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Overview of PSMA
PresenterErnie Parker, Chairman
Power Sources Manufacturers Association
• Founded in 1984• One of the three co-sponsors of the IEEE Applied Power Electronics
Conference (APEC), the premier power electronics conference • Forum for discussing and progressing issues of common concern to
the power sources industry, for the benefit of manufacturers, suppliers and users alike
Educate the electronics industry, academia, as well as government and industry agencies through: Published reports Educational seminars Technical conferences and workshops Conference exhibits
Our Mission: To integrate the resources of the power sources industry globally to more effectively and profitably serve the needs
of the power sources users, providers, and PSMA members
PSMA Organization
POWER ELECTRONICS
PACKAGINGCOMMITTEE
SEMICONDUCTOR COMMITTEE
MARKETING COMMITTEE
ALTERNATIVE ENERGY
COMMITTEE
ENERGY EFFICIENCYCOMMITTEE
INDUSTRY-EDUCATIONCOMMITTEE
TECHNOLOGY ROADMAP
COMMITTEE
ADVISORY COUNCIL
PSMA’s work is done by industry leaders on a volunteer basis.
ENERGY HARVESTINGCOMMITTEE
MAGNETICSCOMMITTEE
CAPACITOR COMMITTEE
TRANSPORTATION POWER
ELECTRONICS COMMITTEE
SAFETY & COMPLIANCECOMMITTEE
Management CommitteeBOD- Board of Directors
A forum for discussing common concern to the power sources industry, for the benefit of manufacturers, suppliers and users alike
Major Projects
International Symposium on 3D Power Electronics Integration and Manufacturing (3D PEIM) – planned for June 2016
Power Supply in Package/Power Supply on Chip – completed 2 reports – held 4 Workshops – another planned in 2016
Engineering Efficient Buildings Workshop – Spring 2014 & 2015
Energy Efficiency Data Base – continuously updated
Nanotechnology Courses - PSMA Nano 100, PSMA Nano 200, and PSMA Nano 300 E-Learning Colloquium
Power Technology Roadmap 2015 – Workshop and Report
APEC Student Travel Support – now jointly sponsored by IAS and PELS
Publish Out of Print Magnetics Books
Recent PSMA Publications
PSMA Power Technology Roadmap (2013, 2015)
Technology Report - Current Developments in 3D Packaging with Focus on Embedded Substrate Technologies (2015)
Power Electronics and Electrical Challenges for Energy Efficient Buildings - A Report on the Energy Efficient Workshop (2014)
Technology Report - 3D Power Packaging (2014)
Are You Smart Enough for the Smart Grid? PSMA-EPRI Workshop Report (2013)
Soft Ferrites – Properties and Applications by E. C. Snelling – Reprint (2013)
Working With Others
CEC - California Energy Commission CPSS - China Power Supply Society ECIA – Electronic Components Industry Association Emerge Alliance Energy Star EPA - Environmental Protection Agency EPRI - Electric Power Research Institute EPSMA - European Power Supply Manufacturers
Association iNEMI - International Electronics Manufacturing Initiative NYSERDA - New York State Energy Research and
Development Authority PEIC – Power Electronics Industry Collaboration PICMG – PCI Industrial Computer Manufacturers
Group TTA – The Transformer Association
Some of the 42 Regular Member Companies (183 total members)
PSMA Power Technology Roadmap Committee Co-Chairs:
Aung Thet Tu
2015 Power Technology RoadmapTrends 2014 – 2019
Dhaval Dalal
Eric Persson
Conor Quinn
Co-chairs for 2013 and 2015 Technology Roadmaps
Co-chairs for 2017 Technology Roadmap in work
• Power Technology Roadmap► What/Why (Purpose)► When/How (Methodology)► Retrospective Analysis
• 2015 Results► Structure ► Product Technology Trends ► Components Trends► Application Trends and Emerging Technologies
Outline
PSMA Power Technology Roadmap
Capture Trends Driving New Technology in Power Conversion
• 1st Workshop Generated Roadmap in 1994► Workshop was led by Bob Freund, AT&T Bell Laboratories
• Subsequent Roadmap efforts have evolved by learning from doing and by improved participation
• Since 2009 roadmap has been updated every other year
