Profiles
Max Nikurashin
Maxim Nikurashin
Lecturer; ARC DECRA Fellow
Room 217.A , IMAS Hobart
+61 3 6226 8597 (phone)
Biography
Dr Maxim Nikurashin was awarded his PhD degree in Physical Oceanography from the Massachusetts Institute of Technology (MIT) and Woods Hole Oceanographic Institution (WHOI) Joint Program in the USA in 2009. His PhD work explored a novel mechanism for the maintenance of mixing in the deep Southern Ocean using computer simulations and theory. These results made a significant contribution to the interpretation of measurements from two recent observational campaigns in the Southern Ocean and to the development of a mixing parameterization for climate models. After graduation, Maxim was offered a Postdoctoral Fellowship jointly at Princeton University and Geophysical Fluid Dynamics Laboratory (GFDL) in the USA, where he worked on a theory of the ocean overturning circulation and a problem of the ocean eddy energy dissipation. In 2012, Maxim took a Physical Oceanographer and a Lecturer position in the Institute for Marine and Antarctic Studies (IMAS) at UTAS. In this position, he continues his research on ocean mixing, eddies and their role for the ocean circulation and climate. In 2015, Maxim was awarded an ARC DECRA Fellowship to study turbulent mixing processes in the deep Southern Ocean using computer simulations and observations.
Career summary
Qualifications
- PhD (Physical Oceanography) (2009): Radiation and dissipation of internal waves generated by geostrophic motions impinging on small-scale topography. Massachusetts Institute of Technology and Woods Hole Oceanographic Institution, USA
- MSc (Applied Physics and Mathematics) (2002): Moscow Institute of Physics and Technology, Russia
- BSc (Applied Physics and Mathematics) (2000): Moscow Institute of Physics and Technology, Russia
Languages (other than English)
Russian
Teaching
Teaching responsibility
Research Invitations
Workshops:
- 2015 Energy transfers in Atmosphere and Oceans workshop, Hamburg, Germany
- 2014 CLIVAR WGOMD Workshop on High Resolution Ocean Climate Modeling, GEOMAR, Kiel, Germany
- 2013 Numerical modeling and theoretical challenges in atmosphere and ocean turbulence workshop, Lyon, France
- 2013 Ocean Turbulence conference, Santa Fe, NM USA
- 2013 Dynamics of the Southern Ocean workshop, MIT, Cambridge, MA USA
- 2012 Centre of Excellence for Climate System Science workshop, Hobart, Australia
- 2012 Conference on Connections between Rotating, Stratified Turbulence, and Climate: Theory, Observations, Experiments and Models. Boulder, CO USA
- 2012 Climate Process Team meeting, Scripps, San Diego, CA USA
Invited seminars:
- 2014 University of Toronto
- 2013 Stockholm University
- 2013 Caltech University
- 2012 Australian National University (ANU)
- 2012 Massachusetts Institute of Technology (MIT)
- 2012 Columbia University
- 2011 University of New South Wales (UNSW)
- 2011 Australian National University (ANU)
- 2011 University of Hamburg
- 2011 Lamont–Doherty Earth Observatory (LDEO)
- 2011 Los Alamos National Laboratory (LANL)
- 2011 Scripps Oceanographic Institution (SIO)
- 2011 Colorado State University
- 2011 New York University
- 2011 University of Southampton
View more on Dr Maxim Nikurashin in WARP
Expertise
- Dynamics of the global ocean overturning circulation
- Maintenance of the deep stratification
- Dissipation of geostrophic eddy energy
- Generation and dissipation of topographic internal waves
- Ocean deep mixing and its impact on overturning circulation
- The role of the overturning circulation for the uptake and storage of carbon in the ocean
Research Themes
Maxim's research relates to the University's research theme of Marine, Antarctic and Maritime. His research interests span a wide range of problems in the area of Physical Oceanography ranging from oceanic internal waves and mixing at small scales to the dynamics of the global overturning circulation and its role for the carbon uptake and storage at large scales. In his work, Maxim uses a combination of theory, process-oriented and realistic global numerical simulations, and observations to understand fundamental physical processes in the ocean and their impact on the global circulation and climate.
