Embedded Component in Panel Production A discussion of Market-Leading Technologies. Mark Beesley COO Advanced Packaging, a Business Unit of AT&S AG

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Transcription:

Embedded Component in Panel Production A discussion of Market-Leading Technologies Mark Beesley COO Advanced Packaging, a Business Unit of AT&S AG

Agenda Market and Status Value Proposition Process & Capabilities Application Examples Standardization Summary 2

Agenda Market and Status Value Proposition Process & Capabilities Application Examples Standardization Summary 3

Miniaturized Systems Yesterday Today Tomorrow Electronic component assemblies are moving to highly integrated modules Big challenges regarding design, technology, standardisation, supply chain, business model 4

Co-design Semicon Package Module PCB EMS OEM Stone Age 5

Co-Design Semicon Package Module PCB EMS OEM Classical Approach 6

Why embedding? Trends and challenges in electronics More functions Supply-chain complexity Smaller devices Industrial Aerospace Increased cost of high-end IC design Short cycles for design-to-market Automotive Lower power Mobile Military Increased component population Medical Increased clock frequency Fragile components Thermal management 7

Why embedding? Advantages of embedding More functions Supply chain complexity Smaller devices Short cycles for design-to-market Industrial Miniaturisation Automotive Aerospace Reliability Increased cost of high-end IC design Lower power Mobile Military Increased component population Ease-of-use Medical Performance Increased clock frequency Fragile components Thermal management 8

How is it done? Moving components from the surface and putting them inside the PCB substrate 1 2 3 Die Placement Lamination Structuring 9

Device count (Munits) Embedded die package unit shipment forecast Breakdown by application area (Munits) 7.000 Yole Developpement October 2012 6.000 5.000 4.000 3.000 2.000 1.000 0 2010 2011 2012 2013 2014 2015 2016 2017 2018 2019 2020 Automotive 0 0 0 0 2 6 11 21 35 64 91 Medical 0,00 0,00 0,00 0,02 0,03 0,05 0,09 0,15 0,22 0,30 0,38 Consumer 6 16 19 60 92 164 281 478 752 1.108 1.469 Mobile - Wireless 25 75 95 278 431 798 1.410 2.116 2.952 3.898 4.582 TOT 31 91 114 337 525 968 1 702 2 616 3 739 5 069 6 142 10

HERMES AT&S consortium leader Largest EU funded project focussed on INDUSTRIALISATION 11 partners driving Embedded Component Packaging technology Images HERMES consortium 11

Agenda Market and Status Value Proposition Process & Capabilities Application Examples Standardization Summary 12

2,5 mm 2 mm Miniaturization Example: MEMS µphone Standard solution ASIC + MEMS side by side Footprint: 8,4 mm² ECP -enabled solution ASIC embedded + MEMS on surface Footprint: 4 mm² Footprint reduction - 52% ASIC ASIC 3,35 mm 2 mm 13

Reliability Mechanical stress: Drop test [JEDEC JESD22-B111, 1000 drops @ 1500g / 0,5ms] Standard solution Daisy chain of passive components on top of an 8 layer substrate ECP -enabled solution Daisy chain of passive components within an 8 layer substrate R,C R,C R,C R,C R,C Components / Cu tracks take full weight of impact Embedded components and laser-via interconnects are tightly surrounded with protective FR4 Drops passed 304 Drops passed 1000 14

Reliability Thermal stress: TCT [1000 cycles @ -55 / 150 C] Standard solution Daisy chain of passive components on top of an 8 layer substrate ECP -enabled solution Daisy chain of passive components within an 8 layer substrate R,C R,C R,C R,C R,C TCT cycles passed 1000 Daisy chain on chip within a 4 layer substrate IC SMD vs ECP : Comparable performance! TCT cycles passed 1000 15

Performance Example: EMI-shielded module Standard solution Solder joints (less conductivity & more parasitics) Long path to other components (side-by-side components) No shielding (external shielding necessary increase of cost and z-dimension) ECP -enabled solution Cu-plated µvias (better conductivity & less parasitics) Short path to other components (stacked components) Intrinsic shielding (shielding by ground layers and edge plating / via stitching) EMI with ECP - 20dB IC R,C R,C R,C R,C IC 16

Ease-of-use Example: Mobile TV tuner Standard solution Components on PCB: 5 Solder pads on PCB: 44 Footprint on PCB: 29 mm² ECP -enabled solution Components on PCB: 1 Solder pads on PCB: 28 Footprint on PCB: 16 mm² Components in BOM - 80% Solder pads - 36% Footprint - 45% 17

