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Dr. Lucy Gloag is a Lecturer at the Research School of Chemistry at the Australian National University (ANU), where she joined in 2024 after previously serving as a Lecturer at the University of Technology Sydney in 2023. Her research focuses on the development of advanced nanomaterials for energy applications, particularly in electrocatalysis and energy storage. Education: BSc/BCA and BSc(Hons) from Victoria University of Wellington, New Zealand PhD from the University of New South Wales (2018) on synthesis and characterization of Ru-based nanocatalysts Dr. Gloag is a nanomaterials chemist and electron microscopist specializing in the synthesis and characterization of nanomaterials for electrocatalytic applications. Her research addresses the fundamental question of how nanostructure can be used to enhance the performance of electrocatalysts . She employs solution-phase synthesis techniques to create nanoparticles with precise control over crystal structure, dimensions, and surface faceting, then correlates these structural features with electrocatalytic properties using transmission electron microscopy and electrochemistry. Her work spans energy conversion technologies, biomedical applications of nanoparticles, and advanced materials characterization. Analysis of her recent publications reveals a strong focus on single-atom catalysts, hierarchical nanostructures, and the relationship between nanomaterial structure and function. Her research spans both fundamental materials science and practical applications in energy conversion, with significant work on oxygen evolution reaction, hydrogen evolution reaction, and methanol oxidation electrocatalysts. She has also made notable contributions to biomedical applications of nanoparticles, particularly in magnetic particle imaging and Alzheimer's disease diagnostics. Scientific Awards: ARC Discovery Project Grant (2023) ARC Linkage Project Grant (2023) UNSW Science COVID19 Strategic Support Grant (October 2021) Dementia Australia Research Foundation – Yulgilbar Innovation Grant (2019-2022) Australian Postgraduate Research Scholarship (2015) AMN-7 Image Competition Finalist (2015) Dr. Gloag currently leads the ANU Futures Scheme 2.0 project (2024-2028) and has secured multiple competitive research grants, demonstrating strong research leadership. Her work involves extensive collaboration with researchers at UNSW and other institutions, particularly with Professors Richard Tilley and Justin Gooding. She has published 28 research outputs since 2015, with significant citation impact (h-index of 17). Her laboratory at ANU (Building 137, room 2.49) focuses on developing single atom and nanomaterials for energy storage and conversion technologies, continuing her trajectory as an emerging leader in advanced materials synthesis and electron microscopy characterization.

• Nanomaterials Chemistry
• Electron Microscopy
• Electrocatalysis
• +3 more

Kaye Morgan is an Associate Professor in the School of Physics and Astronomy at Monash University, specializing in X-ray imaging technologies with applications in medical and respiratory research. She holds an Australian Research Council Future Fellowship and has held prestigious positions including a Hans Fischer Fellowship at Technische Universität München. Her research focuses on advancing X-ray optics methodologies, particularly phase contrast X-ray imaging (PCXI) and dark-field imaging, to enhance resolution, speed, and sensitivity. These techniques are applied to study airway health in cystic fibrosis and other respiratory diseases, using synchrotron facilities like SPring-8 and the Munich Compact Light Source. She has pioneered single-grid imaging and propagation-based dark-field approaches, enabling real-time visualization of lung dynamics and treatment efficacy. Morgan leads multiple high-impact projects funded by ARC and international collaborations, with over 85 publications in journals like Optics Express and Scientific Reports. Her work contributes to UN Sustainable Development Goals related to health and innovation. Key achievements include developing lab-based X-ray sources for clinical translation and quantifying lung microstructure through advanced imaging algorithms.