Collaboration
Maxim is currently involved in collaborative projects with MIT and WHOI in the USA and the National Oceanographic Centre (NOC) in the UK on mixing processes in the deep Southern Ocean and with the University of Exeter in the UK on the dynamics of the ocean overturning circulation and its role for the uptake of carbon.
Awards
2015 - 2018: Australian Research Council: Fellowship Discovery Early Career Researcher Award (ARC DECRA) - Turbulent mixing in the deep Southern Ocean
Current projects
Topographic internal waves and mixing
Turbulence in the ocean interior greatly enhances mixing of heat, carbon and other tracers and hence plays an important role for the ocean circulation and climate. Observations indicate that turbulent mixing is enhanced in abyssal ocean above rough topography. Enhanced mixing is associated with internal wave breaking and, in many regions of the ocean, has been linked to breaking of internal tides. Maxim's research showed that the deep ocean mixing can be also very effectively generated by oceanic fronts and eddies impinging on rough topography. To understand the physical processes leading to wave breaking and mixing, Maxim studies the generation, radiation and breaking of internal waves using a combination of available observations and high-resolution numerical simulations.
Dissipation of oceanic eddy energy
Oceanic eddies are the most energetic features of the ocean circulation. However, the ultimate fate of this energy in the ocean remains unknown. Using computer simulations at a very high resolution, Maxim investigates routes to energy dissipation for oceanic eddy energy. His results show that rough bottom topography effectively catalyzes the transfer of eddy energy to smaller scale motions, including internal waves that radiate away from topography and sustain turbulence and mixing in the ocean interior.
Meridional Overturning Circulation
Meridional Overturning Circulation (MOC) is a planetary-scale circulation that plays a crucial role in climate. Its dynamics have long been debated, but they remain poorly understood. Maxim explores the dynamics of the deep stratification and overturning circulation using a combination of theory and idealized and realistic numerical simulations. He has developed a novel theory of the MOC that describes both its lower and upper overturning cells. In addition to being a simple conceptual framework to describe the MOC, the theory represents a fully-dynamic, low-cost model of MOC and, as such, is an innovative tool for paleo-oceanographic studies.
Fields of Research
- Physical oceanography (370803)
- Geophysical and environmental fluid flows (401208)
- Climate change processes (370201)
- Other earth sciences (379999)
- Microfluidics and nanofluidics (401210)
- Atmospheric sciences (370199)
- Atmospheric dynamics (370105)
Research Objectives
- Climate change models (190501)
- Measurement and assessment of marine water quality and condition (180505)
- Climate variability (excl. social impacts) (190502)
- Oceanic processes (excl. in the Antarctic and Southern Ocean) (180506)
- Effects of climate change on Antarctic and sub-Antarctic environments (excl. social impacts) (190503)
- Antarctic and Southern Ocean oceanic processes (180402)
- Expanding knowledge in the environmental sciences (280111)
- Expanding knowledge in the information and computing sciences (280115)
- Global effects of climate change (excl. Australia, New Zealand, Antarctica and the South Pacific) (excl. social impacts) (190507)
Publications
Maxim has published in high-impact peer-reviewed journals. His papers span a broad range of topics, ranging from turbulence at small-scales to overturning circulation at large-scales, and a broad range of tools, including observations, theory, and models.
Maxim is a reviewer for top-ranked journals, including Journal of Climate, Journal of Marine Research, Journal of Physical Oceanography, Nature Geoscience, Ocean Modelling, Deep-Sea Research, Physical Review Letters, and Journal of Geophysical Research as well as a proposal assessor for the NSF in the USA, NERC in the UK, and NCERC in Canada funding agencies.