Application focus ECP Sense. Power. Connect. Integrated Electronics Packaging solutions from AT&S 18

Ramping applications Feature Application X,Y Reduction Embedded Component advantage Power Voltage Convertor 40% Smallest footprint integrated module fully tested solution Charge Management 40% Stacked package for advanced Li-ion battery charge management Media Codec 30% Integrated module discrete passives stacked on ewlp Media & Wireless Mobile TV 50% Single device solution for mobile TV tuner NFC module 40% Stacked package for smallest footprint solution MEMS µphone 50% Superior performance MEMS µphone / pressure sensor with smallest form factor MEMS & Sensor Identification New feature Integrated biometric sensing Position sensor 50% High accuracy Hall effect sensor advanced micro joystick application Shielding Sensitive devices 50% Implementation of shielding using the laminate package instead of metal can 19

Agenda Market and Status Value Proposition Process & Capabilities Application Examples Standardization Summary 20

Process Component Pre - process Laser- Drilling of fiducials + overlay Dielectric Printing Component Assembly Metallization Imaging Layup & Pressing Copper plating Laser Drilling Stripping + Etching Mechanical Drilling Automatic Inspection Desmearing Onward Processing Organic Substrate 21

Design guidelines 22

Production facility Total Manufacturing 3.000 m² Clean room Class 100K 1.200 m² Clean room Class 10K 200 m² Rapid Prototyping thanks to NPI team Dedicated ECP design center in Germany Supply chain management Prototype lead time 1-3 month thanks to Product and NPI Management Dedicated production facility in Leoben, Austria Production area 100-% ESD-protected We create more than 60 new prototypes per year with lead times of 1-3 months. Clean products through excellence in design for manufacturing! 23

Volume production experience March 2009 May 2009 Sept 2009 April 2010 Sept 2010 April 2011 May 2011 Now First Contact Prototyping Reliability Testing Production Ramp Up Customer Audits Dedicated Organisation Volume Production Millions of Shipped Units We are audited and approved to the highest standards. ECP is ready for your requirements today Units shipped: > 100 Mio AT&S Yield: > 99.5% Field returns: 0 24

Component requirements Wafer-based embeddables Pad finish needing Cu plating to contact with microvias (existing process for WLP components) Pad pitch adaptation to organicsubstrate design rules through RDL Wafer thinning to 100-150µm Passive discrete embeddables Use of thin components with copper terminations Availability of capacitors and resistors Other discretes (inductors) also in development Component thickness of 100µm 220µm Case sizes of 0201, 0402 and above Images AT&S 25

Versatile Integration Smart use of Embedded Component Technology Tech Diagram Description Applications 1 ECP Wafer-level fan-in/out Substrate-level routing Integration of discrete passives AT&S Production Mobile Power (mid integration) MEMS & Sensor substrates Media & Wireless 2 SESUB Substrate-level fan-in/out Substrate-level routing No discrete passives TDK Production Audio Power Management (high integrated PMIC) RF 3 NextGen Roadmap project Next generation highly integrated module packages 4 EmPower Dedicated power semicon package Integration of high-current and logic Discrete power semicon components Integrated Industrial power modules 26

ECP - Embedded Active Components Smart use of AT&S Embedded Component Technology ECP Solution #1 Fanned-in die + Passives ECP Solution #2 High density die + Passives ECP Solution #3 High density die + Passives Substrate thin-ness 300µm Substrate thin-ness 450µm Substrate thin-ness 300µm Passives integrated YES Passives integrated YES Passives integrated YES Die shrinkage LOW Die shrinkage MID Die shrinkage HIGH Package Cost Package Cost Package Cost * Select when Modified SMT components can be used Select when Die shrink gives cost advantage Select when Die shrink gives significant cost advantage or thin-ness is crucial * includes cost of moulded package 27

Embedded packaging = merger of worlds ECP PCB Pick & Place Epoxy Embedded Package + + = Large format substrate High speed assembly Mass production die adhesion Value add SESUB IC Substrate Die Placer Moulding Embedded Package + + = Mid-Large format substrate High accuracy assembly Mass production die encapsulation Value add 28

Design automation Released for mainline PCB-design platforms Mentor Expedition high-profile launch at DAC 2012 in San Francisco Cadence Allegro 16.5 (and above) with direct support of PCB layout with embedded components BENEFITS design automation, integrated design rules, thermal modelling, other simulation benefits c Contact AT&S to line up information from your system provider 29

