Thursday 31St January 8:10 - 8:20 Official 2019 ISFM Opening Professor Xiaolin Wang, University of Wollongong

Total Page:16

File Type:pdf, Size:1020Kb

Thursday 31St January 8:10 - 8:20 Official 2019 ISFM Opening Professor Xiaolin Wang, University of Wollongong Thursday 31st January 8:10 - 8:20 Official 2019 ISFM opening Professor Xiaolin Wang, University of Wollongong 8:20 - 8:30 University of Wollongong Welcome Professor Tim Marchant, Acting DVC (Research & Innovation) Professor Will Price, AIIM Executive Director Session TA - Plenary Session Chairs: Prof. Michael Fuhrer and Prof. Xiaolin Wang 8:30 - 9:00 TA.1: On the pairing mechanisms of high-temperature superconductors Professor Qikun Xue, Tsinghua University 9:00 - 9:30 TA.2: Semiconductor Nanowires for Optoelectronics and Energy Applications Professor Jagadish Chennupati, Australian National University 9:30 - 10:00 TA.3: Topological materials for low-energy electronics Professor Michael Fuhrer, Monash University 10:00 - 10:30 TA.4: Highlights from ISEM’s 25-Year history Professor Shi Xue Dou, University of Wollongong 10:30 - 10:50 Morning Tea Session T1 Session T2 Session T3 Liming Dai Huijun Zhao Yoshio Bando 10:50 - 11:10 *T1.1: Patters of *T2.1: Boron Nitride *T3.1: All-Inorganic critical current Nanomaterials: Perovskite Quantum flow near defects from Fundamental Dots Nanocomposites and interfaces in Research to and Large Amount superconductors Commercialisation Production by Tom Johannsen Ying Chen Microfluidic System University of Oslo Deakin University for the Application in Q-LCD and QLED Rushi Liu National University of Taiwan 11:10 - 11:25 T1.2: Thermal, T2.2: Graphitised T3.2: Quantum electrical and silicon carbide: a molecular devices for magneto-transport scalable approach for large-scale integration properties of 3D integrated photonics Ryoma Hayakawa topological materials and energy storage National Institute for Chao Zhang Francesca Iacopi Materials Science, Japan University of University of Technology, Wollongong Sydney Session T1 Session T2 Session T3 Liming Dai Huijun Zhao Yoshio Bando 11:25 - 11:40 T1.3: 2D Materials T2.3: Bio-inspired T3.3: Mesoporous Photonics and metal oxides Materials for Energy Optoelectronic Device nanostructures for Conversion and Applications energy applications Storage Qiaoliang Bao Ziqi Sun Renyuan Zhang Monash University Queensland University Tongji University of Technology 11:40 - 11:55 T1.4: Nanoscale T2.4: Single atom T3.4: Electrode Design experiments in the catalysts as non- for Rechargeable electron microscope precious metal sodium-oxygen Xiaozhou Liao electrodes for high batteries University of Sydney temperature proton Bing Sun exchange membrane University of Technology, fuel cells Sydney San Ping Jiang Curtin University 11:55 - 12:10 T1.5: Dances with T2.5: Interface T3.5: Enhanced Defects in Oxide Engineering for Electrocatalytic Materials 2D Material-based Activities of Metal Weicheng Hao Functional Devices Oxides by Surface Beihang University Wei Chen Doping Approach National University of Porun Liu Singapore Griffith University 12:10 - 12:25 T1.6: The T2.6: Gold Electronic T3.6: Phase optoelectronic devices Skins engineering of and colloidal and Wenlong Cheng monolayer MoS2 interfacial properties Monash University Ying Jiang of carbon nitride Peking University Jingsan Xu Queensland University of Technology 12:25 - 13:15 Editors’ Lunch Session TZ - Plenary Session