Total publications
23
Journal Article
(22 outputs)| Year | Citation | Altmetrics |
|---|---|---|
| 2020 | Kiss A, McC Hogg A, Hannah N, Boeira Dias F, Brassington GB, et al., 'ACCESS-OM2 v1.0: a global ocean-sea ice model at three resolutions', Geoscientific Model Development, 13 pp. 401-442. ISSN 1991-959X (2020) [Refereed Article] DOI: 10.5194/gmd-13-401-2020 [eCite] [Details] Citations: Scopus - 19Web of Science - 20 Co-authors: Domingues CM; Heil P; Klocker A; Marsland SJ; Savita A | |
| 2020 | Zhang X, Nikurashin M, 'Small-scale topographic form stress and local dynamics of the Southern Ocean', Journal of Geophysical Research: Oceans, 125, (8) Article e2019JC015420. ISSN 2169-9275 (2020) [Refereed Article] | |
| 2019 | Yang Q, Nikurashin M, Sasaki H, Sun H, Tian J, 'Dissipation of mesoscale eddies and its contribution to mixing in the northern South China Sea', Scientific Reports, 9 Article 556. ISSN 2045-2322 (2019) [Refereed Article] DOI: 10.1038/s41598-018-36610-x [eCite] [Details] Citations: Scopus - 14Web of Science - 13 | |
| 2019 | Zheng K, Nikurashin M, 'Downstream propagation and remote dissipation of internal waves in the Southern Ocean', Journal of Physical Oceanography, 49 pp. 1873-1887. ISSN 0022-3670 (2019) [Refereed Article] DOI: 10.1175/JPO-D-18-0134.1 [eCite] [Details] Citations: Scopus - 7Web of Science - 6 | |
| 2018 | Yang L, Nikurashin M, Hogg AM, Sloyan BM, 'Energy loss from transient eddies due to lee wave generation in the Southern Ocean', Journal of Physical Oceanography, 48, (12) pp. 2867-2885. ISSN 0022-3670 (2018) [Refereed Article] DOI: 10.1175/JPO-D-18-0077.1 [eCite] [Details] Citations: Scopus - 10Web of Science - 10 Co-authors: Yang L | |
| 2017 | Mashayek A, Salehipour H, Bouffard D, Caulfield CP, Ferrari R, et al., 'Efficiency of turbulent mixing in the abyssal ocean circulation', Geophysical Research Letters, 44, (12) pp. 6296-6306. ISSN 0094-8276 (2017) [Refereed Article] DOI: 10.1002/2016GL072452 [eCite] [Details] Citations: Scopus - 41Web of Science - 39 | |
| 2016 | Ferrari R, Mashayek A, McDougall TJ, Nikurashin M, Campin J-M, 'Turning ocean mixing upside down', Journal of Physical Oceanography, 46, (7) pp. 2239-2261. ISSN 0022-3670 (2016) [Refereed Article] DOI: 10.1175/JPO-D-15-0244.1 [eCite] [Details] Citations: Scopus - 77Web of Science - 73 | |
| 2015 | Mashayek A, Ferrari R, Nikurashin M, Peltier WR, 'Influence of enhanced abyssal diapycnal mixing on stratification and the ocean overturning circulation', Journal of Physical Oceanography, 45, (10) pp. 2580-2597. ISSN 0022-3670 (2015) [Refereed Article] DOI: 10.1175/JPO-D-15-0039.1 [eCite] [Details] Citations: Scopus - 27Web of Science - 26 | |
| 2015 | Melet A, Hallberg R, Adcroft A, Nikurashin M, Legg S, 'Energy flux into internal lee waves: sensitivity to future climate changes using linear theory and a climate model', Journal of Climate, 28, (6) pp. 2365-2384. ISSN 0894-8755 (2015) [Refereed Article] DOI: 10.1175/JCLI-D-14-00432.1 [eCite] [Details] Citations: Scopus - 14Web of Science - 14 | |