Supply chain Incoming Wafer Cu-Bumping or RDL Wafer Thinning Wafer Dicing Chip Tape & Reel Passives ECP - Technology SMT assembly Overmolding Testing Solderballing Singulation and Packaging Semicon or foundry Customer or outsourced 30

Agenda Market and Status Value Proposition Process & Capabilities Application Examples Standardization Summary 31

Product Families 32

33

34

Other Application examples 35

Agenda Market and Status Value Proposition Process & Capabilities Application Examples Standardization Summary 36

Alliance of Market Leaders AT&S and TDK Standardization of Embedded Component Substrates March 11, 2013 37

AT&S and TDK Committed to the Ramp Up and Production of embedded component substrates and modules in high volume SESUB Synergy! ECP Modules Robust patent portfolio & turnkey provider in the field of component embedding Multiple patents related to embedding technology on hand Full flow from Design to Final Product including back-end capability readiness (Assembling, moulding, testing) Substrates A head start of 6-9 month in the field of cavity embedding processes Process knowhow & process parameters / specifications DFM and NPI capabilities Excellent Prototype performance Transferable mass volume experience 38

Value Proposition Second source availability Secured volume ramp up Access to next generation embedding standards Best-in-class Process knowhow transfer Freedom to Operate - robust combined IP portfolio Strong alliance = safe and controlled Embedding technology access 39

Need for Standardization 1 Integrated products using substrate embedding technology are selling since 2009 Volume is currently dominated by simple structures (DC/DC converter modules, MEMS, fan-out packages etc.) More complex module structures for mobile power, connectivity etc. are in volume production, and gaining momentum 2 3 Main drivers for the usage of embedding substrates are high miniaturization (x, y and z) and improved system performance The adoption of embedded substrate technology is rapidly expanding in different applications (media, wireless, MEMS, etc) 4 5 There are a few players offering substrate embedding, but with different flavours of technologies, different capabilities, different business models TDK and AT&S have formed an alliance with the clear intention and capability to drive standardization of embedded component substrates

Embedded Substrate Standards Standard 1 2 3 ECP SESUB Next Generation Embedding Technology To be developed Technical Specification Low-medium complexity Different component heights Low-medium I/O count High current >10A IC pitch > 200µm > 2 layers Thick Cu- layer >18µm High complexity Same component height High I/O count High current > 8A IC pitch < 80µm 4-6 Layers Thin Cu- layer <12µm Target = Minimum further 20% x, y, z reduction based on technology Combination Optimization Upgrade Embedding Technology by AT&S and TDK Key Applications Mobile Power (low-mid integration); MEMS & Sensor substrates; Media & Wireless Audio; Power Management (high integrated PMIC); RF Next generation integration concept Commercial Suitable cost-point to address substrate requirements Suitable cost-point to address module requirements Targeted cost structure for high integrated modules 41

Roadmap 1 (1) IP cross-license agreement (AT&S and TDK) COMPLETE 2 (2) Definition of standards for embedded substrates (AT&S and TDK) COMPLETE 3 (3) Volume ramp up of ECP at AT&S AVAILABLE Volume ramp up of SESUB at TDK AVAILABLE Dual source is a requirement = Business Trigger 4 (1) Volume ramp up of ECP at TDK + 6 months Volume ramp up of SESUB at AT&S + 6 months Next generation standard is a requirement = Roadmap Trigger 5 (1) Innovation and Development of Next Generation embedding technology + 12 months 6 Technology Transfer and Commercial package to enable future embedded technology providers (pooling) and expand the standard As needed

Agenda Market and Status Value Proposition Process & Capabilities Application Examples Standardization Summary 43

Summing up Leading chip-embedding technologies from AT&S Key benefits Miniaturization Reliability Performance Integration Embedded Component is in volume production Production-ready multiple sources High yield (>99.5%) NPI for rapid prototyping and supply-chain management Large number of projects with industry leaders Mobile devices Industrial Automotive 44

Global set-up with access to key markets International presence and key technology production overview Headquarters: Leoben-Hinterberg Plant: Chongqing (under construction) Plant: Ansan Target region: global Key technologies: HDI, special products, protoypes, quick turnaround business, rigid-flex PCBs EMBEDDED COMPONENT PACKAGING ECP Key production capability after completion: IC substrates Target region: Korea, Europe Key technologies: flexible and rigid-flex PCBs Plant: Shanghai Target region: global Key technologies: HDI volume business Headquarters Plant: Fehring Plant: Nanjangud Production plants Production plant under construction Sales offices Target region: Europe Key technologies: double-sided, flexible, semi-flexible, rigid-flex PCBs Target region: Europe, India Key technologies: double-sided and multilayer PCBs 45