Chair: Prof. Zaiping Guo 13:15 - 13:45 TZ.1: Opportunities and challenges in commercialisation of perovskite solar cells Professor Yibing Cheng, Monash University 13:45 - 14:15 TZ.2: Functional Energy Materials From 1D Polymers to 3D Carbon Nanomaterials Professor Liming Dai, University of New South Wales 14:15 - 14:45 TZ.3: Functionalisation of Porous Materials Professor George Zhao, University of Queensland 14:45 - 14:55 Intermission Session T4 Session T5 Session T6 Yi Du Zhenxiang Cheng Shulei Chou 14:55 - 15:15 *T4.1: Future and *T5.1: Sustainable *T6.1: Unlocking challenges for Power Generation Catalytic Powers of upconversion from Multifunctional Nonprecious Materials nanosystems Triboelectric for Energy Applications Dayong Jin Nanogenerators Huijun Zhao University of Technology, Sang-Woo Kim Griffith University Sydney Sungkyunkwan University 15:15 - 15:35 *T4.2: Topological *T5.2: Quest for *T6.2: supercond uctor and zero loss: Unusual Commercialization Majorana zero mode materials for of Solid Oxide Fuel in the vortex plasmonic devices Cell Technology at Jin-Feng Jia Michael Cortie SOFCMAN Shanghai Jiao Tong University of Technology, Weiguo Wang University Sydney Ningbo SOFCMAN Energy Technology Co., Ltd. 15:35 - 15:50 T4.3: 2D T5.3: Emerging T6.3: COmputational ferromagnetism Energy Chemistry at design of novel and spintronic Interfaces between Li 2D electronic and devices based Metal and Electrolyte magnetic materials on van der Waals in Working Batteries Jijun Zhao heterostructures Qiang Zhang Dalian University of Lan Wang Tsinghua University Technology RMIT University 15:50 - 16:05 T4.4: Domain switch T5.4: Rechargeable T6.4: High Performance by multi-field in Li Battery Thermoelectric multiferroic thin films Architectures Based Materials: Progress using SPM on Li+-Selective and Applications Hideo Kimura Solid Electrolytes Zhi Gang Chen National Institute for and Nanostructured University of Southern Materials Science, Electrodes Queensland Japan Jong-Won Lee Chosun University Session T4 Session T5 Session T6 Yi Du Zhenxiang Cheng Shulei Chou 16:05 - 16:20 T4.5: Advance and T5.5: A Long Cycle Life T6.5: Multiferroic challenge of practical Self-Healing Zinc- materials and multi- high-temperature Iodine Flow Battery fields coupling superconducting with High Power Zhenxiang Cheng materials Density University of Wollongong Chuanbin Cai Congxin Xie Shanghai University Chinese Academy of Sciences 16:20 - 16:35 T4.6: Crystal T5.6: High sulfur T6.6: Synchrotron- Facet Engineering loading S-C based Study on Modification of of composite using new Structural Self- the Nanomagnetism mesoporous carbon Reconstruction during of Transition Metal with connected pore Electrochemical Oxides structure for Li-S Reaction Process Wenxian Li batteries Li Song Shanghai University Ji-Sang Yu University of Science and Korea Electronics Technology of China Technology Institute 16:35 - 16:50 Afternoon Tea Session T7 Session T8 Session T9 Lan Wang Jiazhao Wang Shujun Zhang 16:50 - 17:10 *T7.1: Photoactive *T8.1: Advanced *T9.1: Multi-material Nanocarbons for electrode materials structures by 3D Sensing, Water for energy storage printing and their Purification and and conversion potential applications Nanomedicine Guoxiu Wang Jun DIng QIn Li University of Technology, National University of Griffith University Sydney Singapore 17:10 - 17:25 T7.2: Engineering T8.2: Prussian Blue- T9.2: Upconversion