| 2015 | Watson AJ, Vallis GK, Nikurashin M, 'Southern Ocean buoyancy forcing of ocean ventilation and glacial atmospheric CO2', Nature Geoscience, 8, (11) pp. 861-864. ISSN 1752-0894 (2015) [Refereed Article] DOI: 10.1038/ngeo2538 [eCite] [Details] Citations: Scopus - 63Web of Science - 63 | |
| 2014 | Melet A, Hallberg R, Legg S, Nikurashin M, 'Sensitivity of the ocean state to lee wave-driven mixing', Journal of Physical Oceanography, 44, (3) pp. 900-921. ISSN 0022-3670 (2014) [Refereed Article] DOI: 10.1175/JPO-D-13-072.1 [eCite] [Details] Citations: Scopus - 28Web of Science - 27 | |
| 2014 | Nikurashin M, Ferrari R, Grisouard N, Polzin N, 'The impact of finite-amplitude bottom topography on internal wave generation in the Southern Ocean', Journal of Physical Oceanography, 44, (11) pp. 2938-2950. ISSN 0022-3670 (2014) [Refereed Article] DOI: 10.1175/JPO-D-13-0201.1 [eCite] [Details] Citations: Scopus - 29Web of Science - 30 | |
| 2013 | Melet A, Nikurashin M, Muller C, Falahat S, Nycander J, et al., 'Internal tide generation by abyssal hills using analytical theory', Journal of Geophysical Research: Oceans, 118, (11) pp. 6303-6318. ISSN 2169-9275 (2013) [Refereed Article] DOI: 10.1002/2013JC009212 [eCite] [Details] Citations: Scopus - 34Web of Science - 34 | |
| 2013 | Nikurashin M, Ferrari R, 'Overturning circulation driven by breaking internal waves in the deep ocean', Geophysical Research Letters, 40, (12) pp. 3133-3137. ISSN 0094-8276 (2013) [Refereed Article] DOI: 10.1002/grl.50542 [eCite] [Details] Citations: Scopus - 75Web of Science - 73 | |
| 2013 | Nikurashin M, Vallis GK, Adcroft A, 'Routes to energy dissipation for geostrophic flows in the Southern Ocean', Nature Geoscience, 6, (1) pp. 48-51. ISSN 1752-0894 (2013) [Refereed Article] DOI: 10.1038/NGEO1657 [eCite] [Details] Citations: Scopus - 95Web of Science - 94 | |
| 2012 | Nikurashin M, Vallis G, 'A Theory of the Interhemispheric Meridional Overturning Circulation and Associated Stratification', Journal of Physical Oceanography, 42 pp. 1652-1667. ISSN 0022-3670 (2012) [Refereed Article] DOI: 10.1175/JPO-D-11-0189.1 [eCite] [Details] Citations: Scopus - 84Web of Science - 80 | |
| 2011 | Nikurashin M, Ferrari R, 'Global energy conversion rate from geostrophic flows into internal lee waves in the deep ocean', Geophysical Research Letters, 38 Article L08610. ISSN 0094-8276 (2011) [Refereed Article] DOI: 10.1029/2011GL046576 [eCite] [Details] Citations: Scopus - 131Web of Science - 130 | |
| 2011 | Nikurashin M, Legg S, 'A Mechanism for Local Dissipation of Internal Tides Generated at Rough Topography', Journal of Physical Oceanography, 41, (February) pp. 378-395. ISSN 0022-3670 (2011) [Refereed Article] DOI: 10.1175/2010JPO4522.1 [eCite] [Details] Citations: Scopus - 62Web of Science - 59 | |
| 2011 | Nikurashin M, Vallis G, 'A Theory of Deep Stratification and Overturning Circulation in the Ocean', Journal of Physical Oceanography, 41, (March) pp. 485-502. ISSN 0022-3670 (2011) [Refereed Article] DOI: 10.1175/2010JPO4529.1 [eCite] [Details] Citations: Scopus - 79Web of Science - 74 | |
