
Dr Peter Ireland
Senior Lecturer
School of Engineering
- Email:peter.ireland@newcastle.edu.au
- Phone:(02) 492 15653
Career Summary
Biography
Dr. Peter Ireland was born in May 1975 in Sydney, Australia. He obtained his B.Sc. (Physics Hons.) from the University of Sydney in 1997 and his Ph.D. (Applied Physics) from the University of Sydney in 2002. His Ph.D. thesis was on impact fracture of glass. After spending several years as full-time carer for his two children, he joined the Centre for Multiphase Processes at the University of Newcastle in mid-2004. He has since become a member of the PRC for Advanced Particle Processing and the Newcastle Institute for Energy and Resources. Peter's research interests deal with the fundamental and applied physics of a number of processes with particular relevance to the minerals, pharmaceutical and food industries, as well as to a variety of environmental applications. His broad fields of fundamental expertise include electrostatics and the interaction of liquids and interfaces with solids and particles. More specific areas of research interest include triboelectrification, foams and flotation, and liquid marbles and other liquid-particle aggregates.
From 2006-2010 Peter led the Triboelectric Separation project within the Australian Minerals Science Research Institute (AMSRI), funded by the Australian Research Council and AMIRA International. He was sole Chief Investigator on an Australian Research Council Discovery project, "Mass transport mechanisms in aqueous foam". From 2012-2015 he held an ARC Future Fellowship on Tribocharging and Triboelectric Separation, with strong relevance to water-free particle processing. At the end of 2015, Peter began an ongoing academic position in the Discipline of Chemical Engineering at UoN. From 2017-2020, he was Chief Investigator along with Prof. Kevin Galvin on an ARC Discovery Project, "A paradigm shift in the hydrodynamics of ion flotation". With Prof. Erica Wanless and A.Prof. Grant Webber, he was Chief Investigator on another ARC Discovery Project, "Electrostatic formation of liquid marbles". His work on triboelectric separation received the 'Young Author Award' at the XXV International Mineral Processing Congress (IMPC), Brisbane (2010), and the 'Young Scientist Award' of the European Working Party “Static Electricity in Industry” (EFCE), at the 11th International Conference on Electrostatics, Valencia (2009).
Qualifications
- Doctor of Philosophy, University of Sydney
- Bachelor of Science (Honours), University of Sydney
Keywords
- comminution
- electrostatics
- flotation
- fluid mechanics
- foams
- fracture
- mineral separation
- physics
- tribocharging
- wetting
Professional Experience
UON Appointment
Title | Organisation / Department |
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Senior Lecturer | University of Newcastle School of Engineering Australia |
Senior Lecturer | University of Newcastle School of Engineering Australia |
Academic appointment
Dates | Title | Organisation / Department |
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1/12/2011 - |
Fellow ARC ARC - Discovery - Future Fellowships |
University of Newcastle School of Engineering Australia |
1/6/2002 - 1/12/2002 | Part-time Research Officer | University of Newcastle School of Mathematical and Physical Sciences Australia |
Awards
Honours
Year | Award |
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2009 |
Young scientist award - 11th International Conference on Electrostatics, Valencia 2009. European Working Party "Static Electricity in Industry" (EFCE) |
Recipient
Year | Award |
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2006 |
Independent Investigator Scheme grant Unknown |
Research Award
Year | Award |
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2010 |
ARC Discovery grant: 'Mass transport in aqueous foams' Australian Research Council |
2010 |
Young Author Award Unknown |
Teaching
Code | Course | Role | Duration |
---|---|---|---|
CHEE3920 |
Coal and Mineral Processing Faculty of Engineering and Built Environment - The University of Newcastle (Australia) |
Course Coordinator / Lecturer | 1/1/2014 - 1/1/2020 |
CHEE2825 |
Chemical Engineering Laboratory 1 Faculty of Engineering and Built Environment - The University of Newcastle (Australia) |
Course coordinator / Lecturer | 1/1/2014 - 1/1/2020 |
Publications
For publications that are currently unpublished or in-press, details are shown in italics.