• X-ray Imaging
• Phase Contrast X-ray Imaging
• Dark-field Imaging
• +4 more

Dr. Amir Tavakoli Taba is a Senior Lecturer in Medical Imaging Sciences at the University of Sydney, where he co-directs the Medical Image Optimisation and Perception Group (MIOPeG). He specializes in improving medical imaging accuracy, particularly in breast cancer diagnosis, through advancements like phase-contrast tomography and AI integration. His work bridges technological innovations (e.g., low-dose imaging) with clinical practice, emphasizing quality control and radiologist performance analysis. Education: PhD (University of Sydney) MEngSc (University of New South Wales) BSc (University of Tehran) Research Interests: Dr. Taba’s research focuses on phase-contrast computed tomography (PCT), AI-driven diagnostic tools, and clinical workflow optimization. His projects include the world’s first PCT clinical trial (scheduled for 2024 in Melbourne) and collaborations with institutions like ANSTO, Harvard Medical School, and the University of Iowa. He also investigates radiologist expertise development and the role of social networks in medical decision-making. Grants & Awards: NHMRC Synergy Grant (IMPACT: Implementation of X-ray Phase-Contrast Tomography) International recognition, including the SPIE Medical Imaging Award Advising & Labs: Current students: Mohammed ALANAZI (abdominal CT optimization), Jenna ARBID (phase-contrast imaging) Labs: MIOPeG, part of the Sydney Vital and Sydney Catalyst cancer research networks Teaching: Courses in imaging technologies, medical image perception, and clinical capstone projects for diagnostic radiography students.

• Medical Imaging
• Breast Cancer Diagnosis
• Phase-Contrast Tomography
• +4 more

Professor Rajesh Ramanathan is a renowned interdisciplinary scientist and research leader at RMIT University's School of Science. He holds the rank of Professor and co-leads the NanoBiotechnology Research Lab (NBRL). His work focuses on nanotechnology, materials chemistry, and sensor development for healthcare applications, with over 85 peer-reviewed publications and 20 patents. He has secured AUD $22 million in research funding and mentored 16 PhD students and 3 postdocs. Education: PhD in Science (RMIT University, 2012), Master of Biotechnology (RMIT, 2006), and Bachelor of Science (Ruia College, 2004). Awards include the Hartung Lecturer Award (2022), Rising Star Award (2022), and Philip Law Postdoctoral Award (2019). Research interests span nanobiotechnology, nanozymes, antimicrobial surfaces, and sensors for environmental/clinical analytes. He leads projects in supercapacitor materials, inflammation theranostics, and UV protection textiles. Current students include Pyria Mariathomas (antibacterial nanozymes) and Shalu Yadav (2D nanocomposites for viral biomarkers). Professional roles include President of the Royal Australian Chemical Institute VIC Branch and leadership roles in the Australian Nanotechnology Network. His work bridges academia and industry, with collaborations in biomedical imaging and sensor commercialization.

• Nanobiotechnology
• Materials Chemistry
• Analytical Chemistry
• +6 more

Dr. Kelly Crossley is a Senior Research Fellow at the Fetal and Neonatal Health Research Group, The Ritchie Centre, Hudson Institute of Medical Research, and an Adjunct Senior Research Fellow in the Department of Obstetrics and Gynaecology at Monash University, within the Faculty of Medicine, Nursing and Health Sciences. She is actively involved in perinatal research and is accepting PhD students. Senior Research Fellow – Hudson Institute of Medical Research Adjunct Senior Research Fellow – Department of Obstetrics and Gynaecology, Monash University Dr. Crossley earned a Bachelor of Science (Honours) from Monash University (1991–1995), focusing on fetal behavioural states regulated by progesterone. Her research centers on perinatal physiology, particularly the respiratory and cardiovascular transition at birth. She investigates mechanisms of brain injury in newborns and develops interventions to improve spontaneous breathing in preterm infants. Her work employs advanced preclinical models in rabbits and sheep and leverages synchrotron imaging from Australian and Japanese facilities. Key areas include neonatal resuscitation, congenital diaphragmatic hernia, transient tachypnoea, and mechanical ventilation. The recent publications highlight a strong trend in preclinical neonatal physiology, focusing on resuscitation techniques, lung development, and circulatory recovery. Her work bridges animal models and clinical translation, especially in oxygenation strategies and cord clamping. Reducing respiratory distress after caesarean delivery Phase-contrast neuroimaging for early detection of brain injury Improving neonatal transition in CDH Reducing pulmonary hypertension in CDH Mechanisms to improve newborn respiratory function via X-ray imaging Dr. Crossley has led multiple research projects as a Primary Chief Investigator and collaborates widely with clinicians and scientists. She has secured active and completed grants from diverse sources, including Congenital Diaphragmatic Hernia Australia. While no awards are listed, her leadership in high-impact, peer-reviewed research underscores her scientific contributions. She is a key member of the Fetal and Neonatal Health Research Group at The Ritchie Centre, Hudson Institute, where she conducts collaborative, multidisciplinary research integrating physiology, imaging, and clinical innovation.

