01 Contents Welcome to ACES 02 Message from the Director 03 IAB Chair Report 05 Research Overview 08 Materials Program 10 Energy Program 15 Bionics Program 19 Ethics Program 22 Industry/End-User Interactions 23 Education and Training 27 International Profile 32 National Collaborations 2012 33 Prizes & Awards 2012 36 Communications 38 Outreach 41 Publications 47 Governance 56 Performance Indicators 58 Other Research Developments 64 Supplementary Information Appendix 1: Visitors 67 Appendix 2: ACES End-User Events 73 Appendix 3: International Symposia hosted/co-hosted by ACES 79 Appendix 4: International Collaborations by Country in 2012 83 Appendix 5: Invited Talks in 2012 93 Appendix 6: Summary of National Engagement 98 Appendix 7: ACES Media Summary 101 Appendix 8: ACES Staff Membership 111 Appendix 9: ACES PhD Student Roll 113 02 Welcome to ACES The Australian Research Council Centre These organisations draw together Bionics: The Bionics program exploits new of Excellence for Electromaterials researchers from a range of disciplines; electromaterials in the areas of stimulation Science (ACES) brings together eminent including biologists, clinicians, chemists, and neuromuscular repair and in the scientists to develop the nanoscience and physicists and engineers. Each of the nodes design and development of an advanced nanotechnology related to the movement possesses key research strengths, which, cochlear electrode implant. of charge within and between materials. when combined places ACES in a powerful Ethics: The Ethics program drives the position to design, discover and develop The approach provides an alternative to development of a social and ethical new electromaterials. varying the composition of a material to response to the emerging science and its alter physical and biological properties – applications, particularly in Bionics. Research Programs instead we alter dimensions and shape in the nanodomain. These processes are Funding fundamentally important to a diverse array The core research programs supported of phenomena important in medicine and by the ARC Centre of Excellence are: ACES was established in 2005 with industry. Electromaterials, Energy, Bionics and $12 million in federal funding from the Ethics. The integrated research projects We have now achieved international Australian Research Council (ARC) over within each program provide the capability recognition and consolidated links around five years. to design, synthesise and characterise new the world. ACES is well placed to assure a From July 2010 until December 2013 ACES electromaterials. global leadership role in electromaterials receives a further $7.7 million in federal science. Electromaterials: The key is the funding from the ARC. development of innovative routes to ACES also receives support from the The Partners functionalised nanomaterials that enhance NSW Department of State & Regional both the chemical and physical properties Development to achieve technology required for the targeted areas of The Centre currently comprises of six transfer to NSW and Australian industry application. This program continues to organisations: University of Wollongong via a SLF grant 2010-2013: $360k. encompass materials synthesis, fabrication (including the Intelligent Polymer and characterisation. Research Institute and the Institute for Superconducting & Electronic Materials), Energy: The Energy program utilises Monash University (Clayton), St Vincents advances in our design, synthesis and Health (Melbourne), La Trobe University fabrication of new light harvesting and (Melbourne), University of Tasmania and electrocatalytic materials as well as organic Deakin University (Clayton). nanostructured electrodes for applications such as solar hydrogen generation and metal/air batteries. 03 Message from the Director It has been a privilege to serve as the I am also proud of the engagement Executive Research Director of ACES network we have put in place and the since we commenced operations in spirit of communication that has been 2005. Together, our researchers continue instilled in all of our researchers, from to deliver high impact outputs to build undergraduate interns to the most the body of knowledge in fundamental seasoned researchers. This has enabled electromaterials science. Through the profitable engagements with other growth of multidisciplinary research teams research institutions and industry, resulting we are able to apply this knowledge in in ACES involvement in a number of ARC areas critical to today’s society, namely, linkage grants, Australian Co-operative Energy and Medical Bionics. Research Centre (CRC) projects and other end-user projects. In the energy area this has been exemplified in 2012 by the establishment As we have grown as a Centre, we have of the spin-out company Aquahydrex. This gathered the experience and resources to venture is built on fundamental findings be able to develop exciting new training that have been applied in innovative ways. opportunities for our student researchers Equally important the venture is built on as well as attracting the next generation of the enthusiasm and team spirit that the electromaterials researchers. Funding is fuel ACES research culture has fostered. The Consequently, this year we initiated a pilot- science, combined with these personal scale program - the Transition Project - that Supporting attributes, has attracted significant enables our research students to engage f Training investment from an American Venture directly with industry. This unique program Capital company. f Research creates opportunities for our students to f Communications It is most satisfying to see that our highly ‘interview’ industry executives to ascertain talented individuals, working within our what industry needs in respect to the skills Leading to extraordinary facilities, are able to produce and attributes of researchers. The impact f Global credibility globally competitive research that attracts on the individual researchers involved has f Global footprint such attention. Indeed, as detailed in these been profound and they have disseminated f Global leadership pages, across our research programs there the findings of the project to others in have been some amazing results, with ACES. outputs in 2012 exceeding all expectations. 04 Exciting young students about We are very proud of the individual I would like to thank all of the individuals research and electromaterials through achievements of our researchers, many who have made all of these achievements undergraduate internships this year has being acknowledged with important possible. A special thanks to our also proved highly beneficial to both Fellowships during 2012. Special International Advisory Board (IAB) and to ACES and the students themselves. Highly congratulations to Prof Doug MacFarlane Dame Bridget Ogilvie (chair of the IAB). talented (second year undergraduate) on the receipt of an Australian Laureate I look forward to working with you all students were selected to undertake Fellowship. during 2013 and beyond, should the science communication projects As we enter 2013, we begin the final year privilege be extended. throughout the university term, followed of the current ARC funding for ACES. by summer research projects in the Through the assembly of an extraordinary ACES laboratories. The enthusiasm and Best wishes team of individuals we have achieved excitement of these students has already amazing things. Our innovative research, affected those of us that have been research training and engagement associated with them. These students will programs have established not just our continue to have an active engagement national but also our global reputation. with ACES through 2013, developing skills ACES continues to expand its global in project planning, with the internship presence through the Marie Curie culminating in a final summer research International Research Staff Exchange project. Scheme (IRSES) program; where In 2012, we also expanded our efforts to collaborative activities in Ireland, France convey the excitement of electromaterials and Finland have been consolidated. research and applications to the general Highly successful collaborative research public through: workshops were held in China, Korea and f The launch of the ACES- University of Taiwan in 2012. Wollongong (UOW) Science Centre Through these tremendous efforts and Technology Exhibition much patience our centre staff, research f PhD Scholars Awards for Science staff and research students have laid the Communication to undertake projects foundations for a truly global engagement with the UOW Science Centre program. f Several public engagement workshops in the area of Bionics f Community tours of the ACES Professor Gordon Wallace facilities. Executive Director ACES. 05 IAB Chair Report The International Advisory Board The overall message from all the research The research team should be commended reviewed the 2012 progress of the ARC programs was that during the lifetime of on their forethought and aptitude in having Centre of Excellence for Electromaterials this current centre the team has developed been able to build up such an impressive Science (ACES) on 15 February 2013 chemistries and physical processes to array of research tools for synthesis and and received updates on the next ACES isolate nanomaterials and study their characterisation of nanomaterials (some Centre of Excellence bid. Those in amazing properties and behaviour but still courtesy of ARC LIEF grants) as well as attendance were: Dr (Dame) Bridget have work left to do so as to enable them a suite of fabrication equipment (often Ogilvie (Chair), Prof Richard Kaner, Prof to elegantly reassemble those different custom developed to allow for processing Ray Baughman, Prof Dermot Diamond, Mr nano and microcomponents into functional of the new materials developed) in Greg Smith, Prof Dirk Guldi, Dr Anita Hill, macrostructures. association with Australian National Prof Judy Raper, Prof Lee Astheimer and Fabrication Facility (ANFF). The ability to control the dimensional Prof Patrick Nixon. structure of the individual components and The ACES Bionics program continued The Board congratulated Prof Gordon understand the fundamental, yet complex to use polymer platforms (both non- Wallace and the ACES team on the quality processes, to enable this to occur will be conducting and conducting) to promote and range of outcomes achieved by the crucial to the next set of developments. controlled growth of nerve and muscle Centre in 2012. cells in vitro. With NHMRC support this In 2012, the centre produced and work can be undertaken in vivo. The optimised a wide range of materials, Research Progress in 2012 development of ‘bioinks’ that enables electrolytes and electromaterials (e.g. (individual) living cells to be spatially porphyrins, metal complexes and oxides, ACES produced high impact research conducting polymers, nanostructured distributed using ink-jet printing is an outputs. The ACES level of research is carbons, ionic liquids and plastic crystals) exciting advance. This takes ACES closer among the highest in the world! In 2012, as well as functionalised post fabricated to a range of practical devices. 