1. Introduction of Photonics 21 2. IMEC: Electronics ICT report Chee Wee Liu, Department of EE, NTU.

Slides:



Advertisements
Similar presentations
Assembly and Packaging TWG
Advertisements

July 14, 2010 San Francisco, California Marriott Hotel Assembly and Packaging.
1 DG INFSO Directorate G: Components and Systems.
Metal Oxide Semiconductor Field Effect Transistors
Solomon Assefa, Nature, March 2010 Reinventing germanium avalanche photodetector for nanophotonic on- chip optical interconnects Jeong-Min Lee
Latest development of InGaN and Short-Wavelength LD/LED/VCSEL 屠嫚琳 Man-lin Tu.
Engineering and ICT - BaltSmartTech Cluster Baltic innovative research and technology infrastructure project (BIRTI) G. Bazbauers, Riga Technical University.
MonolithIC 3D  Inc. Patents Pending 1 The Monolithic 3D-IC A Disruptor to the Semiconductor Industry.
Silicon photonics is the merging of silicon electronic components, and photonics. Silicon has revolutionized the electronics industry due to the following.
European Cooperation in the field of Scientific and Technical Research COST is supported by the EU RTD Framework Programme ESF provides the COST Office.
Silicon Laser Shyam Sabanathan Chenjing Li Thannirmalai.
ELMO ELMO - Miniaturising Electronics Duration: Estimated volume: 100 million euros, of which Tekes accounts for approximately 50 million euros.
Advancing electronics and photonics through interdisciplinary research.
© imec IMEC and its DESICS division. © imec Personnel (1999): ± 850 people 30,000 m 2 facilities, incl. 6000m 2 ultra clean processing area.
ICT 2 Smart System Integration Henri Rajbenbach, Cosmin Codrea DG CONNECT, A.4 Components ICT 2 - Smart System Integration NNCP Training – Brussels – 23-Oct-2013.
Name – June 11, 2010 – 1 UTober_ExCo Call Preparation on PPP – September 1, 2012 Photonics21 research priorities for the ICT work programme 2013 Work Group.
Photonic technologies are very important and everywhere!
Renewable Energies for Transportation, Electricity and Energy Storage Technologies (Round Table 3) U.S. Policies and Programs John P. Millhone Representing.
© Imperial College London 1 Photovoltaics: Research at Imperial College Jenny Nelson Department of Physics Imperial College London Grantham Climate Change.
1 Chapter 2 Electic-ight conversion. 2 p-n junction We insert atoms of another material (called dopants) into a semiconductor so that either a majority.
2015/9/4System Arch 2008 (Fire Tom Wada) 1 SEMICONDUCTOR TECHNOLOGY -CMOS- Fire Tom Wada.
1. 2 Electronics Beyond Nano-scale CMOS Shekhar Borkar Intel Corp. July 27, 2006.
MonolithIC 3D Inc., Patents Pending MonolithIC 3D ICs RCAT approach 1 MonolithIC 3D Inc., Patents Pending.
R.Burgess 2 June National Contact Point Meeting Photonic Components: Strategic Objective Ronan Burgess European Commission Directorate General Information.
IHP Im Technologiepark Frankfurt (Oder) Germany © All rights reserved IHP Technology Roadmap Update and Future.
Presentation by Maria Rangoussi, Dean, Faculty of Engineering ( ( ) “SENS-ERA” Project Kick-off Meeting Georgian Technical.
SRA of the Photonics21 ETP FP7-ICT cooperation market on broadband communication 16th Mobile Summit - Budapest, Hungary - 5 July 2007 Sebastian Krug, VDI.
International Conference EU-RF R&D Cooperation Moscow  Report of Working Group «Indusry of nanosystems and materials» State R&D programme.
COLUMBIA UNIVERSITY Department of Electrical Engineering The Fu Foundation School of Engineering and Applied Science IN THE CITY OF NEW YORK Microelectronic.
NANOMETER SCALE LITHOGRAPHY DANIEL BERNARD – BENJAMEN STROBELAPRIL 29, 2013 EE 4611 – STANLEY G. BURNS NANOMETER SCALE LITHOGRAPHY, ALSO KNOWN AS NANOLITHOGRAPHY,
Si-based On-chip Optical Interconnects
Presented By : LAHSAINI Achraf & MAKARA Felipe.  Introduction  Difficult Challenges : > Difficult Challenges between 2013 – 2020 > Difficult Challenges.