• Perinatal Physiology
• Neonatal Resuscitation
• Respiratory Physiology
• +12 more

Associate Professor Marcus Kitchen is affiliated with Monash University's School of Physics and Astronomy and the Victorian Heart Institute. He specializes in developing advanced X-ray imaging techniques, including Phase Contrast Imaging, Compton Scatter Imaging, and Ultra-Low Radiation Dose methods. His research focuses on enhancing diagnostic capabilities in lung and brain imaging while minimizing radiation exposure. Collaborations with institutions like the Hudson Institute aim to improve neonatal care, particularly for preterm infants with underdeveloped lungs. Key projects include translating synchrotron-based methodologies for clinical and industrial applications. Research interests span biomedical imaging, material discrimination, and radiation dose reduction. He leads or co-leads over 30 projects, including 'X-ray Scatter Imaging: Vast Information with Minimal Radiation' (2025–2028) and 'IMPACT: IMplementation of x-ray PhAse-Contrast Tomography to transform cancer diagnosis' (2022–2026). His work aligns with UN Sustainable Development Goals focused on health and innovation. Publications emphasize novel imaging modalities and their applications in respiratory and neurological disorders. Despite no explicit awards listed, his contributions to reducing radiation exposure and advancing lung mechanics research are significant. He supervises graduate students and actively seeks PhD candidates. His lab integrates theoretical, computational, and experimental approaches to bridge gaps between fundamental physics and clinical medicine.

• Phase Contrast X-ray Imaging
• Compton Scatter Imaging
• Biomedical Imaging
• +4 more

Professor Brendan Kennedy is a leading academic in biomedical engineering and optical imaging, serving as Group Leader of the Bioimaging Research and Innovation for Translational Engineering Laboratory (BRITElab) at the Harry Perkins Institute of Medical Research. He holds a Full Professor position in the School of Engineering at The University of Western Australia (UWA) and is a Visiting Professor in the Institute of Physics at Nicolaus Copernicus University, Poland. B.Sc. in Electronic Engineering (2001) Ph.D. in Electronic Engineering (2006) His research focuses on developing advanced optical coherence tomography (OCT) and optical elastography techniques for clinical applications in surgery, mechanobiology, and tissue engineering. These technologies enable high-resolution, real-time imaging of tissue elasticity and micro-scale mechanics, revolutionizing cancer detection and surgical margin assessment. Recent publications highlight his pioneering work in 3D mechanical characterization of tumors, intraoperative imaging for breast-conserving surgery, and multimodal systems integrating OCT with fluorescence lifetime imaging. His team has also advanced phantom designs for calibration, strain retrieval algorithms, and portable optical palpation devices for telehealth and low-resource settings. West Australian 40under40 Award Elected Optica Fellow (2024) Prof. Kennedy has secured over $15 million in competitive research grants and $5 million in industry contracts, driving translational projects like OncoRes Medical, a startup commercializing his optical imaging innovations. He holds 40+ patents and co-founded BioZone, a UWA initiative fostering interdisciplinary biomedical research.