Journal article (34 outputs)
Year | Citation | Altmetrics | Link | ||||||||
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2020 |
Lobel BT, Ireland PM, Walsh LM, Thomas CA, Webber GB, Wanless EJ, 'Electrostatic Transfer of Conductive Particles for the Formation of Liquid Marbles-Charge Transfer Behavior', Journal of Physical Chemistry C, 124 9947-9957 (2020) [C1]
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2020 |
Thomas CA, Munday H, Lobel BT, Asaumi Y, Fujii S, Ireland PM, et al., 'Exploring the Impact of Particle Material Properties on Electrostatic Liquid Marble Formation', Journal of Physical Chemistry C, 124 26258-26267 (2020) [C1] © 2020 American Chemical Society. Specific particle material properties such as conductivity, cohesion, and density have been neither directly nor thoroughly studied regarding par... [more] © 2020 American Chemical Society. Specific particle material properties such as conductivity, cohesion, and density have been neither directly nor thoroughly studied regarding particle behavior in an electrostatic field and the follow-on impact this has on the electrostatic formation of liquid marbles. In this method, an applied electric field drives the extraction of particles from a bed and their transport to a pendent, earthed water droplet. Herein, prior studies of electrostatic formation of particle-stabilized droplets and liquid marbles have been expanded to compare the impact of density using the spherical polystyrene (PS) latex and glass particles of similar shape and size. The addition of thin polymer shells to both samples, which increases the conductivity and cohesion, allows the interplay of these three properties to be examined systematically. Separation distances between the particle bed and the droplet from which particles can initially be extracted increase as the negative applied potential increases. Initial extraction distances of both core particles were found to be similar, ~1.5 mm at 2.0 kV applied potential, despite the greater density, and thus mass of the glass particles. It is demonstrated that this is a result of competitive interactions between particle density, conductivity, and cohesion; PS is less conductive and more cohesive than glass. Introducing a polypyrrole shell increases the separation distance for extraction to approximately 4 mm for PS core particles but has little impact on glass core particles, demonstrating that for particles with constant conductivity and cohesion reducing the density facilitates extraction. Modeling and quantification of extraction threshold forces for each particle type were undertaken, utilizing the measurement of a radially symmetric area of the particle bed from which particles were observed in the initial extraction stages. This measurement highlighted that it is significantly easier to extract PS compared to glass, with particles extracted from a region in the bed up to 5 times the width in the PS case. Particle density is hypothesized to not be the determining factor in the stabilization of the coated liquid droplets; therefore, the interplay of a multitude of physical properties must be considered when determining the suitability of particulate materials for this electrostatic method.
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2020 |
Baynham S, Ireland P, Galvin K, 'Enhancing Ion Flotation through Decoupling the Overflow Gas and Liquid Fluxes', MINERALS, 10 (2020) [C1]
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2019 |
Ireland PM, 'Impact tribocharging of soft elastic spheres', Powder Technology, 348 70-79 (2019) [C1]
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2019 |
Ireland PM, Neville F, Dickinson JE, Galvin KP, 'Enhancing extraction in ion flotation using the boycott effect', Chemical Engineering and Processing - Process Intensification, 145 (2019) [C1]
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2019 |
Thomas CA, Kasahara M, Asaumi Y, Lobel BT, Fujii S, Ireland PM, et al., 'Influence of particle size on extraction from a charged bed - toward liquid marble formation', SOFT MATTER, 15 7547-7556 (2019) [C1]
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2019 |
Kawata Y, Thomas CA, Asaumi Y, Hanochi H, Ireland PM, Fujii S, et al., 'Electrostatic Formation of Liquid Marbles Using Thermo-responsive Polymer-coated Particles', CHEMISTRY LETTERS, 48 578-581 (2019) [C1]
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2018 |
Kido K, Ireland PM, Sekido T, Wanless EJ, Webber GB, Nakamura Y, Fujii S, 'Formation of Liquid Marbles Using pH-Responsive Particles: Rolling vs Electrostatic Methods', LANGMUIR, 34 4970-4979 (2018) [C1]
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2018 |
Ireland PM, Kido K, Webber G, Fujii S, Wanless E, 'pH-Responsive Particle-Liquid Aggregates Electrostatic Formation Kinetics', Frontiers in Chemistry, 6 1-8 (2018) [C1]