• Purpose of Technology Roadmap is Communication
Report StructureCan best be summarized by
2015 Report Content
Application Trends►Automotive►Computing►Consumer► Industrial►Lighting►Medical►Military/Aerospace►Motor Control►Portable Charging►Renewables
Emerging Technologies►Power SoC►Server Power►3D Power
Packaging►Additive
Manufacturing►Magnetics►High Power
Wireless Transfer►Smart Grid►Energy Storage►Smart Building
2017 - 2019 Trend Tables►Ac-Dc front-end►Ac-Dc external► Isolated Dc-Dc►Non-Isolated Dc-Dc►Non-Isolated Dc-Dc
power supply in a package (PSiP)
Report Tables
Three Classes of MetricsFo
ur P
rodu
ct
Cat
egor
ies
Ac-
Dc
Fron
t End
Po
wer
Sup
plie
s
Ac-
Dc
Exte
rnal
Po
wer
Sup
plie
s
Isol
ated
Dc-
Dc
Con
vert
ers
Non
isol
ated
Dc-
Dc
Con
vert
ers
General Requirements
Design and Components
Packaging, Thermal Management
Ac-Dc Front End Efficiency
• Actual is above or at projected in both
• Gap between high-end and low-end smaller in 48V
• Consistency in projected numbers (2010/15)
• 12 V high-end projections catching up to 48 V
80828486889092949698
2003 2005 2007 2009 2011 2013 2015 2017 2019 2021
Effic
ienc
y (%
)
Year
Efficiency @ 48 V Output
Actual (Low-End) Projected (Low-End)
Actual (High-End) Projected (High-End)
84
86
88
90
92
94
96
98
2003 2005 2007 2009 2011 2013 2015 2017 2019 2021
Effic
ienc
y (%
)
Year
Efficiency @ 12 V Output
2015 Report Content: Webinars
• Power Architectures (4)– Datacenter HVDC (Stephen Oliver, Vicor)► Automotive Motor Drives (Babak Fahimi, UT Dallas)– 400 VDC Distribution (Brian Davies – Andean Power Products, David Greary- StarLine DC
Solutions, BJ Sonnenberg - Emerson)► Topology Trends (Steve Mappus, Fairchild)
• Technology and Market Forces (5)– Technology Convergence (Alix Paultre, PSD)► 3-D Packaging (Brian Narveson, PSMA)– Mission-Critical Power (Dusty Becker, Emerson)► Trends in CSC Automotive App’s (Pierric Gueguen, Yole)– Digital Power (Dave Freeman, TI)
• Components (4)– GaN New Life… (Alex Lidow, EPC)►SiC BJT (Ranbir Singh, GeneSiC)– GaN Power Supply Trends (Eric Persson, IR)►HV SiC FETs (Jeffrey Casady, Cree)
Technology Roadmap Highlights
• Ac-Dc Front End – PFC Stage: magnetic materials limiting fsw (typ. < 150 kHz)– Slower adoption of WBG devices due to low switching frequencies
• Ac-Dc External– Advances driven by demand for smaller size, higher eff. regulations
• Isolated Dc-Dc– Demand shift from Communications to Computing– Increasing use of 1/8 and 1/16 brick for 100 W power– Regulated or semi-regulated outputs dominate over unregulated
• Non-Isolated Dc-Dc– Outputs continue to drive into Sub 1-volt region– Digital control and / or interface increasing expected– Semiconductor companies taking lower end (PSiP/PSoC)
• WBG Semiconductors– Lower voltage GaN increasingly competitive; Si continues dominance
Technology Reports on 3D Power Packaging:
A Special Project of the PSMA Power Electronics Packaging Committee
Committee Co-Chairs: Ernie Parker & Brian Narveson
Phase 1 report: 3D Power Packaging, February 2014
Phase 2 report: Current Development in 3D Packaging With Focus on Embedded Substrate Technologies, March 2015
Areas of Study
Embedding of components within PCBs and inorganic substrates
High Temperature Die Attach
Thermal Management
Packaging Technologies
Interposers
Embedded Passives: Resistors, Capacitors, & Magnetics
Additive Manufacturing and Laser Fabrication
Overview of PSMA Special Project on 3D Packaging for Power
• PSMA contracted Tyndall National Institute to conduct a study of trends in 3D packaging for power in phase 1
• The technology report from this study covered 3D trends spanning:– Chip scale packages using stacking, transposers, integration, etc.– PCB mountable module type packages– High Power Modules > 1 kW
• Embedding components in substrates was a common theme across power levels and became the focus for phase 2 of the special project
