Overview
Background
I am the Group Leader of Bio-inspired Materials Research at the Australian Institute for Bioengineering and Nanotechnology, The University of Queensland. Our research focuses on transforming agricultural waste into innovative solutions for tackling plastic and food waste issues. Our mission extends beyond research and into commercialisation. We are dedicated to fostering partnerships across industry, academia, community and government, utilising waste as a valuable resource for advancements in the environment, food and health sectors. Our approach is clear: turning challenges into opportunities for a sustainable future.
I am a strong advocate for cultural diversity and equity, and support staff and students to grow as more effective leaders and create social good.
In recognition of my contribution to the field of nanomaterials engineering and research excellence, I have received several awards including; one of the winners of AgriFutures Australia and growAG.Catalyst Program(2024), one of the Queelsnand Tall Poppy Award winners(2024), The Eight Australian Women Who Are Shaking up the World Of Science (Marie Claire, 2020), one of Australia’s Top 5 Scientists (ABC/UNSW, 2018), Queensland Women in STEM Prize- judges choice award (2017), Women in Technology Life Sciences and/or Infotech Rising Star Award (2016), AIBN Research Excellence Award (2016), a Class of 2014 Future Leader award and Best poster prize at the Australian Nanotechnology Network ECR Entrepreneurship workshop(2015).
Availability
- Dr Nasim Amiralian is:
- Available for supervision
- Media expert
Fields of research
Qualifications
- Doctor of Philosophy, The University of Queensland
Works
Search Professor Nasim Amiralian’s works on UQ eSpace
2014
Journal Article
Optimisation of resin extraction from an Australian arid grass 'Triodia pungens' and its preliminary evaluation as an anti-termite timber coating
Amiralian, Nasim, Annamalai, Pratheep K., Fitzgerald, Chris, Memmott, Paul and Martin, Darren J. (2014). Optimisation of resin extraction from an Australian arid grass 'Triodia pungens' and its preliminary evaluation as an anti-termite timber coating. Industrial Crops and Products, 59, 241-247. doi: 10.1016/j.indcrop.2014.04.045
2014
Conference Publication
Unusually high aspect ratio, easily deconstructed cellulose nanofibers from Australian spinifex (Triodia pungens)
Amiralian, Nasim, Annamalai, Pratheep Kumar, Memmott, Paul and Martin, Darren J. (2014). Unusually high aspect ratio, easily deconstructed cellulose nanofibers from Australian spinifex (Triodia pungens). TAPPI Nano 2014: TAPPI 9th Annual International Conference on Nanotechnology for Renewable Materials, Vancover, BC, Canada, 23-26 June 2014.
2014
Other Outputs
Nanocomposite Elastomers
Martin, Darren James and Amiralian, Nasim (2014). Nanocomposite Elastomers. 2014904956.
2014
Conference Publication
Alternative approaches and feedstocks for nanocellulose
Annamalai, Pratheep Kumar, Amiralian, Nasim and Martin, Darren J. (2014). Alternative approaches and feedstocks for nanocellulose. 1st Australian workshop on cellulose nanofibers, Melbourne VIC, Australia, 17 July 2014.
2013
Book Chapter
Biopolymeric nanocomposites reinforced with nanocrystalline cellulose
Jorfi, Mehdi, Amiralian, Nasim, Biyani, Mahesh V. and Annamalai, Pratheep K. (2013). Biopolymeric nanocomposites reinforced with nanocrystalline cellulose. Biomass-based biocomposites. (pp. 277-304) Shrewsbury, Shropshire, United Kingdom: Smithers Rapra Technology.
2013
Conference Publication
Microfibrillated cellulose (MFC) from Triodia Pungens, an Australian native grass
Amiralian, Nasim, Edwards, Grant, Milne, John, Memmott, Paul, Annamalai, Pratheep K. and Martin, Darren (2013). Microfibrillated cellulose (MFC) from Triodia Pungens, an Australian native grass. Nano 2013: TAPPI 8th Annual International Conference on Nanotechnology for Renewable Materials, Stockholm, Sweden, 24-27 June, 2013.
2013
Book Chapter
Circular and ribbon-like silk fibroin nanofibers
Amiralian, N. and Nouri, M. (2013). Circular and ribbon-like silk fibroin nanofibers. Research in novel materials. (pp. 191-206) edited by Rafiqul Islam. New York, United States: Nova Science Publishers.
2012
Conference Publication
Extraction Microfibrillated Cellulose from Spinifex Grass using High Energy Milling and Chemical Pretreatment
Amiralian, Nasim, Memmott, P., Edwards, G., Milne, J., Jack, K., Morrow, I. and Martin, D. (2012). Extraction Microfibrillated Cellulose from Spinifex Grass using High Energy Milling and Chemical Pretreatment. ICEAN 2012, Brisbane QLD, Australia, 22-25 October 2012. Brisbane Qld Australia: The University of Queensland, Australian Institute for Bioengineering and Nanotechnology (AIBN).