| 2010 | Ferrari R, Nikurashin M, 'Suppression of eddy diffusivity across jets in the Southern Ocean', Journal of Physical Oceanography, 40, (July) pp. 1501-1519. ISSN 0022-3670 (2010) [Refereed Article] DOI: 10.1175/2010JPO4278.1 [eCite] [Details] Citations: Scopus - 145Web of Science - 134 | |
| 2010 | Nikurashin M, Ferrari R, 'Radiation and Dissipation of Internal Waves Generated by Geostrophic Motions Impinging on Small-Scale Topography: Theory', Journal of Physical Oceanography, 40, (May) pp. 1055-1074. ISSN 0022-3670 (2010) [Refereed Article] DOI: 10.1175/2009JPO4199.1 [eCite] [Details] Citations: Scopus - 114Web of Science - 110 | |
| 2010 | Nikurashin M, Ferrari R, 'Radiation and Dissipation of Internal Waves Generated by Geostrophic Motions Impinging on Small-Scale Topography: Application to the Southern Ocean', Journal of Physical Oceanography, 40, (September) pp. 2025-2042. ISSN 0022-3670 (2010) [Refereed Article] DOI: 10.1175/2010JPO4315.1 [eCite] [Details] Citations: Scopus - 87Web of Science - 85 |
Conference Publication
(1 outputs)| Year | Citation | Altmetrics |
|---|---|---|
| 2010 | Griffies SM, Adcroft AJ, Banks H, Boninng CW, Chassignet EP, et al., 'Problems and Prospects in Large-Scale Ocean Circulation Models', Proceedings of the OceanObs'09 Conference: Sustained Ocean Observations and Information for Society, 21-25 September 2009, Venice, Italy, Volume 2, pp. 1-24. (2010) [Non Refereed Conference Paper] |
Grants & Funding
Funding Summary
Number of grants
11
Total funding
Projects
- Description
- The Centre will revolutionise predictions of the future of East Antarctica and the Southern Ocean. Changes in the Antarctic will be profoundly costly to Australia, including sea-level and fisheries impacts; but the speed and scale of future change remains poorly understood. A new national-scale and interdisciplinary Centre is required to understand the complex interactions of the ocean, ice sheets, atmosphere and ecosystems that will govern Antarcticas future. The Centre will combine new field data with innovative models to address Australias Antarctic science priorities, train graduate students, develop leaders, engage the public, and enable major economic benefit as Australia adapts to climate change in the coming years and beyond.
- Funding
- Australian Research Council ($20,000,000)
- Scheme
- Grant-Special Research Initiatives
- Administered By
- University of Tasmania
- Research Team
- King MA; Blanchard JL; Boyd PW; Hill NA; Hindell MA; Lea MA; Lucieer VL; McMinn A; Watson CS; Reading AM; Bindoff NL; Bowie AR; Chase Z; Coleman R; Halpin JA; Lannuzel D; Nikurashin M; Phillips HE; Strutton PG; Whittaker J; Williams GD
- Period
- 2020 - 2022
- Grant Reference
- SR200100008
- Description
- Australian Antarctic Program Partnership, comprises the University of Tasmania, the Commonwealth Scientific and Industrial Research Organisation, the Australian Antartcic Division, Geosciences Australia, the Bureau of Meteorology, IMOS and Tasmanian State Govt. This initiative will support research that aims to understand the role of the Antarctic region in the global climate system and the implications on marine ecosystems.