• Ltec Corporation commissioned for Phase 2 Technology Report:– Research of published material from industry, government and academia– Interviews with Industry and Academic Experts– Attending trade shows and seminars
This presentation focuses on the current state of the art and emerging trends for embedding components in PCBs and organic
substrates for power electronics
What is 3D Power Packaging
• Power supply products derived from the use of the z axis• Incorporation of a variety of technologies to reduce footprint• Solutions that increase power density (W/cm3)• Manufacturing solutions that can print or construct interconnects or
circuit layers
Embedding Actives or Passives in Substrate
Shinko Electric’s MCEP® PackageSource: Shinko Electric
What is Embedded Substrate Technology
• A 3D Embedded Power Module is a “systems that use a combination of at least one controller/driver IC, at least one active component in the power train, and associated interconnect means, embedded in a single package.”
• Component embedding is “the inclusion of at least one active or passive electrical component within the top and bottom conductive layers of a substrate.”
• A substrate is defined for this study as “a planar structure having multiple conductive and insulating layers.”
Emerging Technologies: Components
• Wide band gap semiconductors:– SiC and GaN enabling higher frequency, higher
temperature operation smaller power electronics, higher efficiency, lower weight
• Embedded Components
23Source: PSMA Technology Report, Current Developments in 3D Packaging Technologies with Focus on Embedded
Substrate Technologies, March 2015
Embedded Capacitors Embedded Magnetics
Embedded Resistors
Bel Fuse Internal embedded multiple
transformer construction
Emerging Technologies: High Density / High Temperature Packaging
Cooling: Increased use of heat pipes; phase change or liquid cooling to select high power components and residual air elsewhere
24
Water board (Schweizer)
3D Packaging:Leveraging the advances from microelectronics to
power packaging
AT&S Embedded Component Packaging (ECPTM) Process Flow
3D printed housings in plastic or metal are
possible today –carbon fiber coming
Printable electronic circuits
Source: NC State Univ. – PREES Lab
Embedded Active Components
• Significant progress was made through two EU Framework Programmes, “HIDING DIES” [FP6] and “HERMES” [FP7]
– HIDING DIES developed the technology for embedding components– HERMES focused on commercialization of the technology
• TI’s MicroSIP is the 1st commercial dc-dc producedwith HERMES ‘face down approach’
– ROHM/TDK created a 2nd source using SESUB process
Cross section of "SEmiconductor embedded in SUBstrate" (SESUB)1,2
Embedded Components
Formed Passives Inserted Passives Active Devices
Component Types and Processes
Example of an embedded assembly Source: IPC International Technology Roadmap
3D Packaging Study Summary
• The digital world is going 3D to increase capability in the same footprint
• Digital 3D will greatly increase the need for power but not increase the available space to implement it
• Embedded Substrate technology is a viable path to increase power density
• Multiple substrate and semiconductor technologies are available at many power levels
• Both formed and inserted components are available from multiple suppliers
• Multiple power manufactures are shipping product utilizing embedded technology
• Less than 5% of the material in the report has been presented. Contact PSMA to find out how to get a copy.
PSMA Summary
• With its activities, PSMA– Anticipate and influence shifts in
• user requirements, • component technologies, and • design and manufacturing techniques
– Assist our industry and society globally in its pursuit of energy conservation and better utilization.
Our Mission: To integrate the resources of the power sources industry globally to more effectively and profitably serve the needs
of the power sources users, providers, and PSMA members
Thank You