| An analytical model of the response of the meridional overturning circulation to changes in wind and buoyancy forcing CJ Shakespeare, A McC. Hogg Journal of Physical Oceanography 42 (8), 1270-1287, 2012 | 59 | 2012 |
| The spontaneous generation of inertia–gravity waves during frontogenesis forced by large strain: Theory CJ Shakespeare, JR Taylor Journal of fluid mechanics 757, 817-853, 2014 | 41 | 2014 |
| Spontaneous surface generation and interior amplification of internal waves in a regional-scale ocean model CJ Shakespeare, AMC Hogg Journal of Physical Oceanography 47 (4), 811-826, 2017 | 40 | 2017 |
| A generalized mathematical model of geostrophic adjustment and frontogenesis: uniform potential vorticity CJ Shakespeare, JR Taylor Journal of fluid mechanics 736, 366-413, 2013 | 39 | 2013 |
| Magnetization pinning in conducting films demonstrated using broadband ferromagnetic resonance M Kostylev, AA Stashkevich, AO Adeyeye, C Shakespeare, N Kostylev, ... Journal of Applied Physics 108 (10), 103914, 2010 | 34 | 2010 |
| Interdependence of internal tide and lee wave generation at abyssal hills: Global calculations CJ Shakespeare Journal of Physical Oceanography 50 (3), 655-677, 2020 | 22 | 2020 |
| The viscous lee wave problem and its implications for ocean modelling CJ Shakespeare, AMC Hogg Ocean Modelling 113, 22-29, 2017 | 19 | 2017 |
| A new mechanism for mode water formation involving cabbeling and frontogenetic strain at thermohaline fronts LN Thomas, CJ Shakespeare Journal of Physical Oceanography 45 (9), 2444-2456, 2015 | 17 | 2015 |
| On the momentum flux of internal tides CJ Shakespeare, A McC. Hogg Journal of Physical Oceanography 49 (4), 993-1013, 2019 | 14 | 2019 |
| Curved density fronts: Cyclogeostrophic adjustment and frontogenesis CJ Shakespeare Journal of Physical Oceanography 46 (10), 3193-3207, 2016 | 14 | 2016 |
| The life cycle of spontaneously generated internal waves CJ Shakespeare, AMC Hogg Journal of Physical Oceanography 48 (2), 343-359, 2018 | 13 | 2018 |
| Observed eddy–internal wave interactions in the Southern Ocean JM Cusack, JA Brearley, AC Naveira Garabato, DA Smeed, KL Polzin, ... Journal of Physical Oceanography 50 (10), 3043-3062, 2020 | 12 | 2020 |
| Spontaneous wave generation at strongly strained density fronts CJ Shakespeare, JR Taylor Journal of Physical Oceanography 46 (7), 2063-2081, 2016 | 12 | 2016 |
| The spontaneous generation of inertia–gravity waves during frontogenesis forced by large strain: Numerical solutions CJ Shakespeare, JR Taylor Journal of Fluid Mechanics 772, 508-534, 2015 | 12 | 2015 |
| Attribution of horizontal and vertical contributions to spurious mixing in an Arbitrary Lagrangian–Eulerian ocean model AH Gibson, AMC Hogg, AE Kiss, CJ Shakespeare, A Adcroft Ocean Modelling 119, 45-56, 2017 | 10 | 2017 |
| Spontaneous generation of internal waves C Shakespeare American Institute of Physics (AIP), 2019 | 6 | 2019 |
| Dissipating and reflecting internal waves CJ Shakespeare, BK Arbic, A McC. Hogg Journal of Physical Oceanography 51 (8), 2517-2531, 2021 | 4 | 2021 |
| The drag on the barotropic tide due to the generation of baroclinic motion CJ Shakespeare, BK Arbic, A McC. Hogg Journal of Physical Oceanography 50 (12), 3467-3481, 2020 | 4 | 2020 |
| Particle‐based lagrangian filtering for locating wave‐generated thermal refugia for coral reefs SD Bachman, CJ Shakespeare, J Kleypas, FS Castruccio, E Curchitser Journal of Geophysical Research: Oceans 125 (7), e2020JC016106, 2020 | 4 | 2020 |
| A new mechanism for mode water formation involving cabbeling and frontogenetic strain at thermohaline fronts. Part II: numerical simulations CJ Shakespeare, LN Thomas Journal of Physical Oceanography 47 (7), 1755-1773, 2017 | 3 | 2017 |
Andy HoggAustralian National UniversityVerified email at anu.edu.au