the 2D Hole Gas on Based Cathodes for porous nanostructures Diamond by Surface Sodium-ion Batteries as multimodal Transfer Doping and Yinzhu Jiang biomedical contrast its Device Applications Zhejiang University agent Dongchen Qi Xiaoxue Xu Queensland University University of Technology, of Technology Sydney Session T7 Session T8 Session T9 Lan Wang Jiazhao Wang Shujun Zhang 17:25 - 17:40 T7.3: Confinement- T8.3: Study on a Novel T9.3: Carbon Materials Induced Giant Superconducting Assisted Designs of Spin-Orbital-Coupled Instant Energy Electrocatalysts Magnetic Moment of Storage Yuan Chen Co Nanoclusters in Ying Xin University of Sydney TiO2 Films Tianjin University Jiabao Yi University of Newcastle 17:40 - 17:55 T7.4: TBC T8.4: Interface T9.4: Carbon for Dan Wang Engineering of Metal- reliable Lithium-Sulfur Griffith University Based Catalysts for Batteries Electrochemical Feng Li Reduction of CO2 Chinese Academy of Caiyun Wang Sciences University of Wollongong 17:55 - 18:10 T7.5: Nickel-Iron T8.5: TBC T9.5: Porous carbon based 2D materials Xiaoming Li materials based on for electrocatalytic Fudan University copolymerization water splitting process for energy Chuan Zhao storage and water University of New South cleaning Wales Chunhai Jiang Xiamen University of Technology 18:10 - 18:25 T7.6: Engineering The T8.6: Copper T9.6: Engineering the Assembled Structure chalcogenides: Interface of Silicon- and Electronic promising energy based Anodes Property of Atomically materials Jianping Yang Thin Nanomaterials Xinqi Chen Donghua University for Energy Conversion Donghua University and Storage Youhai Dou Griffith University 19:00 - Symposium Dinner Friday 1st February Session FA - Plenary Session Chairs: Prof. Jagadish Chennupati and Prof. Shizhang Qiao 9:00 - 9:30 FA.1: TBC Professor Lei Jiang, Chinese Academy of Sciences 9:30 - 10:00 FA.2: TBC Professor Min Gu, RMIT University 10:00 - 10:30 FA.3: TBC Professor Gordon Wallace, University of Wollongong 10:30 - 11:00 FA.4: TBC Professor Hua Zhang, City University of Hong Kong 11:00 - 11:20 Morning Tea Session F1 Session F2 Session F3 Jinsheng Cheng Sang-Woo Kim Jung Ho Kim 11:20 - 11:40 *F1.1: Low- *F2.1: TBC *F3.1: Flame dimensional Boron Nicholas Voelcker Retardants for Nitride Nanomaterials Australian National Polymers and for Energy Fabrication Facility Composites, and Applications Introduction of Yoshio Bando Composites Part B: National Institute for Engineering Materials Science, Hao Wang Japan University of Southern Queensland 11:40 - 11:55 F1.2: Future F2.2: Housing F3.2: Theoretical Piezoelectric Active Materials in Study CO2 Capture Materials through Polymer Composite and Conversion on Engineered Frameworks for Li-ion Two Dimensional Local Structural Batteries Nanomaterials Heterogeneity in Shanqing Zhang Qiao Sun Relaxor Ferroelectrics Griffith University Soochow University Thomas Shrout Pennsylvania State University Session F1 Session F2 Session F3 Jinsheng Cheng Sang-Woo
Recommended publications
  • School of Physics Annual Report 2008 Contents