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2018 |
Thomas CA, Kido K, Kawashima H, Fujii S, Ireland PM, Webber GB, Wanless EJ, 'Electrostatic Formation of Polymer Particle Stabilised Liquid Marbles and Metastable Droplets - Effect of Latex Shell Conductivity', Journal of Colloid and Interface Science, 529 486-495 (2018) [C1]
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2018 |
Ireland PM, Thomas CA, Lobel BT, Webber GB, Fujii S, Wanless EJ, 'An Electrostatic Method for Manufacturing Liquid Marbles and Particle-Stabilized Aggregates', FRONTIERS IN CHEMISTRY, 6 (2018) [C1]
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2017 |
Cunningham VJ, Giakoumatos EC, Ireland PM, Mable CJ, Armes SP, Wanless EJ, 'Giant Pickering Droplets: Effect of Nanoparticle Size and Morphology on Stability', LANGMUIR, 33 7669-7679 (2017) [C1]
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2016 |
Jarrett E, Ireland PM, Webber GB, Wanless EJ, 'Particle-liquid structures formed by electric fields', Powder Technology, 297 1-7 (2016) [C1] © 2016. We report the manufacture of complex structures of silica, coal or sphalerite particles around a water droplet, driven by an electrostatic field. A particle bed was deposi... [more] © 2016. We report the manufacture of complex structures of silica, coal or sphalerite particles around a water droplet, driven by an electrostatic field. A particle bed was deposited on an electrically biased substrate and an earthed water drop brought close, such that the particles jumped to the drop. These structures' shape and internal composition were determined by a combination of the particles' wettability and electrical properties, and other attributes such as shape, size and density were also thought to play a role. Hydrophilic particles tend to be internalised by the drop, while hydrophobic ones tend to form a layer or shell on the surface. Thus, one example of these structures was a 'complex liquid marble', with a hydrophilic particle suspension core and a stabilising shell of hydrophobic particles.
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2016 |
Ireland PM, Noda M, Jarrett ED, Fujii S, Nakamura Y, Wanless EJ, Webber GB, 'Electrostatic formation of liquid marbles - Influence of drop and particle size', Powder Technology, 303 55-58 (2016) [C1] © 2016 We report the first study of the influence of drop and particle size on the electrostatic manufacture and subsequent stability of liquid marbles. It is clear from this stud... [more] © 2016 We report the first study of the influence of drop and particle size on the electrostatic manufacture and subsequent stability of liquid marbles. It is clear from this study that the ¿rules¿ for electrostatic formation of liquid marbles are quite different for those for conventional direct-contact manufacture. Formation of liquid marbles was observed when an earthed water drop of volume 3¿7¿µL was brought into proximity with a bed of highly-charged polystyrene particles of diameter 22¿153¿µm. Under appropriate conditions the particles jumped to and coated the drop, producing a particle-liquid aggregate that dropped to the bed surface in the form of either a stable liquid marble or a particle-stabilised sessile drop. The subsequent evolution of the physical dimensions of the metastable aggregate was measured as the liquid drained into the bed, and its stability assessed. Formation of stable liquid marbles appeared to occur more easily for smaller drops and larger particles, and some of these considerably exceeded the conventionally-understood limit for the ratio of particle to drop size of stable liquid marbles.
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2014 |
Ireland PM, Jameson GJ, 'Collision of a rising bubble-particle aggregate with a gas-liquid interface', International Journal of Mineral Processing, 130 1-7 (2014) [C1] In this paper we investigate the hypothesis that when bubbles carrying attached hydrophobic particles arrive at an air-liquid interface, the abrupt change in velocity is sufficien... [more] In this paper we investigate the hypothesis that when bubbles carrying attached hydrophobic particles arrive at an air-liquid interface, the abrupt change in velocity is sufficient to dislodge attached particles, which fall back into the liquid. For the first time, experiments have demonstrated a case in which the particles do not detach, but move smoothly over the surface of the bubbles. The kinetic energy of arrival is dissipated by the motion of the particles through the liquid, as they move over the surface of the bubble while remaining attached. Some energy is also dissipated by the pulsations of the bubbles. The pulsations themselves do not lead to detachment of particles. A theory has been developed to explain the observed phenomena. © 2014 Published by Elsevier B.V.