- Funding
- Department of Industry, Innovation and Science ($50,000,000)
- Scheme
- Antarctic Science Collaboration Initiative
- Administered By
- University of Tasmania
- Research Team
- Bindoff NL; Swadling KM; Nicol S; Bestley S; Blanchard JL; Lannuzel D; Williams GD; Coleman R; Nikurashin M; Bowie AR; Phillips HE; King MA; Watson CS; Hurd R; Boyd PW
- Period
- 2019 - 2029
- Description
- Request for 32 days at sea on the Marine National Facility RV Investigator to conduct physical oceanography observations to investigate why the Antarctic Circumpolar Current transport has not increased despite a 20-year trend of increasing westerly winds over the Southern ocean. This voyage is to support the pending ARC Discovery Project DP170102162 submitted by Bindoff and colleagues.
- Funding
- CSIRO-Commonwealth Scientific & Industrial Research Organisation ($0)
- Scheme
- Grant-Marine National Facility
- Administered By
- University of Tasmania
- Research Team
- Phillips HE; Bindoff NL; Nikurashin M
- Year
- 2018
- Description
- The aim of this project is to observe and simulate the mechanisms that put the brakes on the Antarctic Circumpolar Current. The Southern Ocean winds have increased over the last two decades while the transport of the worlds largest current remains steady or slightly decreasing. This is a perplexing observation. New negative feedback mechanisms between the winds and transport of the Antarctic Circumpolar Current have been advanced. This proposal addresses this critical issue in the momentum and energy balance of the Antarctic Circumpolar Current by directly observing how the eddies carry momentum from the wind down to the sea floor and accelerate the deep currents that drag against the rough bottom to put the brakes on this current.
- Funding
- Australian Research Council ($783,000)
- Scheme
- Grant-Discovery Projects
- Administered By
- University of Tasmania
- Research Team
- Bindoff NL; Phillips HE; Nikurashin M; Rintoul SR; Donohue K; Watts D; Polzin K
- Period
- 2017 - 2020
- Grant Reference
- DP170102162
- Description
- Describe your project: A new high-resolution global ocean model configuration will be developed. The model will be founded on existing nationwide partnerships, and will be customised to Australian requirements. The new configuration will be internationally competitive, and will be released nationwide to Australian researchers. It will be used, collaboratively, across the sector for a range of applications, included ocean forecasting and reanalysis. This model will permit investigation into fine-scale ocean processes, such as eddies and jets, that are unfeasible with current models but have significance for the ocean state and climate change.
- Funding
- Australian Research Council ($598,000)
- Scheme
- Grant-Linkage Projects
- Administered By
- Australian National University
- Research Team
- Hogg A; England MH; Brassington G; Heil P; Oke PR; Spence JP; Nikurashin M
- Period
- 2016 - 2019
- Grant Reference
- LP160100073
- Description
- The Southern Ocean plays a key role in the global ocean circulation and climate. This is, to a large extent, owing to turbulent motions at a wide range of scales from mesoscale eddies at 10-100 km to internal wave breaking at 10-100 m scales. Turbulent motions enhance stirring and mixing of tracers and hence facilitate the uptake, transport, and storage of heat, carbon, and nutrients in global ocean. Topographic features, such as ridges and abyssal hills, effectively catalyse the generation of turbulent motions, creating localised hot spots of eddy stirring and turbulent mixing. The Southern Ocean turbulent processes remain poorly understood and inadequately represented in global models.The goal of this project is to explore turbulent processes in regions of major topographic features in the Southern Ocean and to improve their representation in global ocean and climate models.
- Funding
- National Computational Infrastructure ($0)
- Scheme
- Merit Allocation Scheme
- Administered By
- University of Tasmania
- Research Team
- Bindoff NL; Nikurashin M; Klocker A
- Year
- 2015
- Funding
- Australian Research Council ($490,000)
- Scheme
- Grant-Linkage Infrastructure
- Administered By
- University of New South Wales
- Research Team
- Pitman A J; Holbrook NJ; Bindoff NL; Nikurashin M
- Year
- 2015
- Grant Reference
- LE150100089
- Description
- Mixing in the Southern Ocean strongly affects the transport and storage of heat, carbon, and nutrients in the global ocean and hence climate itself. Yet processes generating mixing in the Southern Ocean remain poorly understood and inadequately represented in present ocean and climate models. The aims of this project are twofold. First, to understand mixing processes based on an innovative approach combining sparse observations and computer simulations. Second, to implement this understanding into a state-of-the-art climate model to study mixing impacts on the ocean circulation and climate. This project will lead to substantial improvements in climate models and allow Australia to predict and respond more effectively to climate change.
