Welcome to the Australian National Fabrication Facility Matthew Chen Providing nano and micro-fabrication facilities for Australia’s.

Slides:



Advertisements
Similar presentations
MICROELECTROMECHANICAL SYSTEMS ( MEMS )
Advertisements

Australian National Fabrication Facility A company established under NCRIS to provide nano and micro-fabrication facilities for Australia’s researchers.
MICROFLEX S Beeby, J Tudor, University of Southampton Introduction to MEMS What is MEMS? What do MEMS devices look like? What can they do? How do we make.
Nanofabrication Breakout Session Results. Vision Elements Ability to fabricate, by directed or self assembly methods, functional structures or devices.
Vicki Bourget & Vinson Gee April 23, 2014
Lab-on-a-chip Devices for Cell Separation and Identification A PhD project at Macquarie University under the guidance of Dr. David Inglis and Prof. Ewa.
Overview of Nanofabrication Techniques Experimental Methods Club Monday, July 7, 2014 Evan Miyazono.
New Trends and Technologies for (N)MEMS
A.A. Balandin Graduate Study in Materials Science and Engineering Join us in the Next Technology Revolution Alexander A. Balandin Chair, Materials Science.
Lasers, molecular physics, optics, applications and all that … Brian J. Orr (CLA, Macquarie University)
Nanotechnology is receiving a lot of attention of late across the globe. The term nano originates etymologically from the Greek, and it means.
Advancing electronics and photonics through interdisciplinary research.
Synthesis of Metal Oxide Nanoparticles by Flame Method Synthesis of Metal Oxide Nanoparticles by Flame Method.
EE42/100, Spring 2006Week 15, R. White1 Micro- and Nanotechnology.
EE235 Class Presentation on Nanoimprint Lithography (Spring 2007) Fabrication of photonic crystal structures on light emitting diodes by nanoimprint lithography.
NIST Nanofabrication Facility. CNST Nanofab A state-of-the-art shared-use facility for the fabrication and measurement of nanostructures –19,000 sq ft.
MEMs Fabrication Alek Mintz 22 April 2015 Abstract
Introduction to microfabrication, chapter 1
1 ME 381R Fall 2003 Micro-Nano Scale Thermal-Fluid Science and Technology Lecture 18: Introduction to MEMS Dr. Li Shi Department of Mechanical Engineering.
MEMS for NEMS Solutions for the Fat Finger Problem Michael Kraft.
Nitride Materials and Devices Project
NANOSCALE LITHOGRAPHY MICHAEL JOHNSTON 4/13/2015.
McGill Nanotools Microfabrication Processes
Diliman – Katipunan “Silicon Alley” KATIPUNANAVEKATIPUNANAVE Ateneo de Manila University CP GARCIA AVE University of the Philippines ACADEMIC OVAL KEY.
Nanotechnology Manfred Scriba Materials Sciences and Manufacturing 27 October 2006
Nanophotonics Prof. Albert Polman Center for Nanophotonics FOM-Institute AMOLF, Amsterdam Debye Institute, Utrecht University.
Presentation by Maria Rangoussi, Dean, Faculty of Engineering ( ( ) “SENS-ERA” Project Kick-off Meeting Georgian Technical.
Franklin Ifeanyichukwu Uba Group meeting Louisiana State University May 3, 2010.
Basic Nanotechnology EHS Awareness Basics of Chemical and Material Properties—Role of Scale Basics of Chemical and Material Properties—Role of Scale Chemical.
Superhydrophilic Surface by Aluminum-Induced Crystallization of Amorphous Silicon Ken Kollias Pennsylvania State University Dr. Min Zou Mechanical Engineering.
Nanotechnology The biggest science and engineering initiative since the Apollo program.
Techniques for Synthesis of Nano-materials
Nano-electronics Vision: Instrumentation and methods for analysis of atomic scale physical properties, and methods to correlate these properties with nano-electronic.
Center for Materials for Information Technology an NSF Materials Science and Engineering Center Nanolithography Lecture 15 G.J. Mankey
Self-assembly Nanostructure and Lithography
VCI2010 Photonic Crystals: A Novel Approach to Enhance the Light Output of Scintillation Based Detectors 11/19/2015 Arno KNAPITSCH a, Etiennette AUFFRAY.
IC Fabrication Overview Procedure of Silicon Wafer Production
Passivation of HPGe Detectors at LNL-INFN Speaker: Gianluigi Maggioni Materials & Detectors Laboratory (LNL-INFN) Scientific Manager: Prof. Gianantonio.
Presented by Darsen Lu (3/19/2007)
SEMICONDUCTOR DEVICE FABRICATION AN OVERVIEW Presented to EE September 2015 by Stan Burns MWAH 153.
2. Design Determine grating coupler period from theory: Determine grating coupler period from theory: Determine photonic crystal lattice type and dimensions.
Microfabrication CHEM-E5115
MICROMACHINING TECHNOLOGY. Introduction Micromachining is used to create parts of size in the order of meters. Materials on a micrometer-scale possess.
Micro Electro Mechanical Systems (MEMS) Device Fabrication
1 Device Fabrication And Diffusion Overview 5 and 8 February 2016 Silicon Wafer Production-Refer to Chapter “0” Prologue Raw material ― Polysilicon nuggets.
Speaker: Shiuan-Li Lin Advisor : Sheng-Lung Huang
Evaluation itemsPoints/10 Relevance to topics Clearness of introduction Background and theory Delivery of knowledge Presentation materials and handout.
Developing a Versatile Platform for Nanoscale Materials Characterization Julia Bobak, Daniel Collins, Fatemeh Soltani, David W. Steuerman Department of.
Utah Nanofab Design Review Meeting Device Architecture (Top View Layout and Layer Cross Section) Recipes & Settings Standard Concept Equipment & Tools.
Evaluation of Polydimethlysiloxane (PDMS) as an adhesive for Mechanically Stacked Multi-Junction Solar Cells Ian Mathews Dept. of Electrical and Electronic.
SEMICONDUCTOR DEVICE FABRICATION
• Very pure silicon and germanium were manufactured
CEITEC Nano Research Infrastructure
Microfabrication CHEM-E5115 sami. fi victor
Fabrication of Photonic Crystals devices Hamidreza khashei
Mark Swihart Executive Director New York State Center of Excellence in Materials Informatics.
UV-Curved Nano Imprint Lithography
Electric Grid Technology Energy Storage Technology
Mechatronics Assignment#1 Topic: MEMS ACTUATORS Prepared by: Sandeep Sharma Dept of Electrical and Computer Engineering Utah State University.
Chris Ober Director Don Tennant Director of Operations.
BY SURAJ MENON S7,EEE,61.
National Nanotechnology Coordinated Infrastructure Site
4-year PhD in Nanoscience
Device Fabrication And Diffusion Overview
Introduction: Classification and Properties of Materials
Microelectronics Research Group
IC Fabrication Overview Procedure of Silicon Wafer Production
• Very pure silicon and germanium were manufactured
Metal Assisted Chemical Etching (MacEtch)
Device Fabrication And Diffusion Overview
Presentation transcript:

Welcome to the Australian National Fabrication Facility Matthew Chen Providing nano and micro-fabrication facilities for Australia’s researchers

Outline What is ANFF? What can ANFF do for you? Around the Nodes Accessing ANFF

= + Tools?

What is ANFF? A central organisation that provides access to a network of facilities and instrumentation across 8 university based nodes Associated technical expertise to assist with your fabrication needs National network allows access to a broad range of capabilities and expertise from across Australia OptoFab NSWSouth Aust QLD ACT WA VIC/MCN Materials

What can ANFF do for you? Access to first-class research and fabrication facilities across Australia Highly qualified personnel to assist with your fabrication needs Experience and proven expertise across a broad range of capabilities

Nanoelectronics & photonics Ultra-high resolution EBL Semiconductor processing Advanced deposition and etching

Bio-nano device fabrication Advanced photoresist Functional organics Sensors & medical devices

Advanced Materials CCG (Chemically Converted Graphene) Dispersion (0.5 mg/ml ) Conducting Polymers OPV Dyes Biomaterials Electrochromic materials

Process scaling Fibre Spinning Reel-to-reel printing Ability to process large wafers Pilot scale synthesis

Microfluidics

Linking expertise OptoFab NSWSouth Aust QLD ACT WA VIC/MCN Materials

NSW Node Single electron reader, representing a significant breakthrough in Si-based quantum computation [see Morello et al, Nature 467, 687 (2010)]. Silicon quantum dot, produced by CQCT using ANFF-NSW’s facilities Featured on the cover of Applied Physics Letters [Lim et al, Applied Physics Letters 94, (2009)]. User highlights Key expertise:Nanoelectronics and nano-spintronics Key capabilities:- High resolution electron beam lithography - Si MOS process line - Advanced deposition and etching

ACT Node Key expertise:–III-V Compound Semiconductors –Optoelectronics, waveguides, photonic crystals, Micro electromechanical systems (MEMS) Key capabilities:–Growth of III-V compound semiconductor multilayers –Electron beam lithography –Advanced deposition and etching Photonic chips made by CUDOS using ANFF ACT’s facilities. The chips were made from chalcogenide glass, allowing nonlinear optics in optimized materials and nanostructures, enabling high speed information processing beyond limits of electronics, User highlights