    The University of Sydney School of Physics Annual Report 2008 Contents 1 HEAD OF SCHOOL REPORT 2 STAFF 4 TEACHING HIGHLIGHTS 5 TALENTED STUDENT PROGRAM (TSP) 6 POSTGRADUATE STUDENTS 8 PRIZES AND SCHOLARSHIPS 8 STAFF AWARDS 10 OUTREACH 11 SCIENCE FOUNDATION FOR PHYSICS 11 ALUMNI Gamma ray transport in a liquid scintillation vial (see nuclear physics report page 26) 12 FEDERATION FELLOWS Front cover shows the rocket carrying the STEREO satellites as it blasts into the night 13 ARC DISCOVERY GRANTS sky from Cape Canaveral October 2008 15 RESEARCH HIGHLIGHTS 17 SYDNEY INSTITUTE FOR ASTRONOMY (SIFA) 20 COMPLEX SYSTEMS 22 CONDENSED MATTER THEORY 24 CUDOS – CENTRE FOR ULTRAHIGH BANDWIDTH DEVICES FOR OPTICAL SYSTEMS 25 HIGH ENERGY PHYSICS 26 INSTITUTE OF NUCLEAR SCIENCE 28 ISA – INTEGRATED SUSTAINABILITY ANALYSIS 29 QUANTUM PHYSICS 30 SYDNEY UNIVERSITY PHYSICS EDUCATION RESEARCH (SUPER) 31 PUBLICATIONS 31 BOOKS 31 BOOK CHAPTERS 31 JOURNAL ARTICLES 53 CONFERENCE SPEAKERS 56 CONFERENCE PAPERS © The School of Physics, The University of Sydney 2008. All rights reserved. Head of School Report PROFESSOR ANNE GREEN HEAD, SCHOOL OF PHYSICS THIS YEAR HAS BEEN AN EXCITING and busy year with a major It was a very exciting year for particle physics with the Large Hadron refurbishment project undertaken to provide new laboratories and Collider in CERN beginning operation. Three of our physicists, Drs office space to better support our growing numbers. We were pleased Kevin Varvell, Aldo Saavedra and Bruce Yabsley, of the High Energy to welcome 15 members of staff and graduate students from the now Research Group, have been part of the international team of 35 closed Optic Fibre Technology Centre; they are all now fully integrated countries collaborating on this massive project.
    [Show full text]
  • 2016 AUSTRALIA-CHINA Science, Technology
    2016 AUSTRALIA–CHINA Science, Technology, Commercialisation and Innovation Forum 2016 中-澳科技创新和产业化论坛 FORUM HANDBOOK 27-30 NOVEMBER 2016 Brisbane, Australia QCASE Forum Handbook 2016 WELCOME WELCOME FROM DR HUA GUO, FORUM CHAIR On behalf of the Forum Organising Committee and Chinese scientists and engineers in Queensland, it is my great pleasure to welcome you all to the inaugural Australia–China Science, Technology, Commercialisation and Innovation Forum. The Forum, initiated and hosted by the Queensland Chinese Association of Scientists and Engineers (QCASE), is an example of our continuous commitment and solid action in promoting and supporting scientific and technological collaboration between Australia and China. Innovation is of paramount importance to both Australia and China. The Forum, built on successful scientific collaboration in recent years and government agreements between Queensland and China, will focus on how to accelerate application and commercialisation of our ideas and research outcomes, and explore opportunities for collaboration in the energy and resources, advanced materials and manufacturing, health and medicine, environment and agriculture sectors for the mutual benefit of both our nations. We are very excited that the Forum will be attended by more than 200 delegates representing governments, industry, science and technology agencies and academia, and by some of the most outstanding and influential leaders in science and technology in Australia and China. The ideas you generate and the working relationships you build over the Forum will help realise the very substantial opportunities that lie ahead. I would like to take this opportunity to acknowledge the great support by the Queensland Government Department of Science, Information Technology and Innovation, the Ministry of Science and Technology of the People’s Republic of China, and The Consulate General of the People’s Republic of China in Brisbane.