• Optical Imaging
• Biomedical Engineering
• Medical Imaging
• +4 more

Marie-Christine Zdora is a Research Fellow in the School of Physics and Astronomy at Monash University. She holds adjunct roles including Adjunct Scientist at ETH Zürich (2022–2020) and Postdoctoral Researcher at Paul Scherrer Institut (2021–2021). Her academic journey includes a PhD in Physics from University College London (2015–2020), and master’s degrees from TU Munich and the University of Sydney. Her research focuses on advanced X-ray imaging techniques, particularly phase-contrast imaging using near-field speckles, dark-field imaging, and multi-modal approaches. Key areas include medical imaging applications, biological tissue analysis, and synchrotron-based tomography. She leads projects such as Multi-scale, multi-modal X-ray imaging using speckle and collaborates internationally on diagnostic radiology innovations. Zdora has received prestigious awards including the Springer Thesis Award (2020) and the Award of Congressi Stefano Franscini (2016). She serves as an Associate Editor for Optics Express and actively supervises students and mentors interns. Her work contributes to SDGs related to health, innovation, and sustainable development.

• X-ray Physics
• X-ray Imaging
• Phase Contrast Imaging
• +4 more

Professor Nicholas F. Chilton serves as Professor of Computational and Theoretical Chemistry at The Australian National University's Research School of Chemistry, maintaining a joint appointment with The University of Manchester. He leads the internationally recognized Chilton group, which investigates the magnetic properties of molecules through integrated computational and experimental approaches. His academic journey includes a BSc Adv Hons from Monash University (2011) completed under Prof. Keith Murray, followed by a PhD from The University of Manchester (2015) supervised by Prof. Richard Winpenny and Prof. Eric McInnes. His postdoctoral career featured prestigious fellowships including Ramsay Memorial Research Fellow (2016-2018) and Royal Society University Research Fellow (2019-2023). Chilton's research program centers on molecular magnetism with three key application areas: developing novel MRI contrast agents, advancing quantum information systems through molecular spin qubits, and creating next-generation molecular data storage solutions. His group employs computational methods (DFT, CASSCF) alongside experimental techniques (EPR, SQUID magnetometry, INS spectroscopy) to establish fundamental structure-property relationships in magnetic molecules. Recent publications demonstrate significant progress in understanding spin dynamics of lanthanide systems, with particular focus on dysprosium complexes and their quantum properties. His work shows a clear trajectory toward designing molecules with tailored magnetic characteristics for specific technological applications. Professor Chilton's contributions have been recognized with multiple prestigious awards: Dalton Young Researchers Award (2015) 7th Olivier Kahn International Award (2019) Harrison-Meldola Memorial Prize (2021) Philip Leverhulme Prize (2023) Ramsay Memorial Research Fellow (2016-2018) Presidential Fellow at Manchester (2018-2019) Royal Society University Research Fellow (2019-2023) He actively supervises graduate researchers including PhD candidate Ed Latham. His work is supported by the ANU Futures Scheme project (2023-2028) and multiple research grants. The Chilton group currently pursues four major projects: 'Search Designer magnetic anisotropy,' 'Electric-field manipulation of molecular qubits,' 'Molecular Qubits,' and 'Next-generation molecule-based magnetic materials,' offering opportunities for Bachelor, Honours, and Master students.

• Single-molecule magnetism
• Molecular spin qubits
• Magnetic resonance imaging agents
• +9 more