- Funding
- Australian Research Council ($373,484)
- Scheme
- Fellowship-Discovery Early Career Researcher Award
- Administered By
- University of Tasmania
- Research Team
- Nikurashin M
- Period
- 2015 - 2017
- Grant Reference
- DE150100937
- Funding
- Department of Environment and Energy (Cwth) ($21,621,000)
- Scheme
- Grant-National Environmental Science Prgm (NESP)
- Administered By
- CSIRO-Commonwealth Scientific & Industrial Research Organisation
- Research Team
- Cleugh H; Bindoff NL; Holbrook NJ; Domingues CM; Hobbs WR; Nikurashin M; George SE; Power S; Colman R; Jakob C; Wijffels S; Karoly D; Hendon H; Roderick M; Bates B; Timbal B; McInnes K; Sherwood S; Arblaster J; Hirst T; Hennessy K; Cai W; Wang YP; Clarke J; Gerbing C; England MH
- Period
- 2014 - 2020
- Description
- The Southern Ocean plays a key role in the global ocean circulation and climate. This is, to a large extent, owing to turbulent motions at a wide range of scales from mesoscale eddies at 10-100 km to internal wave breaking at 10-100 m scales. Turbulent motions enhance stirring and mixing of tracers and hence facilitate the uptake, transport, and storage of heat, carbon, and nutrients in global ocean. Topographic features, such as ridges and abyssal hills, effectively catalyse the generation of turbulent motions, creating localised hot spots of eddy stirring and turbulent mixing. The Southern Ocean turbulent processes remain poorly' understood and inadequately represented in global models.The goal of this project is to explore turbulent processes in regions of major topographic features in the Southern Ocean and to improve their representation in global ocean and climate models.
- Funding
- National Computational Infrastructure ($0)
- Scheme
- Merit Allocation Scheme
- Administered By
- University of Tasmania
- Research Team
- Nikurashin M; Klocker A
- Year
- 2014
- Funding
- University of Tasmania ($20,000)
- Scheme
- Grant-Research Enhancement (REGS)
- Administered By
- University of Tasmania
- Research Team
- Nikurashin M; Phillips HE
- Year
- 2013
Research Supervision
If you are interested in Physical Oceanography and have a background in Physics and Maths, please email Maxim directly to ask about project opportunities.
Current
5
Completed
2
Current
| Degree | Title | Commenced |
|---|---|---|
| PhD | Assessing Impact of Mesoscale Eddy Processes in Coarse Resolution Ocean Models | 2015 |
| PhD | The Role of Sea Ice Kinematics on the State of Antarctic Sea Ice | 2019 |
| PhD | Mesoscale Eddy Energetics and the Shelf-Open Ocean Tracer Exchange in the East Australian Current Region | 2020 |
| PhD | The Role of Small-Scale Ocean Dynamics for the Equilibration of the Antarctic Circumpolar Current and for its Sensitivity to Winds | 2020 |
| PhD | Dynamical Oceanography of a Standing Meander in the Antarctic Circumpolar Current: a parallel investigation with observations and models | 2020 |
Completed
| Degree | Title | Completed |
|---|---|---|
| PhD | Mean Circulation of the Indonesian Throughflow and a Mechanism of its Partitioning between Outflow Passages: A regional model study Candidate: Ana Paula Berger | 2020 |
| PhD | The Impact of Lee Waves on the Southern Ocean Circulation and its Sensitivity to Wind Stress Candidate: Luwei Yang | 2019 |