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2013 |
Liyanaarachchi KR, Ireland PM, Webber GB, Galvin KP, 'Electrostatic formation of liquid marbles and agglomerates', APPLIED PHYSICS LETTERS, 103 (2013) [C1]
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2013 |
Ireland PM, 'Convective mixing in a wet planar foam', Chemical Engineering Science, 101 554-564 (2013) [C1] Buoyancy-driven convective flows have a substantial effect on the performance of the froth layer in flotation cells, particularly when wash water is applied, but are relatively po... [more] Buoyancy-driven convective flows have a substantial effect on the performance of the froth layer in flotation cells, particularly when wash water is applied, but are relatively poorly understood. This study presents some experiments on convective flows in a foam undergoing forced drainage. A flat cell was used to create a planar foam, and a dye tracer was used to reveal the flow patterns, which were digitally imaged. The eddy scales and mixing behaviour of the flows are assessed using several different metrics, and their dependence on liquid and gas flow rates in the foam is assessed and compared. Finally, the implications of these findings for the effectiveness of wash water in flotation froths are discussed. © 2013.
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2013 |
Ireland PM, Jameson GJ, 'Particle dynamics in cyclone tribochargers', JOURNAL OF ELECTROSTATICS, 71 449-455 (2013) [C1]
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2012 |
Ireland PM, Jameson GJ, 'Drag force on a spherical particle moving through a foam: The role of wettability', International Journal of Mineral Processing, 102-103 78-88 (2012) [C1]
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2012 |
Ireland PM, 'Dynamic particle-surface tribocharging: The role of shape and contact mode', Journal of Electrostatics, 70 524-531 (2012) [C1]
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2011 |
Ireland PM, Nicholson K, 'Analysis and comparison of particle tribochargers', Minerals Engineering, 24 914-922 (2011) [C1]
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2010 |
Ireland PM, 'Triboelectrification of particulate flows on surfaces: Part I - Experiments', Powder Technology, 198 189-198 (2010) [C1]
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2010 |
Ireland PM, 'Triboelectrification of particulate flows on surfaces: Part II - Mechanisms and models', Powder Technology, 198 199-210 (2010) [C1]
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2009 |
Ireland PM, Jameson GJ, 'Foam slip on surfaces of intermediate or low wettability', Chemical Engineering Science, 64 3859-3867 (2009) [C1]
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2009 |
Ireland PM, 'Coalescence in a steady-state rising foam', Chemical Engineering Science, 64 4866-4874 (2009) [C1]
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2009 |
Ireland PM, 'Contact charge accumulation and separation discharge', Journal of Electrostatics, 67 462-467 (2009) [C1]
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2008 |
Ireland PM, 'Some curious observations of soap film contact lines', Chemical Engineering Science, 63 2174-2187 (2008) [C1]
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2008 |
Ireland PM, 'The role of changing contact in sliding triboelectrification', Journal of Physics D: Applied Physics, 41 1-11 (2008) [C1]
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2007 |
Ireland PM, Cunningham R, Jameson GJ, 'The behaviour of wash water injected into a froth', International Journal of Mineral Processing, 84 99-107 (2007) [C1]
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2007 |
Ireland PM, 'Some comments on contact charge relaxation', Applied Physics Letters, 91 091501 (2007) [C3]
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2007 |
Ireland PM, Jameson GJ, 'Liquid transport in a coalescing froth', Canadian Journal of Chemical Engineering, 85 654-661 (2007) [C1]
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2007 |
Ireland PM, Jameson GJ, 'Liquid transport in a multi-layer froth', Journal of Colloid and Interface Science, 314 207-213 (2007) [C1]