    [Show full text]
  • PHYSICS News
    SCHOOL OF PHYSICS PHYSICS News SPRING 2014 Dr Julia Bryant (CAASTRO) installing the SAMI instrument on the Anglo-Australian Telescope at SAMI chief investigator A/Prof Scott Croom Siding Spring Observatory. SAMI sits in the telescope’s prime-focus cage, which originally held with SAMI. Photo by Tim Wheeler. photographic plates when the telescope was photographing the sky. Photo credit: SAMI Team. SYDNEY UNI TEAM PILOT ‘GOOGLE STREET VIEW’ OF GALAXIES A new home-grown instrument based on bundles of optical fibres is giving Australian astronomers the first ‘Google street view’ of the cosmos — incredibly detailed views of huge numbers of galaxies. Developed by researchers at the University of Sydney and “It’s a giant step,” said Dr James Allen of the ARC Centre the Australian Astronomical Observatory, the optical-fibre of Excellence for All-sky Astrophysics (CAASTRO) at the bundles can sample the light from up to 60 parts of a galaxy, University of Sydney. “Before, we could study one galaxy for a dozen galaxies at a time. at a time in detail, or lots of galaxies at once but in much By analysing the light’s spectrum astronomers can learn less detail. Now we have both the numbers and the detail.” how gas and stars move within each galaxy, where the young The Australian team is now a year or two ahead of its stars are forming and where the old stars live. This will allow international competition in this field. In just 64 nights it them to better understand how galaxies change over time has gathered data on 1000 galaxies, twice as many as the and what drives that change.
    [Show full text]
  • Printed Circuit Boards As Platform for Disposable Lab-On-A-Chip Applications”
    Macquarie University ResearchOnline This is the published version of: Christian Leiterer; Matthias Urban; Wolfgang Fritzsche; Ewa Goldys; David Inglis; “Printed circuit boards as platform for disposable lab-on-a-chip applications”. Proc. SPIE 9668, Micro+Nano Materials, Devices, and Systems, 96680X (December 22, 2015) Access to the published version: http://dx.doi.org/10.1117/12.2202413 Copyright: Copyright 2015 Society of Photo-Optical Instrumentation Engineers (SPIE). One print or electronic copy may be made for personal use only. Systematic reproduction and distribution, duplication of any material in this paper for a fee or for commercial purposes, or modification of the content of the paper are prohibited. Printed circuit boards as platform for disposable Lab-on-a-Chip applications Christian Leiterer,a,b Matthias Urban,b Wolfgang Fritzsche,b Ewa Goldys a and David Inglisa* aMacquarie University, Department of Physics and Engineering, 2109 Sydney, Australia bUniversity Jena / Leibniz-Institute of Photonic Technology, Albert-Einstein-Strasse 9, Jena, Germany Abstract. An increasing demand in performance from electronic devices has resulted in continuous shrinking of electronic components. This shrinkage has demanded that the primary integration platform, the printed circuit board (PCB), follow this same trend. Today, PCB companies offer ~100 micron sized features (depth and width) which mean they are becoming suitable as physical platforms for Lab-on-a-Chip (LOC) and microfluidic applications. Compared to current lithographic based fluidic approaches; PCB technology offers several advantages that are useful for this technology. These include: Being easily designed and changed using free software, robust structures that can often be reused, chip layouts that can be ordered from commercial PCB suppliers at very low cost (1 AUD each in this work), and integration of electrodes at no additional cost.
    [Show full text]
  • Report on First Australian – EU Graphene Workshop, 2018
    Report on First Australian – EU Graphene Workshop, 2018 Date and location: 17-19 October 2018, Adelaide and Sydney, Australia Chairs: Australia – Prof Dusan Losic (University of Adelaide) Dr Katie Green, Dr Adrian Murdoch, Dr Michael Seo (CSIRO – Commonwealth Science and Industrial Research Organisation) EU – Dr Ken Teo (AIXTRON) Summary: This workshop aims to foster information exchange and collaboration between Australian organisations and partners of the EU’s Graphene Flagship project with respect to Graphene and related materials (GRM). The programme was organised between two different cities (Adelaide/Sydney) over 3 days, with various site visits, to maximise the exposure of the participants to graphene activities performed in Australia. The workshop featured diverse research topics on GRM with 26 scientific presentations, 1 industry roundtable session, 1 working group session, 4 open discussions, 1 poster session, lab tours and social events. About 50 participants were present, including 10 industrial delegates from Australian graphene companies. 1 Adelaide, 17 October 2018 Figure 1: ARC Graphene Enabled Transformation Hub laboratory at University of Adelaide (left) and visit by the EU Graphene Flagship delegation (right) The Australian Research Council’s Graphene Enabled Industry Transformation Hub, a partnership between 4 Australian universities and industrial collaborators, is based at the University of Adelaide. The participants were given a tour of the Hub’s laboratories and introduced to its research, which included graphene production by exfoliation and graphene-use in composites, foams, fire-resistant paints and fertilizers. The participants also visited Silanna Semiconductor which featured an advanced laboratory with a multi-cluster molecular beam epitaxy system for III-V semiconductor and novel oxide deposition 6-inch wafers; these facilities are used to produce devices such as UV LEDs and power transistors.