Samantha Jane Alloo is a Research Fellow at Monash University's School of Physics and Astronomy , specializing in X-ray imaging techniques. She holds a PhD in Medical Physics (2024) and degrees in Mathematics and Physics from the University of Canterbury. Education PhD in Medical Physics, University of Canterbury (2021–2024) Bachelor of Science with First-Class Honours in Medical Physics, University of Canterbury (2020–2021) Bachelor of Science in Mathematics and Physics, University of Canterbury (2017–2019) Her research focuses on speckle-based X-ray imaging , particularly phase-contrast and dark-field imaging. She has pioneered the multimodal intrinsic speckle-tracking (MIST) algorithm for rapid, high-resolution imaging and currently investigates Fokker-Planck equation applications in paraxial X-ray imaging to expand sample information extraction. Her publications span X-ray imaging , computational techniques , and biomedical applications , with recent work on dark-field tomography and phase-contrast tomography for unknown materials. She has secured international grants and led experiments at the European Synchrotron Radiation Facility. Scientific Awards Best Oral Presentation at Materials@UC Conference (2020) Best PhD Student Oral Presentation at UC-SPCS Symposium (2021) Best Poster Prize at Australian Synchrotron Meeting (2022) Best Student Oral Presentations at NZPEM Conferences (2021, 2022) She actively collaborates with researchers like Andrew Stevenson and Kaye Morgan, aiming to apply her expertise to diverse physics-related fields for future work.

• X-ray Physics
• Dark-field Imaging
• Phase-contrast Imaging
• +2 more

Michael Withford is a Professor at Macquarie University's School of Mathematical and Physical Sciences, Director of the Optofab Node of the Australian National Fabrication Facility, and CEO of Modular Photonics. His research focuses on laser-based advanced manufacturing, microphotonics, and smart sensing, with applications in integrated optics for high-capacity networks and exoplanet detection via nulling interferometry. He leads initiatives like the GLINT photonic nulling interferometer and has developed award-winning fiber-optic devices for data transmission and infrastructure monitoring. Roles: Professor, Director (Optofab Node), CEO (Modular Photonics) Key Projects: GLINT nulling interferometer, sewer corrosion sensors, mid-IR photonic devices Research interests span femtosecond laser fabrication, integrated waveguides, and astrophotonics. Over 500 publications and active in multi-disciplinary collaborations, including CSIRO and international telescope projects. Current work addresses next-gen optical networks, exoplanet imaging, and robust sensor systems for harsh environments. Grants and industry partnerships support his work in translating research into commercial products, such as Modular Photonics' microchip devices enhancing fiber networks. Collaborations span astrophysics, materials science, and environmental engineering.

• Laser Physics
• Photonics
• Integrated Optics
• +6 more

Dr. Thinh Le is a Postdoctoral Research Fellow at the School of Computer Science , University of Technology Sydney , where he works at the Centre for Quantum Software and Information (since 2023). His academic journey includes research fellowships at the Institute for Quantum Optics and Quantum Information Vienna (2020-2023) and Leibniz University Hannover (2019-2020). He earned his PhD in Physics (2015) and BSc in Physics (2011) from the National University of Singapore . Thinh's research focuses on quantum information science , bridging theoretical foundations and experimental implementations. His work addresses critical challenges in quantum computing (error correction, fault tolerance), quantum tomography (device-independent characterization), and quantum software stack development. He investigates quantum randomness generation, Bell nonlocality, and entanglement distillation for quantum networks, with applications in quantum cryptography and secure communication. His recent publications examine advanced topics like trapped-ion lattice surgery (2025), quantum correlation boundaries (2025), and quantum backflow phenomena (2023). Earlier work established foundational limits for real quantum theory (2021) and developed practical entanglement distillation protocols (2018). Scientific awards include the Lise Meitner Postdoctoral Fellowship (2020-2023) and Humboldt Postdoctoral Fellowship (2019-2020). His funded research projects focus on quantum computing error correction and device-independent quantum tomography , aligning with his theoretical expertise guided by experimental applications.