47% of the 138 ACES research articles structures; for both their research and for New improved conducting electrodes, published were published in peer reviewed international collaborators. using materials developed within journals with an impact factor >4. ACES, are being tested for stability and The facilities provided within the centre There was impressive progress in all are certainly world class and built around reproducibility as well as electrochemical three interconnected research programs, cutting edge technologies; a sentiment felt and electrophysiological properties. New especially with respect to the fundamental by politicians (both federal, state and local) testing protocols have been developed research outcomes. as well as other visitors who have had the to evaluate the use of these electrodes with respect to developing new imaging opportunity to tour the facilities. techniques as well as surgical approaches for insertion. Participants at the International Advisory Board meeting held 15 February 2013. 06 Although ACES has developed there is a greater possibility to be able to ACES members also undertook 63 visits encapsulation methods to extend the get most of the energy put into the system to leading international laboratories (in 17 operating lifetime of actuators in liquids, back out of the system again. The oxygen countries). their translation as a mechanism to reduction reaction is highly electrolyte In addition ACES hosted 5 international improve guidance for the insertion of the dependent, so ACES has also been looking workshops in Australia and 2 international cochlear electrode, has not been successful at novel ionic liquids to act as electrolytes. delegation workshops; in Taiwan and to date. Towards the development of metal/air China. Meanwhile the Ethics team worked batteries (focussing mainly on zinc and National engagement was also impressive. alongside the Bionics team looking at magnesium metals) researchers looked at In addition to the invited talks above, the impact that these new technologies, controlling (protecting) the morphology/ another 32 ACES members presented involving nanotechnologies or nanoscience, integrity of the metal using overlayers of ACES research at 36 separate national may have on related regulatory and social materials in association with non-aqueous conferences or events. aspects. Three main areas studied in electrolytes to get improved cycling; Furthermore, students and staff of ACES 2012 were related to: when bionics may investigated the use of the bi-functional were given as much opportunity, as shift the person’s sense of self, health and nature of some oxygen reduction catalysts finances allowed, to travel between the wellness; issues related to clinical trials for to improve efficiencies and to gain an domestic nodes as well as visiting other these proposed technologies /devices and improved understanding of the oxygen laboratories within Australia, to undertake public democratic deliberation about what reduction reaction in ionic liquids as multidisciplinary research tasks or to talk the impact those devices may have. opposed to aqueous solutions. and work with domestic collaborators. The IAB acknowledged that having this Other battery work involved looking at In 2012 ACES and associated project perspective raised now during device new materials for use in lithium batteries; members undertook 37 trips for this development was important as it may designing flexible/bendable polymer purpose. This domestic travel was in assist in directing the research efforts; batteries and looking to produce an all addition to monthly trips to Melbourne depending if the results considered a polymer battery system suitable for bionic and/or Tasmania by Prof Gordon Wallace, potential device either favourable or applications. the Executive Director of ACES. unfavourable, as well as assisting with To view the batteries whilst they are the community and regulatory bodies’ working is difficult. ACES showed that MRI End-User Engagement understanding on potential impacts these technology can be used to give information technologies may have once available. about the battery as it charges and The fundamental knowledge accrued is Much of the research on water-splitting discharges- a first! being effectively disseminated through the in the Energy Program was focussed Thermoelectrochemical cells based in ionic highly effective ACES end-user network, on developing high efficiency oxygen- liquid electrolytes are also being studied. which to date has 900 members. generating anodes that are amenable to The IAB was pleased to see ACES ‘wireless’ coupling to hydrogen-generating International & National reporting a high level of activity in cathodes, with the ultimate aim to split Collaborations developing the end-user network during water at zero bias using light illumination 