    [Show full text]
  • Plasma Nanoscience: from Nano-Solids in Plasmas to Nano
    July 1, 2013 0:32 Advances in Physics AdvPhys-FINAL-3 Advances in Physics Vol. 62, No. 02 (pages 113-224), 18 June 2013, 1–110 REVIEW ARTICLE [Advances in Physics, v. 62, Issue 2 (18 June 2013), pp. 113-224 (2013); DOI: 10.1080/00018732.2013.808047] Plasma Nanoscience: from Nano-Solids in Plasmas to Nano-Plasmas in Solids K. Ostrikova ∗ , E. C. Neytsb & M. Meyyappanc aCSIRO Materials Science and Engineering, P.O. Box 218, Lindfield NSW 2070, Australia bUniversity of Antwerp, Universiteitsplein 1, B-2610 Wilrijk-Antwerp, Belgium cNASA Ames Research Center Moffett Field, CA 94035, USA (21 May 2013) The unique plasma-specific features and physical phenomena in the organization of nanoscale solid-state systems in a broad range of elemental composition, structure, and dimensionality are critically reviewed. These effects lead to the possibility to localize and control energy and matter at nanoscales and to produce self-organized nano-solids with highly unusual and superior properties. A unifying conceptual framework based on the control of production, transport, and self-organization of precursor species is introduced and a variety of plasma- specific non-equilibrium and kinetics-driven phenomena across the many temporal and spatial scales is explained. When the plasma is localized to micrometer and nanometer dimensions, new emergent phenomena arise. The examples range from semiconducting quantum dots and nanowires, chirality control of single-walled carbon nanotubes, ultra-fine manipulation of graphenes, nano-diamond, and organic matter, to nano-plasma effects and nano-plasmas of different states of matter. Contents 1. Introduction 1.1. Scope of plasma nanoscience research 1.2.
    [Show full text]
  • Sustainable Nanoscience for a Sustainable Future Kostya Ostrikov
    Sustainable nanoscience for a sustainable future Kostya Ostrikov Plasma Nanoscience Center Australia (PNCA), CSIRO Materials Science and Engineering. Abstract: Sustainability is commonly perceived as the capacity to endure some challenges, obstacles, stress, varied conditions, etc., and to continue normal or even improving operation. This concept has recently become global and is currently applied to economies, environment, ecosystems, industries, natural resource management, and several other fields of human activities. This presentation introduces the concept of sustainable nanoscience [1] and illustrates using a focused example of plasma-based growth of carbon nanotubes. This concept relates control of energy and matter at nanoscales (Grand Science Challenges) to practical applications that are relevant to a sustainable future of humankind (Grand Societal Challenges). Specific roles of plasma-related effects in nanoscale synthesis and processing that lead to superior properties and performance of nanomaterials in relevant applications are also examined [2]. The path toward the impact in the age of sustainable development is also discussed. Future opportunities of this research field to contribute to the solution of the problems of the sustainability age are also highlighted. [1] K. Ostrikov, IEEE Trans. Plasma Sci. 41, 716-724 (2013) [2] K. Ostrikov, E. C. Neyts, M. Meyyappan, Advances in Physics 62(2), 113-224 (2013). Bio: Kostya (Ken) Ostrikov is a CEO Science Leader, Australian Future Fellow (the first and so far one of the only
    [Show full text]
  • Contribution of Radicals and Ions in Catalyzed Growth of Single-Walled Carbon Nanotubes from Low-Temperature Plasmas