2010
Journal Article
Structural characterization and mechanical properties of electrospun silk fibroin nanofiber mats
Amiraliyan, N., Nouri, M. and Kish, M. Haghighat (2010). Structural characterization and mechanical properties of electrospun silk fibroin nanofiber mats. Polymer Science - Series A, 52 (4), 407-412. doi: 10.1134/S0965545X10040097
2009
Journal Article
Effects of some electrospinning parameters on morphology of Natural silk-based nanofibers
Amiraliyan, Nasim, Nouri, Mahdi and Kish, Mohammad Haghighat (2009). Effects of some electrospinning parameters on morphology of Natural silk-based nanofibers. Journal of Applied Polymer Science, 113 (1), 226-234. doi: 10.1002/app.29808
2009
Book Chapter
Circular and ribbon-like silk fibroin nanofibers by electrospinning process
Amiralian, N. and Nouri, M. (2009). Circular and ribbon-like silk fibroin nanofibers by electrospinning process. Electrospun Nanofibers Research: Recent Developments. (pp. 279-296) edited by A.K. Haghi. New York, NY, United States: Nova Science Publishers.
2009
Journal Article
Electrospinning of silk nanofibers. I. An investigation of nanofiber morphology and process optimization using response surface methodology
Amiraliyan, Nasim, Nouri, Mahdi and Kish, Mohammad Haghighat (2009). Electrospinning of silk nanofibers. I. An investigation of nanofiber morphology and process optimization using response surface methodology. Fibers and Polymers, 10 (2), 167-176. doi: 10.1007/s12221-009-0167-9
2009
Journal Article
Circular and Ribbon-Like Silk Fibroin Nanofibers by Electrospinning Process
Amiralian, N. and Nouri, M. (2009). Circular and Ribbon-Like Silk Fibroin Nanofibers by Electrospinning Process. Electrospun Nanofibers Research: Recent Developments, 279-295.
2007
Journal Article
Evaluation of reinforcement on the mechanical behavior of partially bonded fiber/matrix interface
Haghi, A. K., Sadrmomtazi, A., Bastani, A. Farjad, Amiralyan, N. and Haghi, R. K. (2007). Evaluation of reinforcement on the mechanical behavior of partially bonded fiber/matrix interface. Composite Interfaces, 14 (7-9), 647-668. doi: 10.1163/156855407782106465
Funding
Current funding
Past funding
Supervision
Availability
- Dr Nasim Amiralian is:
- Available for supervision
Before you email them, read our advice on how to contact a supervisor.
Available projects
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Intelligent medical textiles
This research project advances our sustainable medical textiles stream to develop intelligent textiles that contain bioactive nanofiber and stimuli-responsive nanomaterials to detect the virus and bacteria and disinfect them. The visionary approach of this concept is based on the possibility of developing a new generation of medical textiles with synergistically combined chemically driven and light-assisted self-disinfection properties. The key in this research direction is the development of low-cost surface functionalities and textile design to enable sustainable industrial development.
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Biodegradable medical textile
Single-use plastic causes severe health and environmental impacts. It accounts for 25% of all waste generated by hospitals, which ends up in landfill and breaks down into tiny particles (microplastics) that cause severe health issues. Fossil fuel combustion to produce plastics is also a major contributor to air pollution-related deaths. This research aims to harness nature-derived materials to develop sustainable protective nonwoven fabrics for medical clothing such as PPE (face masks and medical gowns), filters (air and water), and wipes. Expected outcomes will transform the way we manufacture, use, and dispose of these materials.
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Sustainable biosensors
Conductive hydrogel is a 3D structural gel with high water content and electrically conductive materials e.g. metallic nanoparticles. This research aims to develop a reliable approach for making a new generation of conductive hydrogels that can serve as building blocks for bioelectronic devices in personalised healthcare and other bioengineering areas, including electronic skins, body matched antennas, and biosensors. This research focuses on the development of a system that demonstrates synergistic outstanding mechanical performance and electrical conductivity, which is currently a significant challenge in the field. Thus, this work is expected to create new paradigms for hydrogel materials fabrication with infinite applications.
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Smart and active packaging
The higher demand for healthy, safe and fresh products promotes the search for the development of active packaging systems to extend the food shelf life and monitor the quality of packed food. In active packaging, absorber or emitters are added to the packaging, which interacts with the inner environment of the package to enhance the shelf life of the food. This research project is built on the advancement of our biodegradable packaging materials research stream with a specific focus on food packaging. We will also investigate the effect of essential oils extracted from spinifex and other bush plants as active reagents in the development of active packaging.
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Intelligent medical textiles
This research project advances our sustainable medical textiles stream to develop intelligent textiles that contain bioactive nanofiber and stimuli-responsive nanomaterials to detect viruses and bacteria and disinfect them. The visionary approach of this concept is based on the possibility of developing a new generation of medical textiles with synergistically combined chemically driven and light-assisted self-disinfection properties. The key in this research direction is the development of low-cost surface functionalities and textile design to enable sustainable industrial development.