WA Node Key expertise:–II-VI Compound semiconductors –Optical nano/micro electromechanical systems –Infra-red array /sensor technology Key capabilities:–Integrated II-VI semiconductor growth, device fabrication, processing to device packaging & characterization –Advanced deposition and etching ‘Coloured' Infrared - researchers at the ANFF WA node created a minaturised hyperspectral spectrometer on a chip that enables colour vision in infra-red night vision User highlights Cavity Length, d V Mirror Incident IR Reflected IR Detector Silicon Nitride d = 1700nmd = 900nm

OptoFab Node Key expertise:–Optical materials, components and devices –Laser micro-machining Key capabilities:–Advanced photolithography (e.g. photomask production) –Optical characterisation –Optical fibre and Lithium niobate device fabrication –Laser micro-machining Olympic torches for the Sydney 2000 and Athens 2004 Olympics Nozzle outlet were laser machined by the frequency doubled Nd:YAG laser User highlights

Materials Node Key expertise:–Novel polymer and ceramic nanomaterials –Organic Electronic devices –Batteries and Energy storage Key capabilities:–Design and fabrication of organic/ inorganic nanostructured materials/devices –Pilot-scale fabrication for proof of concept –Inkjet printing “Solar Paint” – a water soluble organic photovoltaic paint made by Prof. Dastoor’s group at UoN. Top 5 finalist on ABC’s hit show “The New Inventors” User highlights Australian Institute for Innovative Materials (AIIM) Processing & Devices

Queensland Node Key expertise:Bio-Micro-Nano Devices Design, Fabrication and Characterisation Key capabilities:–Advanced photoresist synthesis –Bio-nano device fabrication –Functional organic/polymer and bio-inspired nanomaterials –Surface and device characterisation –Fabrication and Processing of Silica Carbide (SiC) User highlights Non Invasive Saliva diagnostic device : For early detection of cardiovascular diseases. Immunoassay of biomarkers performed in 15min rather than 2 hrs.

South Australian Node Key expertise:–Microfluidic devices –Micro and nano scale patterning Key capabilities:–Prototyping and replication of micro-scale channels –Chemical and physical surface functionalisation and characterisation –Texturing and patterning of surfaces Solvent Extraction Microchip - a schematic of a chip created by the Ian Wark institute. Has the ability to process 100x faster than large scale solvent extraction. Priest, C., et al., Microfluidic extraction of copper from particle-laden solutions, Int. J. Miner. Process. (2010), User highlights

Victorian Node Key expertise:Unique facility comprising of both biological and non- biological nano-fabrication techniques Key capabilities:–Photo- and electron beam lithography –Advanced deposition and etching –Rapid prototyping –Novel techniques such as embossing, inkjet printing and electroforming. Flagship instruments EBL (Vistec EBPG5000PLUS) <10nm resolution Fastest system in Australia. High res dual-beam Helios FIB/ SEM One of only 3 in Australia. Photolithography System (EVG620 UV) Can take up to 150mm substrates. DRIEs 2xPlasmalab 100 ICP380 Laser scanning Confocal microscope (Nikon A1Rsi MP) Biologoical AFM Deposition Equipments -PECVD -Ion assisted DC/RF Sputtering -E-Beam and Thermal Evaporator

Melbourne Centre of Nanofabrication (MCN) ₋Photolithography ₋E-beam ₋SEM ₋Photolithography ₋E-beam ₋SEM ₋Polymer Electronics ₋PVD & RIE ₋Electroplating ₋Characterisation Lab ₋Wet Chemistry ₋Polymer Electronics ₋PVD & RIE ₋Electroplating ₋Characterisation Lab ₋Wet Chemistry ₋PC2 Lab ₋Microscopy ₋Bio-chem lab ₋Nanoparticle lab ₋PDMS lab ₋PC2 Lab ₋Microscopy ₋Bio-chem lab ₋Nanoparticle lab ₋PDMS lab

Our Capabilities We do a LOT! If in doubt, please ASK! We do a LOT! If in doubt, please ASK!

Accessing ANFF ANFF Users – University researchers – Government funded research centres – Industry, SMEs, start-ups Accessing Costs – Access to instruments and relevant training are charged at hourly rates – Rates vary according to the instrument requested – Speciality materials or devices may be fabricated by Process Engineers for an additional cost ANYONE interested in nanofabrication

Access Procedure Contact ANFF Contact Node Approval Process Complete User Proposal Access Committee User Induction Training User Induction Training Job performed by ANFF staff New user? Assess request feasibility Assess request feasibility

More Information

Acknowledgements

BANFF

Providing nano and micro-fabrication facilities for Australia’s researchers