Light. Questions ??? What is light? What is light? Why can we see objects in the presence of light? Why can we see objects in the presence of light? How.
Overview of Semiconductor Technologies Key Semiconductor Technologies. - Bulk silicon, SOI, III-V and II-VI semiconductors. Economic Impacts of Semiconductor.
ITRS: RF and Analog/Mixed- Signal Technologies for Wireless Communications Nick Krajewski CMPE /16/2005.
Nano-electronics Vision: Instrumentation and methods for analysis of atomic scale physical properties, and methods to correlate these properties with nano-electronic.
Importance of Materials Processing  All electronic devices & systems are made of materials in various combinations  Raw materials are far from the final.
Interconnect Technologies and Drivers primary technologies: integration + optics driven primarily by servers/cloud computing thin wires → slow wires; limits.
Tezzaron Semiconductor 04/27/2015 New Trends in Advanced 3D Vertical Interconnect Technology 1.
Future Internet Architecture: The NSF FIND Program Dynamic Optical Circuit Switched (DOCS) Networks for Future Large Scale Dynamic Networking Environments.
1 Objective 3.2 Smart Components and Systems Integration Georg Kelm, DG INFSO, Nanoelectronics InfoDay, Brussels, 11 October 2010 FP7 ICT Work Programme.
MANISH GUPTA. Presentation Outline Introduction Motivation Content Expected Impact Funding Schemes & Budget.
Photonics A Key Enabling Technology of Europe Berit Wessler Strategic Technology Cooperation OSRAM AG Board of Stakeholders, Photonics21.
Internet of Things. IoT Novel paradigm – Rapidly gaining ground in the wireless scenario Basic idea – Pervasive presence around us a variety of things.
2. Design Determine grating coupler period from theory: Determine grating coupler period from theory: Determine photonic crystal lattice type and dimensions.
Optoelectronics.
EE 4611 INTRODUCTION, 13 January 2016 Semiconductor Industry Milestones Very pure silicon and germanium were manufactured PN junction diodes.
Introduction to ECE530 Analog Electronics What is it? Outline Why?
0 Dr. Peter Frey │ SOLARVALLEY MITTELDEUTSCHLAND │ Paris, 14. April 2011 PV production in Germany - threats & opportunities Dr. Peter Frey, CEO Solar Valley.
ICT – SSI Smart System Integration Henri Rajbenbach European Commission DG CONNECT (Communications Networks, Content and Technology) ICT-03 -
Tyndall National Institute Confidential Document | Dated : April : 2012 Tyndall National Institute Confidential Document | Dated : April :
Micro and Nano Fabrication Technology Road Map and Commercialization Challenge in Japan National Institute of Advanced Industrial Science and Technology.
Electronic devices which are  Optically transparent  See-through  Invisibly light in weight  Transparent in visible portion of the Electromagnetic.
ICT 25 Generic micro- and nano-electronic technologies Marc Boukerche DG CONNECT, A.4 Components.
Dirk Beernaert European Commission Head of Unit Nanoelectronics EC Programmes in Micro & nanoelectronics A way to a bright future? EU 2020, KET, H2020,
IC1301 -WiPE Optical Power Delivery and Data Transmission in a Wireless and Batteryless Microsystem Assoc. Prof. Şenol Mutlu Boğaziçi Unviersity,
Outlook Overview Departments and research groups
Evaluation of Polydimethlysiloxane (PDMS) as an adhesive for Mechanically Stacked Multi-Junction Solar Cells Ian Mathews Dept. of Electrical and Electronic.
Main Research Areas Signal Processing and Communications
• Very pure silicon and germanium were manufactured
UKSG Introduction to Journals and E-Resources
Towards Smart Edge Devices: Challenges and Opportunities
TECHNOLOGY TRENDS.
LFoundry: an open foundry model enabling
Materials and Devices for Neural Systems and Interfaces
Photonics and Electro-Optical Engineering
SEMICONDUCTOR TECHNOLOGY -CMOS-
Applications for photonics are everywhere
ICT 29 : Development of novel materials and systems for OLED lighting
• Very pure silicon and germanium were manufactured
Presentation transcript:

1. Introduction of Photonics IMEC: Electronics ICT report Chee Wee Liu, Department of EE, NTU

Photonics21 Work Groups Photoncis21 is a European Technology Platform found in2005. The members of Photonics21 are representative of European photonics industry, research institutions and colleges. With 1400 members in 49 countries. 7 Work Groups (WGs): 4WGs are application-oriented, 3WGs focus on cross-disciplinary issues. WG1 Information & Communication WG2 Industrial Manufacturing and Quality WG3 Life Science & Health WG4 Lighting & Display WG6 Novel Optical Components & Systems WG7 Research, Education & Training WG5 Security, Metrology &Sensors Application Cross Section Issue

Energy-Efficient Lighting Toward Low-Carbon Economy -High efficient White LED (>180lm/W). -Low cost LED manufacturing. -Standardised LED light engines. Main application -Illumination and Displays. LED lighting Sodium lamps

Renewable Energy Generation Demand - 12% market share of EU electricity demand for photovoltaics in (EPIA) - 20% reduction in carbon dioxide emissions by Expected Efficiency in Improve solar cell efficiency by 30%. - Achieve costs < €0.1per kWh for electricity. Using Laser systems to improve the solar cell’s quality and performance. EPIA: EUROPEAN PHOTOVOLTAIC INDUSTRY ASSOCIATION

Information & Communication Demand - Network bit rates will be as high as 40Gbps and total transmission capacity per carrier will be in the 100 Tbps range by (from OIDA’s report) Large optical network system - Faster data communication (broad bandwidth access). On-chip optical interconnect - Si-based optical interconnect is a promising solution for a faster on-chip interconnect. - A novel technology used to replace old Cu metal contact. - Short-term application: inter-chip communication. - Long-term application: large optical integrated circuits (including optical logic devices). Intel‘s optical interconnect OIDA: Optoelectronics Industry Development Association

Life Science & Health Cancer -Laser surgery (Less invasive). -A faster and reliable cancer detection method (CARS, SRS). Eye cure -Cellular resolution image from within the retina (OCT). Preclinical research -High speed detection (real time 3D image). -High resolution image (angstrom-scale). -High precision. Under White light Under Fluorescent light Optical tomography CARS: Coherent anti-Stokes Raman Scattering microscopy SRS: Stimulated Raman Scattering OCT: optical coherence tomography

IMEC Research Programs CMOS Scaling ─ focus on (sub-)22nm technology nodes – Lithography, 3D integration, Emerging devices, Logic DRAM devices, Flash memories, Interconnects CMOS-based heterogeneous integration (CMORE) – SiGe MEMS, GaN power electronics and LEDs, Silicon photonics, Power devices, and mixed-signal technologies Human++ ─ healthcare domain – Wearable and implantable body area networks, with low-power components, radios and sensors, life sciences Energy ― Photovoltaics and GaN power electronics Smart Systems – Power-efficient green radios, large-area electronics, wireless autonomous transducer systems, innovative visualization systems

Lithography ― Water based ArF immersion lithography with double patterning ― Extreme ultra-violet (EUV) lithography (13.5nm wavelength). Logic/DRAM Devices ― High-mobility channel devices (Ge & III/V) ― Logic and dynamic RAM ― Scaling to 22 and 15nm nodes for bulk planar and MuG FETs ― Gate-first/gate-last HKMG (EOT scaling, single or dual dielectric) 22nm Interconnect technology (Cu/low-K) ― Scaling of the dielectric constant & Pitch ― Advanced barrier, seed, copper resistivity and copper contacts ― Barrier and dielectric reliability 3D integration ― through-silicon vias (TSV) Flesh ― floating-gate and nitride-based technology Emerging devices ― Resistive RAM (RRAM), Floating-body RAM (FBRAM) IMEC COMS Scaling TSV

Power devices and mixed-signal technologies ― High voltage Si-based power devices ― High-speed SiGe:C BiCMOS SiGe MEMS technology platform and design platform ― MEMS packaging ― Testing and Reliability of MEMS Silicon photonics GaN ― GaN epitaxial layer growth ― GaN for RF power amplification and high power conversion ― GaN light-emitting diodes Vision systems ― Hybrid backside illuminated imagers ― Hyperspectral imaging CMOS-based heterogeneous integration (CMORE) More-than-Moore R&D  A platform to turn novel concepts into products SOI waveguide

Wearable and implantable body area networks ― Wireless Sensors and actuators ― Ultralow-power analog interfaces ― Ultralow-power radio ― Micropower generation and storage ― Integration technology for wearable and implantable applications ― Integrated wearable systems Life sciences ― Functional nanosystems ― In-vitro bioelectronic systems ― In-vivo bioelectronic systems ― Biosensors ― Micro total analysis systems Human++ wireless autonomous sensor system

Photovoltaics (Solar+) ― Crystalline Si solar cells ― High-efficiency PV stacks for terrestrial concentrators (III-V cells) ― Thermovoltaic (TPV) systems for electricity co-generation (Low-bandgap cells) ― Organic photovoltaics GaN ― GaN epitaxial layer growth ― GaN for RF power amplification and high power conversion ― GaN light-emitting diodes Energy high-efficiency photovoltaic stack

Power efficient green radio ― Cognitive radio: opening new horizons in wireless communication ― 60GHz wireless communication: boosting high-data-rate short-range connectivity ― Ultralow power wireless: getting mega-performance from micro-Watts Vision systems ― Hyperspectral imaging ― Adaptive resilient embedded systems (ARES) ― MultiView Large-area electronics and systems-in-foil ― Organic light-emitting devices ― Organic photovoltaics ― Organic and oxide electronics Smart Systems Wafer with organic RFID