• Quantum Information Science
• Quantum Computing
• Quantum Error Correction
• +6 more

Associate Professor Stefano Palomba is an experimental physicist specializing in nanophotonics and nanoplasmonics at The University of Sydney's School of Physics. He leads the Nanophotonics and Plasmonics Advancement Lab (NPAL) and serves as Deputy Director of the Institute of Photonics and Optical Science. His research focuses on developing next-generation integrated optical devices, leveraging advanced facilities like femtosecond-OPO lasers and near-field scanning optical microscopes. He is a domain leader in Sydney Nano and a member of the Net Zero Institute. His work bridges fundamental physics and applied technologies, with emphasis on nonlinear optics, plasmonic nanostructures, and biomedical applications of nanomaterials. Notable contributions include innovations in hybrid plasmonic circuits, carbon dot-based biosensors, and nanolasers for compact optical systems. Palomba has secured significant grants, including a 2022 NHMRC Ideas Grant for neurophotonics research and a 2024 grant for mobile optical sensing platforms. His lab's modular approach to plasmonic systems enables scalable solutions for telecommunications and healthcare. Recent projects include direct growth of MoS₂ monolayers on silicon waveguides and breakthroughs in sub-Poissonian photon emission using hexagonal boron nitride. Palomba collaborates internationally, advancing photonics applications in quantum technologies and environmental sensing. Grants include $23M+ for innovative health research (2022) and $31M+ for interdisciplinary photonics projects (2016). His publications span high-impact journals like Nanophotonics and Nanoscale Advances , reflecting contributions across plasmonics, nonlinear optics, and bio-nanotechnology.

• Nanophotonics
• Nanoplasmonics
• Integrated Optical Devices
• +5 more

Dr. Will Harrison is an Honorary Research Fellow at the School of Psychology , The University of Queensland , Australia. His research focuses on understanding the neural and computational mechanisms underlying visual perception, attention, and working memory. Academic Rank: Research Fellow Email: w.harrison@psy.uq.edu.au Research Interests: Dr. Harrison investigates how the human visual system integrates information across eye movements, the role of natural image statistics in perception, and the neural coding of orientation and spatial uncertainty. His work bridges experimental psychology, computational neuroscience, and psychophysics. Publications (2019–2025): Recent studies examine transsaccadic attention allocation , prior expectations in visual neural tuning , confidence judgments in multisensory decisions , and visual crowding mechanisms . His computational models often incorporate gain fields, Bayesian inference, and feature binding dynamics.

• Visual Perception
• Cognitive Neuroscience
• Computational Modeling
• +7 more

Michelle Croughan is a Research Fellow at the School of Physics and Astronomy, Monash University, where she conducts advanced research in x-ray imaging and biomedical physics. Her work integrates physics and physiology to study lung development and structural changes in disease models. Her research focuses on developing and applying novel x-ray imaging techniques such as directional dark-field and phase-contrast imaging to study microstructural changes in biological tissues. She applies these methods to preclinical models of cystic fibrosis and neonatal lung conditions, particularly in understanding lung aeration and vascular development in newborns with diaphragmatic hernia. Recent publications demonstrate a strong trend in combining computational image processing with synchrotron-based x-ray techniques to achieve high-resolution, quantitative insights into lung physiology and bone microstructure. Her work bridges physics, engineering, and medicine. Effect of prenatal diaphragmatic hernia on pulmonary arterial morphology (2025) Directional dark-field retrieval with single-grid x-ray imaging (2023) Fast implicit diffusive dark-field retrieval (2023) Sustained inflation improves lung aeration (2023) Accurate measures of regional lung air volumes (2022) Michelle Croughan leads research projects funded by the Australian Institute of Nuclear Science and Engineering (AINSE), including an active grant on directional dark-field imaging of small animal bones and teeth in cystic fibrosis models. She previously led an International Synchrotron Access Grant. There is no public information on student supervision or formal advising roles. She is part of a collaborative research network involving experts in medical physics and neonatal physiology, including Dr. Marcus Kitchen and other researchers at Monash University. Her work is conducted using advanced imaging facilities, likely including synchrotron sources, and focuses on translational preclinical applications.

• Medical Imaging
• X-ray Physics
• Biomedical Physics
• +7 more