2012, with 96 government, industry or only. The IAB thought the integration of business briefings; along with running 6 In 2012, ACES work was still very focussed ACES with national and international specific end-user targeted engagement on the materials and understanding collaborators was exceptional and the events (composed of AdFab, AdBioFab the electrode reactions in both water research is at a high standard which is workshops and industry breakfasts). splitting and for metal/air battery recognised globally. In addition to the work directed into applications. ACES work has used several developing strategies for selected Testimony of this was that, in 2012, ACES different combinations of catalysts, projects in both the Energy and Bionics hosted 41 international researchers from electrode materials (including breathable programs, the IAB was excited to note the 17 countries to access the world class membranes made from Goretex), and cell successful start-up of a spin-out company ACES facilities at the various nodes. configurations to investigate the processes ‘Aquahydrex’ with True North Venture involved in the generation of hydrogen and 16 ACES members were invited to give 59 Partners in the area of water-splitting. oxygen from water. Some light assisted lectures at international conferences (45 This spin-out will be the first step towards processes have already been shown held abroad and 14 held within Australia) commercialisation of some of the ACES to facilitate oxidation in near- neutral and another 11 members travelled technology that seeks to identify disruptive conditions; including seawater. worldwide to present 38 invited talks at innovations and work with management ACES aims to produce highly efficient Universities and Research Organisations teams to build companies for the long- catalysts that can handle both oxygen (25 abroad and 13 within Australia). term in the areas of energy and medical reduction and oxygen evolution; so that bionics. 07 AquaHydrex is a great example of a as well as to introduce the work from The facilities created are world-class university technology that has been ACES to a wider end-user network via this and central to the team approach that developed to become an investable project. has been cultivated to provide a unique opportunity. The education for the environment in which to carry out researchers in just bringing to fruition Communication & Outreach research. such a company is invaluable towards “Once again the IAB was most impressed understanding the difficulties and pitfalls The communications strategy has begun to find that ACES has excelled in its work, that can be encountered in such ventures. to enhance the reputation of ACES and is increasing its impact even more than in Evidence that other fundamental research helping ACES to become recognised as an previous years. has been moving towards translation is authority on electromaterials science. The highly successful cross nodal working that the ACES solar cell work has been ACES should continue to disseminate the nationally and also internationally is, as further developed by the CRC-Polymers; ACES message on current technology always, an excellent indication of the success some Bionics research by the Hearing and communication platforms; especially of this group. CRC and successful funding from the ARC building their online presence. ACES has The work on nanomaterial synthesis, for linkage projects with industry partners shown they are keen to create content characterisation and fabrication to new (3 in 2012; 2 in 2011 as well as in 2010). ranging from videos to generating and materials has received a huge boost with new producing their own news stories on its research tools and equipment in association Education & Training website, digital newsletters and more with ANFF. general articles that reach wider audiences The IAB expects to see even greater ACES continued to develop intensive, than just their academic peers. success in the coming year.” efficient and effective education and training programs for both staff members Key Performance Measures and students of all the nodes. The depth and breadth of education and training The performance of the Centre has in ACES for students and early career exceeded the 2012 targets. researchers in 2012 was encouraging. Publications included 2 books, 6 book There were numerous scientific chapters and 136 journal articles published workshops, seminars, and research (62 or 46% with impact factor >4; program meetings that were 103 or 76% with impact factor >2); 6 complemented by training programs on postgraduate students were recruited, career development, leadership, and 10 postgraduate completions, 118 media commercialisation. The technical and interest stories published (40 print, scientific programs of the many symposia 51 online/web, 19 radio and 8 TV) and seminars were varied and topical. and 12 patent updates. In 2012, ACES Inter-nodal visits are being encouraged as continued to hold much larger numbers much as finances allow. of government, industry and business Teaching students and staff the value of briefings; 95 in total. ACES also hosted 88 fundamental research and the application/ international visitors. translation to the next phase is being The ACES entity enabled success in the tackled well by ACES with the resources following initiatives in 2012 