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Anna PuskasView profile

Research Fellow

• Number Theory
• Algebraic Combinatorics
• Representation Theory
• +3 more

Dr. Anna Puskas holds the position of Honorary Research Fellow at the School of Mathematics and Physics, The University of Queensland, where she maintains active research collaborations within Australia's premier mathematical sciences institution. Her scholarly work bridges abstract algebraic structures with concrete number-theoretic applications, reflecting deep engagement with both theoretical frameworks and cryptographic implementations. Her research program centers on four interconnected pillars: Number Theory & Cryptography : Developing Ramanujan graph applications for post-quantum cryptography and analyzing class field theory in multiquadratic extensions Algebraic Combinatorics : Constructing crystal bases through combinatorial representation theory and Kashiwara operator frameworks Representation Theory : Investigating metaplectic covers of Kac-Moody groups and their Whittaker function decompositions Lie Theory : Exploring t-deformed root multiplicities and correction factors in infinite-dimensional Lie algebras Analysis of her 2012-2019 publications reveals an evolving trajectory from classical invariant theory toward cutting-edge metaplectic representation theory. Her work demonstrates increasing sophistication in handling p-adic groups and automorphic forms, particularly through novel constructions of Whittaker functions on metaplectic covers. The cryptographic applications of her number-theoretic work—especially Ramanujan graphs—show practical impact beyond pure mathematics, while her crystal basis research provides essential combinatorial tools for representation theorists. No scientific awards or honors were documented in available institutional records. Similarly, details regarding graduate student supervision, research grant funding, or laboratory affiliations were not provided in the source materials, suggesting her honorary fellowship may focus primarily on independent research collaboration rather than formal teaching or administrative duties.

• Structural Engineering
• Civil Engineering
• Materials Engineering
• +9 more

Associate Professor Jessey Lee is a Structural Engineer and Deputy Chair of the Department of Civil and Construction Engineering at Swinburne University of Technology's School of Engineering. With expertise in structural design, prefabricated construction, and engineered connections, she leads significant research in concrete, steel, and timber systems while serving as Training and Development Manager at the Australian Engineered Fasteners and Anchors Council (AEFAC). Her research focuses on advancing construction technologies with emphasis on sustainable, low-carbon building methods. Professor Lee investigates concrete, steel, and timber connections, modular construction systems, and innovative fastening solutions for various concrete conditions including early age concrete, high-strength concrete, and concrete with void formers. Her work directly addresses industry challenges related to construction efficiency, safety, and sustainability, contributing to UN Sustainable Development Goals 9, 11, and 13. Professor Lee maintains an extensive research portfolio with 53 documented grants and 82 publications. Her recent work demonstrates strong industry relevance, with numerous collaborations with construction firms, government bodies, and international partners. She actively contributes to standards development through Standards Australia and professional organizations including the Australian Engineering Earthquake Society and the International Federation for Structural Concrete. veski inspiring women STEM sidebyside program (2023) VC Engaged Award (Individual) (2023) School of Engineering Teaching Excellence Award (2021) Vice Chancellor Industry Engagement Award (2015) The Australian Financial Review Higher Education Award (2015) As an educator, Professor Lee supervises 12 PhD students across diverse topics in structural engineering and serves as Deputy Chair of her department. Her research group maintains strong industry connections through over 25 active research contracts with partners including SmartCrete CRC Ltd, Sekisui House, and numerous construction technology firms. She has developed specialized testing facilities for seismic performance evaluation of fasteners, establishing Swinburne as a leader in this field in the southern hemisphere.

• Robotics
• Computer Vision
• Machine Learning
• +5 more

Zhang Fangyi is a research fellow at Queensland University of Technology's School of Electrical Engineering and Robotics, specializing in robotics, computer vision, and machine learning. With a PhD completed in 2018 titled 'Learning real-world visuo-motor policies from simulation,' Zhang has established a strong research trajectory focusing on bridging the gap between simulation and real-world robotics applications. Zhang's research interests center around robotic perception and manipulation, with particular expertise in sim-to-real transfer techniques, tactile sensing systems, and graph neural networks. Their work spans multiple domains including robotic grasping, fabric manipulation, face clustering algorithms, and graphene-based sensor development. A consistent theme throughout Zhang's research is the development of robust systems that can effectively transition from simulated environments to real-world applications. The publication record shows a clear evolution from foundational work in sim-to-real transfer (2015-2019) toward more specialized applications in tactile sensing and material science (2021-2024). Recent work demonstrates expanding interests into graphene-based sensor technology while maintaining core expertise in robotic perception. Zhang frequently collaborates with leading researchers at QUT including Peter Corke, with whom they've published multiple papers on robotic grasping and tactile sensing. Zhang's research has practical applications across multiple domains including assistive robotics, sensor development, and computer vision systems. Their work on laser-induced graphene sensors shows particular promise for next-generation tactile interfaces and wearable technology.