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Geoff D. Tansley

Observed names: G D Tansley, G. D. Tansley, G. Tansley, G.D. Tansley, GD Tansley, Geoff D Tansley, Geoff Tansley, Geoffrey D. Tansley, Geoffrey Douglas Tansley, Geoffrey Tansley, Tansley, Geoff, Tansley, Geoffrey
Observed institutions: University of Technology Sydney, Griffith University, University of Iowa, University of Nottingham, Aston University, Flinders University, The University of Western Australia, UNSW Sydney, Prince Charles Hospital, Iowa City VA Health Care System, University of Iowa Health Care, Landcare Australia, The Prince Charles Hospital Foundation, Nottingham Trent University, The University of Adelaide
ORCID: 0000-0002-3580-5912
Observed ORCID: 0000-0002-3580-5912
OpenAlex ID: A5008075333
Wear of Human Enamel: A Quantitative in vitro Assessment
1998 · J.A. Kaidonis, L.C. Richards, et al. · Journal of Dental Research · 156
Evaluation of Physiological Control Systems for Rotary Left Ventricular Assist Devices: An In-Vitro Study
2016 · Jo P. Pauls, Michael C. Stevens, et al. · Annals of Biomedical Engineering · 63
Discrete responses of erythrocytes, platelets, and von Willebrand factor to shear
2021 · Chris H.H. Chan, Michael J. Simmonds, et al. · Journal of Biomechanics · 51
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Sensorless Flow and Head Estimation in the VentrAssist Rotary Blood Pump
2000 · P.J. Ayre, S.S. Vidakovic, et al. · Artificial Organs · 47
An advanced mock circulation loop for in vitro cardiovascular device evaluation
2020 · Shaun D. Gregory, Jo P. Pauls, et al. · Artificial Organs · 46
Rapid Speed Modulation of a Rotary Total Artificial Heart Impeller
2016 · Matthias Kleinheyer, Daniel L. Timms, et al. · Artificial Organs · 37
Oxidative Stress Increases Erythrocyte Sensitivity to Shear‐Mediated Damage
2017 · Antony P. McNamee, Jarod T. Horobin, et al. · Artificial Organs · 35
In Vivo Evaluation of Active and Passive Physiological Control Systems for Rotary Left and Right Ventricular Assist Devices
2016 · Shaun D. Gregory, Michael C. Stevens, et al. · Artificial Organs · 32
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Selective laser sintering of bonded magnets from flake and spherical powders
2019 · Martin Mapley, Jo P. Pauls, et al. · Scripta Materialia · 31
In Vitro Comparison of Active and Passive Physiological Control Systems for Biventricular Assist Devices
2015 · Jo P. Pauls, Michael C. Stevens, et al. · Annals of Biomedical Engineering · 31
Fluid Dynamic Characteristics of the VentrAssist Rotary Blood Pump
2000 · G. Tansley, S. Vidakovic, et al. · Artificial Organs · 28
Shear‐dependent platelet aggregation size
2020 · Chris Hoi Houng Chan, Masataka Inoue, et al. · Artificial Organs · 26
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Biphasic impairment of erythrocyte deformability in response to repeated, short duration exposures of supraphysiological, subhaemolytic shear stress
2016 · Antony P. McNamee, Geoff D. Tansley, et al. · Biorheology · 26
Speed Modulation of the HeartWare HVAD to Assess In Vitro Hemocompatibility of Pulsatile and Continuous Flow Regimes in a Rotary Blood Pump
2018 · Jarod T. Horobin, Michael J. Simmonds, et al. · Artificial Organs · 25
Cell Exclusion in C ouette Flow: Evaluation Through Flow Visualization and Mechanical Forces
2013 · Laura J. Leslie, Lindsay J. Marshall, et al. · Artificial Organs · 24
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Sublethal mechanical trauma alters the electrochemical properties and increases aggregation of erythrocytes
2018 · Antony P. McNamee, Geoff D. Tansley, et al. · Microvascular Research · 22
Sublethal mechanical shear stress increases the elastic shear modulus of red blood cells but does not change capillary transit velocity
2020 · Antony P. McNamee, Geoff D. Tansley, et al. · Microcirculation · 21
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Impeller Behavior and Displacement of the VentrAssist Implantable Rotary Blood Pump
2004 · Michael K.H. Chung, Nong Zhang, et al. · Artificial Organs · 19
Asymmetrical loads and lateral bending of the human spine
1993 · G. Noone, J. Mazumdar, et al. · Medical & Biological Engineering & Computing · 19
Sublethal Supraphysiological Shear Stress Alters Erythrocyte Dynamics in Subsequent Low-Shear Flows
2020 · Antony P. McNamee, Tom Fitzpatrick, et al. · Biophysical Journal · 17
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A naturally shaped silicone ventricle evaluated in a mock circulation loop: A preliminary study
2009 · S. Gregory, D. Timms, et al. · Journal of Medical Engineering & Technology · 17
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Experimental Determination of Dynamic Characteristics of the VentrAssist Implantable Rotary Blood Pump
2004 · Michael K.H. Chung, Nong Zhang, et al. · Artificial Organs · 17
A novel fibre Bragg grating pressure sensor for rotary ventricular assist devices
2019 · Andrew F. Stephens, Andrew Busch, et al. · Sensors and Actuators A Physical · 16
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In vitro evaluation of an adaptive Starling‐like controller for dual rotary ventricular assist devices
2019 · Andrew Stephens, Shaun Gregory, et al. · Artificial Organs · 16
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Validated Guidelines for Simulating Centrifugal Blood Pumps
2021 · Clayton S. Semenzin, Benjamin Simpson, et al. · Cardiovascular Engineering and Technology · 15
Works count: 102
Citation count: 1,125
H-index: 19
I10-index: 37
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