies.



European Manufacturing Spotlight: Trends, Innovations, and Growth

Wi-Fi Semiconductor Chipset Analysis - Wi-Fi Ascending ­ Now More Than Ever

ELECTRONICS.CA PUBLICATIONS announces the availability of a new report entitled “Supplier BullsEye Analysis 802.11ac WiFi Chipsets”.  According to the oft-cited Cisco Visual Networking Index, by 2018, Wi-Fi becomes the most important air interface (and possibly the most important broadband wireless communications interface bar none).


Exhibit 1: Global IP Traffic by Local Access Technology


Wi-Fi Semiconductor Chipset Analysis


2×2 MIMO 802.11ac is now a standard feature in new smartphones, phablets, tablets and notebook computers. We believe that in 1H15 2015, new iOS and Android radio firmware will turn on Multi User MIMO (MU-MIMO) functionality in smartphones, potentially quadrupling Wi-Fi throughput as 11ac Wave 2 Access Points are deployed.


At the International CES 2015 event in early January 2015, all eight of the semiconductor suppliers analyzed in this report made announcements regarding their IEEE 802.1ac product portfolios. The battle for new design wins and subsequent market share had shifted and become significantly more complex.


Qualcomm and Broadcom are in a horse race now for Wave 2 consumer gateway and enterprise access point design wins. Broadcom has strong Wave 1 design win momentum, while Qualcomm has a product maturity advantage.


Marvell has a strong new Wave 2 chipset offering, a deep Ethernet packet processing experience, but few existing 11ac design wins. We believe Marvell is the dark horse in the 2015 race for Wave 2 chipset market share.


Quantenna has the most market experience with Wave 2 802.11ac radios. As evidence of their technical prowess, they demonstrated an 8×8:8 “Wave 3” (EJL Wireless Research designation) solution at CES 2015. We believe the company is an attractive acquisition for a strong embedded processing semiconductor company.


For a small venture-backed company, Celeno has an impressive set of design wins. An acquisition by their set top box design partner Intel would enable Intel to increase their “share of wallet” in consumer cable modem WLAN gateway systems.


MediaTek has stepped up with a Wave 2 radio and powerful Wi-Fi networking SoC, and while late to the game, they offer a complete smartphone chipset portfolio, providing client side leverage for their Wi-Fi access point chipset solution.


Intel has taken an early market lead with IEEE 802.11ad WiGig. The question remains whether they will see consumer interest and PC OEM uptake of this new short range 60 GHz air interface in 2015.


Realtek faces a serious threat from Broadcom’s new single chip 2×2 11ac product family. 2015 will be a critical year for Realtek’s future in Wi-Fi silicon.


This research report is intended as a companion to another Wi-Fi Semiconductor Chipset Analysis “Wi-Fi Blasts Ahead with 11ac Wave 2 Chipsets“, published in December 2014.


This research report analyzes eight 802.11ac Wi-Fi equipment chipset suppliers (three radio only and five radio plus Wi-Fi networking processor SoC) using objective commercial and technical performance fitness evaluation criteria. Alphabetically, these suppliers are:


  • Broadcom Corp

  • Celeno Communications (radio only)

  • Intel Corp (radio only)

  • Marvell Technology Group

  • MediaTek, Inc.

  • Qualcomm Technology, Inc.

  • Quantenna Communications, Inc. (radio only)

  • Realtek Semiconductor Corp

This research report does not cover products from Airoha, Intersil or Lantiq, as none of these companies offers 802.11ac radios or companion networking processors SoCs. Redpine Signals was removed from this report, as the company has no known 802.11ac equipment design wins. EVALUATION CRITERIA RATIONALIZATION Criterion 1 ­ Complete 802.11ac Wave 1 or Wave 2 Chipset (Radio plus Wi-Fi Networking Processor SoC).


With a very small number of exceptions, enterprise and carrier Wi-Fi access point OEMs (and their ODM partners typically in Taiwan) are unwilling to mix radios and networking processor SoC in their system designs. There are numerous compelling reasons for this industry dynamic. First, complete “homogeneous” (single supplier) chipset suppliers optimize system performance for their own radio and networking SoC (plus one or two third-party RF front end designs), and these suppliers are generally unwilling to optimize system performance for system designs that include competitor silicon and software (this optimization process generally requires release of proprietary firmware or software source code, for example). This means the equipment OEM must optimize a “mixed supplier” chipset themselves. To make matters worse, the chip suppliers will typically hold back on application engineering support to customers attempting to integrate and optimize a “heterogeneous” (multiple supplier) chipset, both because of ambiguous technical accountability, and to apply business leverage on the equipment OEM to abandon the heterogeneous design, and adopt the supplier’s complete homogeneous chipset. Additionally, the semiconductor suppliers will typically provide more attractive pricing for a complete chipset design win than for discrete radio or networking SoC chips.


The R&D and sustaining engineering support resources required by the equipment OEM to integrate and optimize a heterogeneous chipset are much higher than using a complete reference design from a single supplier. Clearly there would have to be a major technical benefit (much higher performance, much lower power, much smaller form factor) to a heterogeneous chipset to justify the higher marginal manufacturing cost and the much higher development and support costs. There is little or no compelling evidence of any “breakthrough level” technical benefit in the publically available test results published by access point equipment OEMs using heterogeneous chipsets.