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Show 31 more journal articles |
Conference (10 outputs)
Year | Citation | Altmetrics | Link | ||||||||
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2019 |
Ferguson JD, Lobel BT, Thomas CA, Ireland PM, Wanless EJ, Webber GB, 'Application of electrostatically driven particle/droplet interactions to mineral separation', Chemeca 2019. Chemical engineering megatrends and the elements, Sydney, Australia (2019) [E1]
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2019 |
Ireland PM, Thomas CA, Lobel BT, Webber GB, Fujii S, Wanless EJ, 'Electrostatic formation of Liquid Marbles - Statistical model', Journal of Physics: Conference Series, Manchester, UK (2019) [E1]
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2018 |
Thomas C, Fujii S, Ireland P, Webber G, Wanless E, 'Impact of liquid phase on the electrostatic formation of polymer stabilised liquid marbles and aggregates', Chemeca 2018, Queenstown, NZ (2018) [E1]
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2016 |
Jarrett ED, Ireland PM, Webber GB, Wanless EJ, 'Electrostatic aggregation of mineral particles around a water droplet', CHEMECA 2016: Chemical Engineering - Regeneration, Recovery and Reinvention, Adelaide, Australia (2016) [E1]
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2016 |
Dickinson JE, Neville F, Ireland P, Galvin K, 'Uncoupling the inherent bubble-liquid hydrodynamics of conventional ion flotation', CHEMECA 2016: Chemical Engineering - Regeneration, Recovery and Reinvention, Adelaide (2016) [E1]
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2015 |
Ireland PM, Webber GB, Jarrett ED, Galvin KP, 'Interaction of a particle bed with a droplet under an applied electric field', Journal of Physics: Conference Series (2015) [E1] Transport of dry solid particles to a liquid is relevant to a number of emerging applications, including 'liquid marbles'. We report experiments where the transport of d... [more] Transport of dry solid particles to a liquid is relevant to a number of emerging applications, including 'liquid marbles'. We report experiments where the transport of dry particles to a pendent water droplet is driven by an external electric field. Both hydrophilic and hydrophobic materials (silica, PMMA) were studied. For silica particles (hydrophilic, poorly conductive), a critical applied voltage initiated transfer, in the form of a rapid 'avalanche' of a large number of particles. The particle-loaded drop then detached, producing a metastable spherical agglomerate. Pure PMMA particles did not display this 'avalanche' behaviour, and when added to silica particles, appeared to cause aggregation and change the nature of the transfer mechanism. This paper is largely devoted to the avalanche process, in which deformation of the drop and radial compaction of the particle bed due to the electric field are thought to have played a central role. Since no direct contact is required between the bed and the drop, we hope to produce liquid marble-type aggregates with layered structures incorporating hydrophilic particles, which has not previously been possible.
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2010 |
Nicholson K, Ireland PM, Wanless EJ, Jameson GJ, 'Triboelectric separation - Beneficiation of coal', Congress Proceedings: XXV International Mineral Processing Congress, Brisbane, QLD (2010) [E1]
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2010 |
Ireland PM, Jameson GJ, 'Particle mechanics and the design of cyclone tribochargers', Congress proceedings: XXV International Mineral Processing Congress., Brisbane, QLD (2010) [E1]
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2008 |
Nicholson K, Ireland PM, Wanless EJ, Jameson GJ, 'Design and construction of a laboratory scale cyclone tribocharger', Chemeca2008, Newcastle, NSW (2008) [E1]
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Show 7 more conferences |
Grants and Funding
Summary
Number of grants | 9 |
---|---|
Total funding | $38,621,590 |
Click on a grant title below to expand the full details for that specific grant.