-
Biodegradable medical textile
Single-use plastic causes severe health and environmental impacts. It accounts for 25% of all waste generated by hospitals, which ends up in landfill and breaks down into tiny particles (microplastics) that cause severe health issues. Fossil fuel combustion to produce plastics is also a major contributor to air pollution-related deaths. This research aims to harness nature-derived materials to develop sustainable protective nonwoven fabrics for medical clothing such as PPE (face masks and medical gowns), filters (air and water), and wipes. Expected outcomes will transform the way we manufacture, use, and dispose of these materials.
-
Smart and active packaging
The higher demand for healthy, safe and fresh products promotes the search for the development of active packaging systems to extend the food shelf life and monitor the quality of packed food. In active packaging, absorber or emitters are added to the packaging, which interacts with the inner environment of the package to enhance the shelf life of the food. This research project is built on the advancement of our biodegradable packaging materials research stream with a specific focus on food packaging. We will also investigate the effect of essential oils extracted from spinifex and other bush plants as active reagents in the development of active packaging.
-
Sustainable biosensors
Conductive hydrogel is a 3D structural gel with high water content and electrically conductive materials e.g. metallic nanoparticles. This research aims to develop a reliable approach for making a new generation of conductive hydrogels that can serve as building blocks for bioelectronic devices in personalised healthcare and other bioengineering areas, including electronic skins, body matched antennas, and biosensors. This research focuses on the development of a system that demonstrates synergistic outstanding mechanical performance and electrical conductivity, which is currently a significant challenge in the field. Thus, this work is expected to create new paradigms for hydrogel materials fabrication with infinite applications.
Supervision history
Current supervision
-
Doctor Philosophy
Biodegradable medical textiles
Principal Advisor
Other advisors: Professor Alan Rowan, Dr Keng Chew
-
Doctor Philosophy
Sustainable Antimicrobial Coating Materials for Potential Face Mask Applications
Principal Advisor
Other advisors: Professor Mark Blaskovich, Professor Alan Rowan
-
Doctor Philosophy
Sustainable antimicrobial coating materials for potential face mask application
Principal Advisor
Other advisors: Professor Mark Blaskovich, Professor Alan Rowan
-
Doctor Philosophy
Nanoarchitectured anti-corrosion coatings for zinc-plated steel
Principal Advisor
Other advisors: Professor Yusuke Yamauchi, Dr Valentino Kaneti
-
Doctor Philosophy
Sustainable antimicrobial coating materials for potential face mask application
Principal Advisor
Other advisors: Professor Mark Blaskovich, Professor Alan Rowan
-
Doctor Philosophy
Nanoarchitecturing of Bimetallic Metal-Organic Frameworks and their Derived Materials for Sensing Applications
Associate Advisor
Other advisors: Professor Yusuke Yamauchi, Associate Professor MD Shahriar Hossain, Dr Valentino Kaneti
-
Doctor Philosophy
Advanced Mesoporous Metallic Materials for Photo-Electrochemical Applications
Associate Advisor
Other advisors: Professor Yusuke Yamauchi, Associate Professor MD Shahriar Hossain, Dr Valentino Kaneti
-
Doctor Philosophy
Nanoarchitecturing of Bimetallic Metal-Organic Frameworks and their Derived Materials for Sensing Applications
Associate Advisor
Other advisors: Professor Yusuke Yamauchi, Associate Professor MD Shahriar Hossain, Dr Valentino Kaneti
Completed supervision
-
2025
Doctor Philosophy
Sustainable antimicrobial coating materials for potential face mask application
Principal Advisor
Other advisors: Professor Mark Blaskovich, Professor Alan Rowan
-
2024
Doctor Philosophy
Nanocellulose-based conductive polymer brush materials
Principal Advisor
Other advisors: Professor Alan Rowan, Dr Katrin Kockler
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2024
Doctor Philosophy
Sorption of Per- and Poly- Fluorinated Alkyl Substances from Different Wastewater Streams
Associate Advisor
Other advisors: Associate Professor Paul Jensen, Dr Bernardino Virdis, Associate Professor Ilje Pikaar
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2021
Doctor Philosophy
Cellulose Nanofibre and Nanopaper: Structure-property-processing Relationship and Green Surface Modification
Associate Advisor
Other advisors: Professor Lisbeth Grondahl, Professor Darren Martin
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2019
Doctor Philosophy
Reinforcement of Natural Rubber Nanocomposites using Lignocellulosic Biomass
Associate Advisor
Other advisors: Dr Pratheep Kumar Annamalai, Professor Darren Martin
Media
Enquiries
Contact Dr Nasim Amiralian directly for media enquiries about:
- Antimicrobial
- Biocomposites
- Biomaterials
- Circular economey
- Face mask
- Fibres
- Medical Textile
- Nanocellulose
- Packaging
- Plastic pollution
- Polymers
- Renewables
- Spinifex
- Valorising agricultural waste
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