System-in-Package (SiP) on Wafer Level, Enabled by Fan-Out WLP (ewlb)

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System-in-Package (SiP) on Wafer Level, Enabled by Fan-Out WLP (ewlb) Steffen Kröhnert, José Campos, Eoin O Toole NANIUM S.A., Vila do Conde, Portugal

Outline Short Company Overview NANIUM Introduction to FO-WLP ewlb/ WLSiP Value Adding Packaging Enabler of the Enabler/ Toolbox Summary & Conclusions Acknowledgement - 2 -

Short Company Overview NANIUM 1996 1999 2006 2010 NANIUM was founded in February 2010. We offer Packaging, Assembly and Test (OSAT). Design, Development, Engineering & Manufacturing. - 3 -

Short Company Overview NANIUM State-of-the-Art facility located in Porto, Portugal. 520 Employees, thereof 140 Engineers (July 2012). 222,000 ft² (20.600 m²) Clean Room (1K, 10K, 100K). Cumulated Investment $1B. - 4 -

Short Company Overview NANIUM CREATIVE FAST PASSIONATE - 5 -

Introduction to FO-WLP ewlb/ WLSiP FO-WLP technology ewlb (embedded Wafer Level Ball Grid Array) introduced by Infineon Technologies AG; Creation of Backend Wafer by wafer RECONSTITUTION with KGD, components, (pick & place, overmolding); Thin film REDISTRIBUTION layers, bumping and singulation. - 6 -

Introduction to FO-WLP ewlb/ WLSiP 200 Mio ewlb Components Shipped High degree of freedom in die and component arrangement; Semiconductor System-in-Package built-up Packaging, on wafer. Assembly and Test High Volume Manufacturing in Europe October 2010 October 2012-7 -

Value Adding Packaging Assembly & Packaging was simply needed to: - Protect the chip; - Get it into the tester; - Get it mounted to the board w/ available SMT; - Redistribution of the contacts due to the pitch gap die to board. System integration on package level adds value to the product: - SiP and finally SOP as complimentary, but also alternative integration technology compared SOC. - 8 -

Value Adding Packaging MCM, MCP, SiP Definition MCM 2D / planar same dies MCM 2D / planar different dies MCP 2D+3D / stacked same dies MCP 2D+3D / stacked different dies MCM-SiP SiP 2D / planar / passives autonomous system MCP-SiP SiP 2D+3D / passives autonomous system Source: ALTOS - 9 -

Value Adding Packaging Today the majority of SiP is realized using laminated organic substrate based packages (BGA and LGA); Need to close the gap to System-on-Chip (SoC) performance, where short connections between the functional areas are inherent; HVM batch processing; Substrate-less, lower cost. - 10 -

Value Adding Packaging How to handle the critical triad of packaging: Performance, Form Factor and Cost Two general drivers for packaging: Driver A): Cost, Performance, Miniaturization Solution: Large Scale Panel, Batch Processing Wafer Level Packaging (WLCSP) Driver B): More functionality on same or less space Solution: System Integration, More than Moore System-in-Package (SiP) WLSiP Enabled by FO-WLP ewlb - 11 -

Value Adding Packaging X Wafer Reconstitution Chip Carrier Final Package (SiP) 26k KGD chips per wafer; Chips size 1x1mm² and 1.2x0.8mm²; Resulting in total of 13k SiP; Package size 2x3mm². - 12 -

Value Adding Packaging WDoD TM = WireFree Die on Die (patented wafer level technology by 3D-Plus) DDR3 quad die JEDEC compatible memory modules in package - 13 -

Value Adding Packaging ewlb wafer before RDL ewlb wafer DDR3 DRAM layers ewlb wafer bottom layer/ BGA - 14 -

Value Adding Packaging Special ewlb Multichip Module (imaging sensor arrays for medical applications); 10 dies per sensor array, Package size > 900mm². - 15 -

Enabler of the Enabler/ Toolbox Building blocks inside the WLSiP enabler toolbox Multi-Layer RDL Development Discrete Passives Integration Mold Edge, Die-to-Die Distance Reduction New Dielectric Materials Introduction High Power Dissipation Solutions Reduced RDL Line/ Space Development Thru Package Via / Double Sided RDL Development Package Size and Height Requirements Solder Ball / Pad Pitch Reduction - 16 -

Enabler of the Enabler/ Toolbox Reduction of ball pitch aims the increase in connection density; Miniaturization, while increasing density of microelectronics (<40nm foundry technology node); Reduced RDL Line/ Space Development Solder Ball / Pad Pitch Reduction 15um / 13um Meander Test Structure for Leakage Current measurements Routing ability RDL level; Must be followed by a correspondent reduction in RDL line/ space width (20/20 15/15 10/10). - 17 -

Enabler of the Enabler/ Toolbox L/S 15/15 Reduced RDL Line/ Space Development Solder Ball / Pad Pitch Reduction L/S 20/20-18 -

Enabler of the Enabler/ Toolbox The drivers for ML-RDL are: Need of higher routing level (more IOs, more traces); Shielding needs (ground plane); Power dissipation needs. Multi-Layer RDL Development - 19 -

Enabler of the Enabler/ Toolbox Test structures for leakage and contact resistance measurement Multi-Layer RDL Development 10um and 15um Leakage test structures (meander) 1st RDL 2nd RDL Different Contact Resistance Chains - 20 -

Enabler of the Enabler/ Toolbox To achieve the best valuable package to our customer, reduction of package form factor is mandatory; Benefiting from its reconstruction characteristics, ewlb can achieve outstanding reduced SiP dimensions Capabilities for very small distances between dies and between dies and package edge w/ high accuracy). Mold Edge, Die-to-Die Distance Reduction Schematic of test vehicle for testing of reduced die-to-package-edge distance - 21 -

Enabler of the Enabler/ Toolbox Discrete passives, besides the active dies, major component type integrated in SiP today; Moved from the board space around the packaged die closer to the die (inside SiP); Placement accuracy, component movement during and after wafer molding, interconnect behavior to the RDL was tested with good results. Discrete Passives Integration 0201 SMD Capacitors on reconstituted wafer - 22 -

Summary & Conclusions ewlb applications and markets, Trend to WLSiP M2M Communication ASIC + MEMS Automotive SiP Optoelectronics / Fiber Optics SiP Power Management Units Source: YOLE Développement, July 2012 Heterogeneous Integration, Medical & Security SiP Stacked DRAM PoP Wireless Consumer (BB, RF) ASIC + MEMS Consumer SiP Mixed Signal ASIC, RF & High Power Dissipation Legend: Development/ Setup Available R&D Activities ongoing - 23 -

Summary & Conclusions WLSiP combines system integration on package level with the advantages of large scale batch processing. Consequent step to achieve the performance and cost targets of the customers. FO-WLP technology ewlb has the clear potential to become a technology platform for system integration on wafer level, WLSiP is becoming industrial reality. Toolbox development to provide the building blocks. Continued design rule expansion to accomodate customer needs for new applications and markets. Generation of more and more reliability data to proof technology capability is ongoing. - 24 -

Acknowledgement NANIUM multi-disciplinary R&D-Team Members: - José Campos (R&D Head); - Eoin O Toole, André Cardoso, Vitor Henriques, Alberto Martins, Jorge Teixeira (Process Integration); - Isabel Barros (Material); - Abel Janeiro (Design); - Ana Leão (Test); - Oriza Tavares (Reliability). - 25 -