that were in available. The IAB particularly appreciated addition to the core funded activities the benefits of the introduction of the reported: 1 ARC laureate fellowship; 1 ‘transition project’. ARC DORA fellowship, 2 ARC DECRA In this new initiative, the two students fellowships; 1 ASI fellowship; 2 UOW Vice- Dr (Dame) Bridget Ogilvie (AC, DBE, chosen to participate, were able to Chancellor Fellowships and 3 ARC linkage FAA, FRS, FMedSci). interview a number of company executives grants. Chair International Advisory Board for and identify if ‘gaps’ exist after completing The ACES team has excelled in ACES. a PhD and being highly placed to gain an developing all aspects of the Centre’s industry placement. Their success and operation. In research, end-user enjoyment of this project was evident and engagement, outreach and research will have secondary effects for ACES. It will training the outcomes have been encourage other PhD students to expand impressive – the impact has been their skill set if looking for work in industry, widespread. 08 Overview ACES core funded projects from 2010- This includes significant advances in: next 2013 are set to enable development of: generation solar cells; fuel cells; energy f a knowledge base in electromaterials storage technologies; platform for epilepsy science that is utilised in Energy and detection and control; development Medical Bionics of ‘bio-inks’ and composite materials f an efficient, easily manufactured water to enable creation of 3D structures; splitting device development of nanoscale characterisation f a high capacity printable metal-air tools and techniques for probing cell battery and material interactions as well as the development of stronger hydrogels (soft f an effective nerve repair conduit materials) for bionic applications. (proven) in an animal model f an advanced cochlear implant In addition and in partnership with the electrode Australian National Fabrication Facility (ANFF) we have developed leading edge Advances in materials synthesis and fabrication capabilities. The $40 million assembly in 2012 have enabled the facility opened in 2012, housed with realisation of enhanced performance state-of-the-art customised fabrication systems for water splitting (Energy and characterisation tools; some that have program) and for nerve regeneration been developed in house. This facility now conduits (Bionics program) as well as provides an unprecedented capability advanced cochlear electrode studies enabling assembly of highly functional (Bionics program) in 2012. materials. The experimental advances, the materials Consequently, we are now well placed to developed and the knowledge accrued by tackle the 2013 milestones as outlined in the core funded ACES research team also the table below. continues to have a significant impact on a range of other areas separately funded but carried out under the centre umbrella. 09 The ACES research milestones for 2011 to 2013. END 2011 END 2012 END 2013 Supplied 1st Generation porphyrin Refined and supplied optimal materials Supplied optimal materials to Energy monomers, porphyrin dimers, solid to Energy and Bionics programs. and Bionics programs. electrolytes, polythiophenes and Supplied selected printed devices to graphenes for the electromaterials, Energy and Bionics programs. energy and bionics programs. Supplied printed electrodes using 1st Generation materials. Developed and supplied 2nd S Generation Electromaterials to Energy L A and Bionics programs. RI E T Refined and applied new A M characterisation methods. Completed metal air battery using 2nd Incorporated optimised 2nd Generation Developed printed metal air battery Generation materials. materials and printed components into prototype using optimised materials. metal air battery. Refined water splitting device Developed printed water splitting device Y G characteristics using 2nd Generation Incorporated optimised 2nd Generation prototype using optimised materials. R E materials. materials and printed components into N E water splitting devices. Completed evaluation of appropriate Established in vivo work with 3D Established in vivo functional nerve 2nd Generation Electromaterials structures. repair studies (with NHMRC support). for neuromuscular regeneration and Established work on functional nerve Completed design and fabrication advanced cochlear electrode. repair (with NHMRC support). of 3D bionic structures with spatial Optimised control and sensing control over the location of bioactive Completed studies using optimal mechanisms for steerable electrode molecules, stem cells, biodegradable and Electromaterials for advanced cochlear using polymer actuators. electronically conductive elements. S electrode. C NI Developed actuator technologies for Completed in vivo testing of advanced Applied steering – sensing system to O BI steerable cochlea implant. advanced cochlear electrode. cochlear electrode. Evaluated current research ethics Designed and conducted public Evaluated public engagement processes guidelines (e.g. National Statement) to engagement event(s) on bionic devices. on nano-medicine. assess appropriateness for clinical trials of bionic devices and other nano- medical treatments. S Identified and analysed range of C HI approaches to public engagement in T E development of nano-medicine.
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