The particular criterion is “binary”: complete radio plus Wi-Fi networking processor SoC suppliers receive four points; and radio only suppliers receive one point. There are no intermediate point scores between one and four. One point is awarded to radio only suppliers because in all cases they have reference design relationships with Wi-Fi networking processor SoC suppliers such as Lantiq, Freescale and Intel.


Due to this industry dynamic, suppliers who can offer complete 802.11ac chipsets (radio plus networking SoC) have an overwhelming commercial advantage over those suppliers who offer discrete radios or discrete networking processor SoCs, and thus this criterion is ranked #1 in the EJL Wireless Research Wi-Fi Chipset Supplier BullsEye Analysis.


Details of the new report, table of contents and ordering information can be found on Electronics.ca Publications’ web site. View the report: Supplier BullsEye Analysis 802.11ac WiFi Chipsets.


 



Wi-Fi Semiconductor Chipset Analysis - Wi-Fi Ascending ­ Now More Than Ever

Wednesday, January 13, 2016

PCB Industry Results for September 2015

North American PCB Sales Growth Continues


IPC — Association Connecting Electronics Industries® announced today the September findings from its monthly North American Printed Circuit Board (PCB) Statistical Program. Sales growth continued in September and the book-to-bill ratio fell back to a more normal but still positive 1.05.


Total North American PCB shipments increased 3.3 percent in September 2015 compared to September 2014. Year-to-date shipment growth finally reached positive territory at 0.3 percent, after struggling to overcome negative sales growth rates seen earlier this year. Compared to the previous month, PCB shipments were up 12.1 percent.


PCB bookings decreased 2.0 percent compared to September 2014, reducing year-to-date order growth to 5.2 percent. Orders were down 7.4 percent in September compared to the previous month.


“The North American PCB industry continues to see modest but positive sales growth, the result of strong order growth in most months of 2015. Orders contracted in September bringing the book-to-bill ratio down from a 5-year high in August to a more moderate level,” said Sharon Starr, IPC’s director of market research. “The book-to-bill ratio remains positive for the 12th consecutive month,” she added, “which is a strong indicator of positive sales growth in the fourth quarter of this year and into next year.”


PCB Book-to-Bill ratioPCB Sales Data


Detailed Data Available


The next edition of IPC’s North American PCB Market Report, containing detailed September data from IPC’s PCB Statistical Program, will be available within the next week. The monthly report presents detailed findings on rigid PCB and flexible circuit sales and orders, including separate rigid and flex book-to-bill ratios, military and medical market growth, demand for prototypes, and other timely data.


Interpreting the Data


The book-to-bill ratios are calculated by dividing the value of orders booked over the past three months by the value of sales billed during the same period from companies in IPC’s survey sample. A ratio of more than 1.00 suggests that current demand is ahead of supply, which is a positive indicator for sales growth over the next three to six months. A ratio of less than 1.00 indicates the reverse.


Year-on-year and year-to-date growth rates provide the most meaningful view of industry growth. Month-to-month comparisons should be made with caution as they reflect seasonal effects and short-term volatility. Because bookings tend to be more volatile than shipments, changes in the book-to-bill ratios from month to month might not be significant unless a trend of more than three consecutive months is apparent. It is also important to consider changes in both bookings and shipments to understand what is driving changes in the book-to-bill ratio.


IPC’s monthly PCB industry statistics are based on data provided by a representative sample of both rigid PCB and flexible circuit manufacturers selling in the USA and Canada. IPC publishes the PCB book-to-bill ratio at the end of each month. Statistics for the current month are available in the last week of the following month.


Details of the new report, table of contents and ordering information can be found on Electronics.ca Publications’ web site.  View Report Contents: IPC’s North American PCB Market ReportElectronics.ca Publications is an IPC member and authorized distributor of IPC industry standards, workforce training products, and market research reports.


 



PCB Industry Results for September 2015

Trending Terms Covering the Newest Emerging Technologies

What’s relevant for today’s OEM, EMS or ODM Company?


Each year, a new slew of terms and definitions become common place in the manufacturing process. To meet these needs, T-50 Revision M, Terms and Definitions for Interconnecting and Packaging Electronic Circuits, delivers users the most up-to-date descriptions and illustrations of electronic interconnect industry terminology. It is a dynamic standard that adapts to the industry to provide the most thorough dictionary in the industry.


PURCHASE IPC T-50M NOW


IPC-T-50M

Terms and Definitions for Interconnecting and Packaging Electronic Circuits


 


IPC T-50M brings over 150 new terms, while eliminating out-of-date terminology in order to provide a streamlined standard that focuses on the trending language of the electronics industry. This revision includes terms often cited in other standards, such as:


  • Conformal coating

  • Statistical Process Control

  • Stencil Design

Stay up to date with the trending terms covering the newest emerging technologies. Prepare for tomorrow’s discussions by purchasing T-50M today.