    University of Wollongong Research Online Australian Institute for Innovative Materials - Papers Australian Institute for Innovative Materials 1-1-2015 Contribution of radicals and ions in catalyzed growth of single-walled carbon nanotubes from low-temperature plasmas Z Marvi Sahand University of Technology S Xu Nanyang Technological University, Singapore G Foroutan Sahand University of Technology Kostya Ostrikov University of Wollongong Follow this and additional works at: https://ro.uow.edu.au/aiimpapers Part of the Engineering Commons, and the Physical Sciences and Mathematics Commons Recommended Citation Marvi, Z; Xu, S; Foroutan, G; and Ostrikov, Kostya, "Contribution of radicals and ions in catalyzed growth of single-walled carbon nanotubes from low-temperature plasmas" (2015). Australian Institute for Innovative Materials - Papers. 1376. https://ro.uow.edu.au/aiimpapers/1376 Research Online is the open access institutional repository for the University of Wollongong. For further information contact the UOW Library: [email protected] Contribution of radicals and ions in catalyzed growth of single-walled carbon nanotubes from low-temperature plasmas Abstract The growth kinetics of single-walled carbon nanotubes (SWCNTs) in a low-temperature, low-pressure reactive plasma is investigated using a multiscale numerical simulation, including the plasma sheath and surface diffusion modules. The plasma-related effects on the characteristics of SWCNT growth are studied. It is found that in the presence of reactive radicals in addition to energetic ions inside the plasma sheath area, the effective carbon flux, and the growth rate of SWCNT increase. It is shown that the concentration of atomic hydrogen and hydrocarbon radicals in the plasma plays an important role in the SWCNT growth.
    [Show full text]
  • 6 International Symposium on Nanostructured Materials And
    th Symposium 7: 6 2:30 PM (ICACC‐S7‐003‐2012) Nanostructure and International Symposium Nanoheterojuction for High‐Efficiency on Nanostructured Photocatalytic and Photoelectrochemical Water Splitting (Invited) Materials and Liejin Guo*, Shaohua Shen, Xi'an Jiaotong University, China Nanocomposites 3:00 PM Break Monday, January 23, 2012 Nanomaterials for Nanomaterials for Photocatalysis, Solar Photocatalysis, Solar Hydrogen and Hydrogen and Thermoelectrics I Thermoelectrics II 1:30 PM‐3:20 PM 3:20 PM‐6:00 PM Room: Coquina Salon B Room: Coquina Salon B Session Chair(s): Palani Balaya, Gongxuan Lu Session Chair(s): Alberto Vomiero, Yi‐Bing Cheng 1:30 PM (ICACC‐S7‐001‐2012) Mesoporous Titanium 3:20 PM Oxide Spheres for High Efficiency Dye (ICACC‐S7‐004‐2012) Nanostructural Control Sensitized Solar Cells (Invited) in Conjugated Polymer/Metal Oxide Yi‐Bing Cheng*, Fuzhi Huang, Monash Nanohybrid Solar Cells (Invited) University, Australia; Dehong Chen, The Yasuhiro Tachibana*, Ali Azarifar, Satoshi University of Melbourne, Australia; Yang Chen, Makuta, RMIT University, Australia; Jun Terao, Monash University, Australia; Lu Cao, The Kyoto University, Japan; Shu Seki, Osaka University of Melbourne, Australia; Xiaoli University, Japan Zhang, Monash University, Australia; Rachel Caruso, The University of Melbourne, Australia 3:50 PM (ICACC‐S7‐005‐2012) Energy Conversion using 2:00 PM Nano‐structured Solar Cells (Invited) (ICACC‐S7‐002‐2012) Engineered metal oxide Satyanarayana R Gajjela, Wong Kim Hai, photoanodes for highly efficient excitonic Krishnamoorthy
    [Show full text]
  • Multimode Fibres: a Pathway Towards Deep-Tissue Fluorescence Microscopy”