20204 grants / $37,050,004
ARC Centre of Excellence for Enabling Eco-Efficient Beneficiation of Minerals$35,090,004
Funding body: ARC (Australian Research Council)
Funding body | ARC (Australian Research Council) |
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Project Team | Laureate Professor Kevin Galvin, Laureate Professor Graeme Jameson, Professor Erica Wanless, Professor Geoffrey Evans, Professor Grant Webber, Doctor Roberto Moreno-Atanasio, Associate Professor Elham Doroodchi, Doctor Peter Ireland, Professor Kenneth Williams, San Thang, Karen Hapgood, Chun-Xia Zhao, William Skinner, Associate Professor George Franks, Seher Ata, Grant Ballantyne, Associate Professor David Beattie, Susana Brito e Abreu, Professor Robert Davis, Jacobus Eksteen, Elizaveta Forbes, Marta Krasowska, Colin MacRae, Jan Miller, Professor Anh Nguyen, Aaron Noble, Yongjun Peng, Kym Runge, Peter Scales, Anthony Stickland, Boon Teo, Nathan Webster, Professor Zhenghe Xu, Professor Steven Armes, Professor Jan Miller, Doctor Subhasish Mitra, Associate Professor Alister Page |
Scheme | ARC Centres of Excellence |
Role | Investigator |
Funding Start | 2020 |
Funding Finish | 2026 |
GNo | G1800891 |
Type Of Funding | C1200 - Aust Competitive - ARC |
Category | 1200 |
UON | Y |
ARC Centre of Excellence for Enabling Eco-Efficient Beneficiation of Minerals$1,400,000
Funding body: AMIRA International Limited
Funding body | AMIRA International Limited |
---|---|
Project Team | Laureate Professor Kevin Galvin, San Thang, Karen Hapgood, Laureate Professor Graeme Jameson, Chun-Xia Zhao, William Skinner, Associate Professor George Franks, Jan Miller, Peter Scales, Professor Erica Wanless, Professor Geoffrey Evans, Professor Anh Nguyen, Associate Professor David Beattie, Jacobus Eksteen, Professor Kenneth Williams, Seher Ata, Professor Grant Webber, Yongjun Peng, Doctor Roberto Moreno-Atanasio, Boon Teo, Susana Brito e Abreu, Grant Ballantyne, Marta Krasowska, Aaron Noble, Anthony Stickland, Associate Professor Elham Doroodchi, Kym Runge, Nathan Webster, Doctor Peter Ireland, Elizaveta Forbes, Colin MacRae, Professor Steven Armes, Professor Robert Davis, Professor Jan Miller, Professor Zhenghe Xu |
Scheme | Centre of Excellence Partner Funding |
Role | Investigator |
Funding Start | 2020 |
Funding Finish | 2026 |
GNo | G1900996 |
Type Of Funding | Scheme excluded from IGS |
Category | EXCL |
UON | Y |
ARC Centre of Excellence for Enabling Eco-Efficient Beneficiation of Minerals$280,000
Funding body: FLSmidth & Co. A/S
Funding body | FLSmidth & Co. A/S |
---|---|
Project Team | Laureate Professor Kevin Galvin, San Thang, Karen Hapgood, Laureate Professor Graeme Jameson, Chun-Xia Zhao, William Skinner, Associate Professor George Franks, Jan Miller, Peter Scales, Professor Erica Wanless, Professor Geoffrey Evans, Professor Anh Nguyen, Associate Professor David Beattie, Jacobus Eksteen, Professor Kenneth Williams, Seher Ata, Professor Grant Webber, Yongjun Peng, Doctor Roberto Moreno-Atanasio, Boon Teo, Susana Brito e Abreu, Grant Ballantyne, Marta Krasowska, Aaron Noble, Anthony Stickland, Associate Professor Elham Doroodchi, Kym Runge, Nathan Webster, Doctor Peter Ireland, Elizaveta Forbes, Colin MacRae, Professor Steven Armes, Professor Robert Davis, Professor Zhenghe Xu |
Scheme | Centre of Excellence Partner Funding |
Role | Investigator |
Funding Start | 2020 |
Funding Finish | 2026 |
GNo | G1900997 |
Type Of Funding | C3211 - International For profit |
Category | 3211 |
UON | Y |
ARC Centre of Excellence for Enabling Eco-Efficient Beneficiation of Minerals$280,000
Funding body: Jord International Pty Limited
Funding body | Jord International Pty Limited |
---|---|
Project Team | Laureate Professor Kevin Galvin, San Thang, Karen Hapgood, Laureate Professor Graeme Jameson, Chun-Xia Zhao, William Skinner, Associate Professor George Franks, Jan Miller, Peter Scales, Professor Erica Wanless, Professor Geoffrey Evans, Professor Anh Nguyen, Associate Professor David Beattie, Jacobus Eksteen, Professor Kenneth Williams, Seher Ata, Professor Grant Webber, Yongjun Peng, Doctor Roberto Moreno-Atanasio, Boon Teo, Susana Brito e Abreu, Grant Ballantyne, Marta Krasowska, Aaron Noble, Anthony Stickland, Associate Professor Elham Doroodchi, Kym Runge, Nathan Webster, Doctor Peter Ireland, Elizaveta Forbes, Colin MacRae, Professor Steven Armes, Professor Robert Davis, Professor Zhenghe Xu |