 


 



Trending Terms Covering the Newest Emerging Technologies

Monday, January 11, 2016

Graphene and 2D Materials Technologies, Production & End-User Markets


Two-dimensional(2D) materials are currently one of the most active areas of nano-materials research, and offer a huge opportunity for both fundamental studies and practical applications, including superfast, low-power, flexible and wearable electronics, sensors, photonics and electrochemical energy storage devices that will have an immense impact on our society.


Graphene is a ground-breaking two-dimensional (2D) material that possesses extraordinary electrical and mechanical properties that promise a new generation of innovative devices. New methods of scalable synthesis of high-quality graphene, clean delamination transfer and device integration have resulted in the commercialization of state-of-the-art electronics such as graphene touchscreens in smartphones and flexible RF devices on plastics.


Beyond graphene, emerging elementary 2D materials such as phosphorene and silicene will potentially allow for flexible electronics and field-effect transistors that exhibit ambipolar transport behaviour with either a direct band-gap or greater gate modulation.


Graphene exhibits a unique combination of mechanical, thermal, electronic and optical properties that provide opportunities for new innovation in flexible displays, transistors, photosensors, RFID tags, solar cells, secondary batteries, fuel cells, supercapacitors, conductive inks, EMI shielding heat insulation, anti-oxidation, LEDs across multiple industries including consumer electronics, automotive, aerospace, medicine, energy, 3D printing, polymer composites, wireless technology, filtration and coatings.


Graphene possesses (theoretically) record high electrical and thermal conductivity, transparency at all wavelengths, flexibility and outstanding mechanical strength. The global market for graphene continues to grow with weekly technology and production breakthroughs, new public and private investments and public listings of graphene producers. There are now over 150 companies either producing graphene or developing applications, with as many multi-nationals conducting R&D on these materials.


Relatively few graphene products have reached the market as yet, and until recently those that have mainly incorporate graphene additives to enhance toughness and flexibility. Products include smartphone touchscreens (Wuxi), tennis rackets (Head), bicycle rims (Vittoria), flexible battery straps and printed RFID antennas (Vorbeck), paint (Graphenstone), cycle helmets (Catlike), thermometers (Linktop Technology) and oil-drilling muds (Graphene Nanochem).


However, a number of energy related products have hit the market in 2015, including Zap&Go, a graphene supercapacitor that can help extend the battery life of smartphones, produced by Zapgocharger. Skeleton Technologies has also launched a graphene-enhanced supercapacitor with a capacitance of 4500 farads.


Graphene Lighting PLC has announced that a graphene light bulb with lower energy emissions, longer lifetime and lower manufacturing cost will be launched in 2015. In March, Graphene 3D Labs, Inc. announced the commercial availability of 3D graphene filaments for 3D printing applications. Sher-Wood Hockey has announced they are bringing a graphene-enhanced carbon fibre Rekker EK60 hocky stick to market. UK company Xefro has created a graphene-based heating system that can reduce energy costs up to 70 per cent. The product, gRAD, uses graphene as a heating element. Graphene Nanochem recently won a $28 million order from an oil company for its PlatDrill Series drilling fluid.


There is likely to be significant short-term opportunities in applications such conductive formulations and inks for printable electronics, coatings and electronic textiles; anti-corrosion coatings; current collector and separator coatings; thermal management; Li-ion batteries; Li-S batteries; supercapacitors (mainly for mobile electronics applications); EMI shielding materials and in anti-static and mechanical reinforced composites and barrier films. In most of these applications scale-up is relatively straightforward and performance benefits have been clearly demonstrated.


Medium-term growth will be witnessed in sensors and desalination membranes. Longer-term bets are in organic electronics applications (OLED, displays and solar PV), semiconductors and biomedicine. For graphene to meets its outstanding potential a number of significant challenges most be overcome. Low cost production processes must be developed and these production processes must be both scalable and suitable for integration into existing manufacturing processes and regulations. The challenges of consistently integrating graphene into products, either as graphene compounds or graphene components must also be met. Graphene also faces competition from incumbent materials such as carbon black, graphite and activated carbon that are relatively cheaper at present and already large-volume commodities.


Graphene and 2D Materials Market Opportunities Report


Graphene and 2D Materials Technologies, Production, End-User MarketsDetails of the new report, table of contents and ordering information can be found on Electronics.ca Publications’ web site. View Report Contents:The Global Market for Graphene and 2-D Materials: Technologies, Production, End User Markets and Opportunities Analysis, 2015-2025“.


WHAT DOES THE REPORT INCLUDE?


  • Comprehensive quantitative data and forecasts for the global graphene market to 2025.

  • Qualitative insight and perspective on the current market and future trends in end user markets based on interviews with key executives.

  • End user market analysis and technology timelines.

  • Financial estimates for the markets graphene will impact.

  • Patent analysis.

  • Competitive analysis of carbon nanotubes versus graphene.

  • Comparative analysis of graphene and other 2D Materials.

  • Tables and figures illustrating graphene market size

  • Full company profiles of graphene producers and application developers including technology descriptions and end user markets targeted

  • Profiles of prominent research centres

  • Industry activity and breakthroughs by market 2013-2016.



Graphene and 2D Materials Technologies, Production & End-User Markets