    Macquarie University ResearchOnline This is the published version of: Martin Plöschner; Tomáš Tyc; Tomáš Cižmár; “Multimode fibres: a pathway towards deep-tissue fluorescence microscopy”. Proc. SPIE 9668, Micro+Nano Materials, Devices, and Systems, 966840 (December 22, 2015) Access to the published version: http://dx.doi.org/10.1117/12.2202355 Copyright: Copyright 2015 Society of Photo-Optical Instrumentation Engineers (SPIE). One print or electronic copy may be made for personal use only. Systematic reproduction and distribution, duplication of any material in this paper for a fee or for commercial purposes, or modification of the content of the paper are prohibited. Multimode fibre: a pathway towards deep tissue fluorescence microscopy Martin Plöschner*a,b, Tomáš Tycc, Tomáš Čižmára aSchool of Engineering, Physics and Mathematics, College of Art, Science & Engineering, University of Dundee, Nethergate, Dundee DD1 4HN, UK; bDepartment of Physics and Astronomy, School of Physics and Engineering, Macquarie University, North Ryde, NSW, 2109, Australia; cDepartment of Theoretical Physics and Astrophysics, Masaryk University, Kotlarska 2, 61137 Brno, Czech Republic *[email protected] ABSTRACT Fluorescence microscopy has emerged as a pivotal platform for imaging in the life sciences. In recent years, the overwhelming success of its different modalities has been accompanied by various efforts to carry out imaging deeper inside living tissues. A key challenge of these efforts is to overcome scattering and absorption of light in such environments. Multiple strategies (e.g. multi-photon, wavefront correction techniques) extended the penetration depth to the current state-of-the-art of about 1000μm at the resolution of approximately 1μm. The only viable strategy for imaging deeper than this is by employing a fibre bundle based endoscope.
    [Show full text]
  • Front Matter: Volume 9668
    PROCEEDINGS OF SPIE Micro+Nano Materials, Devices, and Systems Benjamin J. Eggleton Stefano Palomba Editors 6–9 December 2015 Sydney, Australia Sponsored by The University of Sydney (Australia) CUDOS—An ARC Centre of Excellence (Australia) Cosponsored by NSW Government Trade and Investment (Australia) AOS—The Australian Optical Society (Australia) Office of Naval Research Global (United States) U.S. Army Research, Development and Engineering Command (United States) Published by SPIE Volume 9668 Proceedings of SPIE 0277-786X, V. 9668 SPIE is an international society advancing an interdisciplinary approach to the science and application of light. SPIE Micro+Nano Materials, Devices, and Systems, edited by Benjamin J. Eggleton, Stefano Palomba Proc. of SPIE Vol. 9668, 966801 · © 2015 SPIE · CCC code: 0277-786X/15/$18 · doi: 10.1117/12.2228503 Proc. of SPIE Vol. 9668 966801-1 Downloaded From: http://proceedings.spiedigitallibrary.org/ on 05/27/2016 Terms of Use: http://spiedigitallibrary.org/ss/TermsOfUse.aspx The papers in this volume were part of the technical conference cited on the cover and title page. Papers were selected and subject to review by the editors and conference program committee. Some conference presentations may not be available for publication. Additional papers and presentation recordings may be available online in the SPIE Digital Library at SPIEDigitalLibrary.org. The papers reflect the work and thoughts of the authors and are published herein as submitted. The publisher is not responsible for the validity of the information or for any outcomes resulting from reliance thereon. Please use the following format to cite material from these proceedings: Author(s), "Title of Paper," in SPIE Micro+Nano Materials, Devices, and Systems, edited by Benjamin J.
    [Show full text]