Scheme | Centre of Excellence Partner Funding |
Role | Investigator |
Funding Start | 2020 |
Funding Finish | 2026 |
GNo | G1900999 |
Type Of Funding | C3111 - Aust For profit |
Category | 3111 |
UON | Y |
20171 grants / $236,567
Electrostatic Formation of Liquid Marbles$236,567
Funding body: ARC (Australian Research Council)
Funding body | ARC (Australian Research Council) |
---|---|
Project Team | Professor Erica Wanless, Professor Grant Webber, Doctor Peter Ireland, Associate Professor Syuji Fujii, Syuji Fujii |
Scheme | Discovery Projects |
Role | Investigator |
Funding Start | 2017 |
Funding Finish | 2019 |
GNo | G1501562 |
Type Of Funding | Aust Competitive - Commonwealth |
Category | 1CS |
UON | Y |
20152 grants / $450,499
A Paradigm Shift in the Hydrodynamics of Ion Flotation$448,999
Funding body: ARC (Australian Research Council)
Funding body | ARC (Australian Research Council) |
---|---|
Project Team | Laureate Professor Kevin Galvin, Doctor Peter Ireland |
Scheme | Discovery Projects |
Role | Investigator |
Funding Start | 2015 |
Funding Finish | 2017 |
GNo | G1400229 |
Type Of Funding | Aust Competitive - Commonwealth |
Category | 1CS |
UON | Y |
Electrostatics 2015, Southampton United Kingdom, 12-16 April 2015$1,500
Funding body: University of Newcastle - Faculty of Engineering & Built Environment
Funding body | University of Newcastle - Faculty of Engineering & Built Environment |
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Project Team | Doctor Peter Ireland |
Scheme | Travel Grant |
Role | Lead |
Funding Start | 2015 |
Funding Finish | 2015 |
GNo | G1500252 |
Type Of Funding | Internal |
Category | INTE |
UON | Y |
20111 grants / $666,520
Triboelectric separation - Fundamentals and practice$666,520
Funding body: ARC (Australian Research Council)
Funding body | ARC (Australian Research Council) |
---|---|
Project Team | Doctor Peter Ireland |
Scheme | Future Fellowships |
Role | Lead |
Funding Start | 2011 |
Funding Finish | 2015 |
GNo | G1100439 |
Type Of Funding | Aust Competitive - Commonwealth |
Category | 1CS |
UON | Y |
20101 grants / $218,000
Mass transport in aqueous foams$218,000
Funding body: ARC (Australian Research Council)
Funding body | ARC (Australian Research Council) |
---|---|
Project Team | Doctor Peter Ireland |
Scheme | Discovery Projects |
Role | Lead |
Funding Start | 2010 |
Funding Finish | 2012 |
GNo | G0189993 |
Type Of Funding | Aust Competitive - Commonwealth |
Category | 1CS |
UON | Y |
Research Supervision
Number of supervisions
Current Supervision
Commenced | Level of Study | Research Title | Program | Supervisor Type |
---|---|---|---|---|
2018 | PhD | Establishing Design Criteria for Electrostatic Liquid Marble & Aggregate Formation | PhD (Chemistry), College of Engineering, Science and Environment, The University of Newcastle | Co-Supervisor |
2017 | PhD | Electrostatic Formation of Polymeric Liquid Marbles | PhD (Chemical Engineering), College of Engineering, Science and Environment, The University of Newcastle | Co-Supervisor |
2007 | Unknown | Onset of instabilities in uniformly-fluidised froth | Chemical Engineering, University of Newcastle | Principal Supervisor |
2006 | Unknown | Liquid transport in froths with instabilities | Chemical Engineering, University of Newcastle | Principal Supervisor |
News
ARC Discovery Project funding success
November 19, 2014
Dr Peter Ireland
Position
Senior Lecturer
NIER: Chemical Engineering
School of Engineering
College of Engineering, Science and Environment
Contact Details
peter.ireland@newcastle.edu.au | |
Phone | (02) 492 15653 |
Office
Room | NIER A233 |
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Building | NIER A Block |
Location | Callaghan University Drive Callaghan, NSW 2308 Australia |