Packaging and Integration of Electronic and Photonic Microsystems

Hilton San Francisco Financial District, San Francisco, CA

Aug 29 - Sept 1, 2017

Speaker - Keynote Luncheon Speech


Challenges to Integrated Photonics Manufacturing
Wednesday, August 30, 2017
12:30PM – 2:00PM

Michel Liehr

Michael Liehr, CEO AIM Photonics

Michael Liehr is the Chief Executive Officer of the American Institute for Manufacturing (AIM) of Integrated Photonics and the SUNY Poly Executive Vice President for Technology and Innovation. Michael focuses on the creation of new semiconductor and related industries business opportunities, and is responsible for the effective and efficient operation of the SUNY Poly industrial programs including SUNY Polytechnic Institute's strategic 300mm advanced CMOS line, integrated photonic semiconductor and 3D packaging and the 150mm SiC power electronics. He is also SUNY Poly's Vice President for Research. Prior to this assignment, he led the Global 450mm Consortium through the start-up phase as the General Manager and was an IBM Distinguished Engineer.

Abstract: The American Institute for Manufacturing Photonics (AIM Photonics), a member of Manufacturing USA, is a manufacturing consortium headquartered in NY to advance the state of the art in the design, manufacture, testing, assembly, and packaging of integrated photonic devices. The scope of AIM Photonics spans several industry segments, with the most prominent and near term commercial segment of Datacom applications, to analog/RF, array and sensor applications that are expected to mature in the next few years. Photonic Integrated Circuits (PIC) technology enables optical systems to be miniaturized and fabricated on semiconductor chips. Just as electronic integrated circuits revolutionized electronics by miniaturizing transistor circuitry, PICs integrate lasers and other optical devices to route and process information with reduced size and power. PICs can also scale in complexity to do things that would not be possible using conventional optical design approaches. By putting these components on a single platform, PICs have the potential to advance technology in ways never before possible.

Targeted markets include:

  • New high-performance information-processing systems and computing
  • Compact biomedical sensor applications
  • Urban navigation, free space optical communications, and quantum information sciences
  • Other military applications, including electronic warfare, analog RF sensing, communications, and chemical/biological detection

In the first two years of operation, the institute has focused most of its resource to develop an infrastructure in electronic-photonic design automation, a multi project wafer offering, as well as test, assembly and packaging. These efforts are focused on the support of larger companies, SMEs, universities and federal agency needs. The industry paradigm shifts create a number of design, packaging, and assembly challenges that must be addressed before PIC technology can make its way into broad-based commercialization and volume manufacturing. AIM Photonics believes its collaborative approach will put in place an end-to-end photonics "ecosystem" that includes domestic foundry access, integrated design tools, automated packaging, assembly and testing, and workforce development, plus create a standardized platform to make it easier to scale the technology across multiple markets for companies of all sizes.

AIM Photonics uses the extensive 300 mm state-of-the-art equipment set in SUNY Poly Albany and welcomes customers to access the capabilities in a variety of access models, including a Multi-Project-Wafer (MPW) low-cost-of-entry program, customized and IP protected development, or early production support for limited volumes with or without ITAR protection and ISO certification. Photonic elements have been demonstrated repeatedly to operate at 50GHz. 3D and 2.5D assembly is supported in Albany at full wafer scale. AIM is currently outfitting a Test, Assembly, and Packaging operation in Rochester with an expected opening date in 3Q2017. The facility will enable full photonic packaging with laser and fiber attach, and at speed testing capabilities.

MetaMaterials for Thermal Management

Kenneth E. Goodson

Kenneth E. Goodson
Davies Family Provostial Professor
Bosch Department Chairman
Stanford Mechanical Engineering

Abstract: Thermal management is critical for electronic systems ranging from servers and smartphones to radar HEMTs and hybrid vehicle converters. Some great research progress is being achieved through thermal metamaterials, which offer unusual combinations of thermal, mechanical, fluidic, and other properties by means of micro- or nanoscale heterogeneity, porosity, and/or layering. This talk summarizes our efforts in this area with an emphasis on interface-dominated heat conduction and fluid transport physics, and highlights needs and opportunities for more research. One example is thermal switches for heat routing and transient temperature control. Recently we demonstrated 9:1 reversible thermal resistance ratios using Li intercalation in MoS2 multilayers. Another example is template-fabricated copper inverse opals which, when conformally coated into laser-etched diamond microchannels, facilitate very large heat fluxes for microfluidic two-phase heat sinks. These inverse opals can also encapsulate phase change materials, promising high effective heat capacity and thermal conductivity. This talk will highlight collaborations with the semiconductor industry, US defense companies and the NSF center on power electronics (POETS).

Bio Sketch: Ken Goodson chairs the Mechanical Engineering Department and holds the Davies Family Provostial Professorship at Stanford University. He is a heat transfer researcher, specializing in electronics cooling at multiple scales from nano conduction to microfluidic heat sinks. His lab has graduated 40 PhDs, nearly half of whom are professors at schools including MIT, Stanford, and UC Berkeley. Honors include the Kraus Medal, the Heat Transfer Memorial Award, the AIChE Kern Award, and Fellow grade with ASME, IEEE, APS, and AAAS. Goodson received the PhD (1993) from MIT and in 2001 he co-founded Cooligy, which built microfluidic cooling systems for the Apple G5 and was acquired by Emerson in 2006. At Stanford, serving as Mechanical Engineering Chair and Vice Chair since 2008, Goodson has led two strategic plans and launched hiring actions for 15 new faculty who are transforming the department’s scholarship and diversity.