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Gregg J. Suaning
Gregg Jørgen Suaning
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2020 – today
- 2023
- [c63]Jacinta D. Cleary
, Orsolya Kékesi, Gregg J. Suaning
Cross-species Blink Characterisation Tool for the Analysis of Emerging Interventions for Overcoming Facial Paralysis. EMBC 2023: 1-4 - [c62]Mingxuan Zhang, Orsolya Kékesi, Gregg J. Suaning
Transformer-based light-evoked retinal spiking activity prediction. EMBC 2023: 1-4 - 2022
- [c61]Jacinta D. Cleary
Overcoming Facial Paralysis with an Implantable Actuator for Restoration of Blink. EMBC 2022: 1498-1501 - [c60]Daniel Caravaca-Rodriguez, Gregg J. Suaning
Cross-modal activation of the primary visual cortex by auditory stimulation in RCS rats: considerations in visual prosthesis. EMBC 2022: 1711-1714 - [c59]Ariastity M. Pratiwi, Orsolya Kékesi
Selective neuromodulation of retinal ganglion cells via a hybrid optic-nerve and retinal neuroprosthesis for visual restoration. EMBC 2022: 2381-2384
2010 – 2019
- 2019
- [c58]Greg D. Watkins
An Investigation of Audibility Effects on Cochlear Implant Speech Perception Prediction. EMBC 2019: 1801-1804 - 2018
- [c57]Alejandro Barriga-Rivera, Gregg J. Suaning
Optic nerve and retinal electrostimulation in rats: direct activation of the retinal ganglion cells. EMBC 2018: 1226-1229 - [c56]Tianruo Guo
Computational Models And Tools For Developing Sophisticated Stimulation Strategies For Retinal Neuroprostheses. EMBC 2018: 2248-2251 - 2017
- [j6]Calvin D. Eiber
A spectral element method with adaptive segmentation for accurately simulating extracellular electrical stimulation of neurons. Medical Biol. Eng. Comput. 55(5): 823-831 (2017) - [c55]Gregg J. Suaning
Strategic circuits for neuromodulation of the visual system. ASP-DAC 2017: 291-294 - [c54]Masaharu Imai, Yoshinori Takeuchi, Jun Ohta, Gregg Jørgen Suaning, Chung-Yu Wu, Napoleon Torres-Martinez
Emerging technologies for biomedical applications: Artificial vision systems and brain machine interface. ASP-DAC 2017: 299 - [c53]Alejandro Barriga-Rivera, Tianruo Guo
Retinal electrostimulation in rats: Activation thresholds from superior colliculus and visual cortex recordings. EMBC 2017: 1166-1169 - [c52]Tianruo Guo
Mimicking natural neural encoding through retinal electrostimulation. NER 2017: 284-287 - 2016
- [c51]Greg D. Watkins
A simulation analysis of the variability of the roving level hearing test. EMBC 2016: 4715-4718 - [c50]Barry S. Gow, Gregg J. Suaning
A method to assess the location and positional stability of supra-choroidal retinal neuroprostheses. EMBC 2016: 4723-4726 - [c49]Alejandro Barriga-Rivera
Cortical responses following simultaneous and sequential retinal neurostimulation with different return configurations. EMBC 2016: 5435-5438 - 2015
- [c48]William W. Lim
On the use of test gases of various radii to investigate molecular sieving in leak channels. EMBC 2015: 813-816 - [c47]Shaheen Hasmat, Nigel H. Lovell, Timothy Eviston, Rafael Ekmejian, Gregg J. Suaning
Creating eye closure in patients with facial nerve paralysis using an implantable solenoid actuator. EMBC 2015: 1357-1360 - [c46]Marc Patrick H. Zapf, Mei-Ying Boon
Assistive peripheral prosthetic vision aids perception and mobility in outdoor environments: A virtual-reality simulation study. EMBC 2015: 1638-1641 - [c45]Amr Al Abed
A model of electrical stimulation of a retinal cell population using a multi-electrode array. EMBC 2015: 2287-2290 - [c44]Alejandro Barriga-Rivera
Electrically evoked potentials in an ovine model for the evaluation of visual prosthesis efficacy. EMBC 2015: 3359-3362 - [c43]Tianruo Guo
Optimizing retinal ganglion cell responses to high-frequency electrical stimulation strategies for preferential neuronal excitation. NER 2015: 252-255 - [c42]Amr Al Abed
A hybrid continuum-discrete computational model of electrical stimulation of the retinal network. NER 2015: 352-355 - [c41]Chih-Yu Yang, Andrew J. Woolley, David Tsai, Gregg J. Suaning
Calcium imaging of retinal ganglion cell dendritic responses to extracellular microelectrode stimulation. NER 2015: 438-441 - [c40]Siwei Bai
Influence of retinal ganglion cell morphology on neuronal response properties - a simulation study. NER 2015: 679-682 - 2014
- [j5]Gita Khalili Moghaddam
Performance optimization of current focusing and virtual electrode strategies in retinal implants. Comput. Methods Programs Biomed. 117(2): 334-342 (2014) - [c39]Gregg J. Suaning
Neuromodulation of the retina from the suprachoroidal space: The Phoenix 99 implant. BioCAS 2014: 256-259 - [c38]Calvin D. Eiber
A cortical integrate-and-fire neural network model for blind decoding of visual prosthetic stimulation. EMBC 2014: 1715-1718 - [c37]Marc Patrick H. Zapf, Paul B. Matteucci, Nigel H. Lovell
Towards photorealistic and immersive virtual-reality environments for simulated prosthetic vision: Integrating recent breakthroughs in consumer hardware and software. EMBC 2014: 2597-2600 - [c36]Tianruo Guo
The unique characteristics of ON and OFF retinal ganglion cells: A modeling study. EMBC 2014: 6096-6099 - [c35]Tianruo Guo
Selective activation of ON and OFF retinal ganglion cells to high-frequency electrical stimulation: A computational modeling study. EMBC 2014: 6108-6111 - [r1]Gregg J. Suaning:
Visual Prosthesis, Suprachoroidal, and Trans-retinal Devices. Encyclopedia of Computational Neuroscience 2014 - 2013
- [j4]Louis H. Jung, Nitzan Shany, Alexander Emperle, Torsten Lehmann, Phil Byrnes-Preston, Nigel H. Lovell, Gregg J. Suaning
Design of Safe Two-Wire Interface-Driven Chip-Scale Neurostimulator for Visual Prosthesis. IEEE J. Solid State Circuits 48(9): 2217-2229 (2013) - [c34]Sunil Patel, Thomas Guenther, Christopher W. D. Dodds, Sergej Kolke, Karen L. Privat
Materials design considerations involved in the fabrication of implantable bionics by metallization of ceramic substrates. EMBC 2013: 759-762 - [c33]Nicholas L. Opie
Current steering for high resolution retinal implants. EMBC 2013: 2760-2763 - [c32]Marc Patrick H. Zapf, Paul B. Matteucci, Nigel H. Lovell
Smartphones as image processing systems for prosthetic vision. EMBC 2013: 3690-3693 - [c31]Tianruo Guo
Influence of cell morphology in a computational model of ON and OFF retinal ganglion cells. EMBC 2013: 4553-4556 - [c30]Tianruo Guo
Influence of active dendrites on firing patterns in a retinal ganglion cell model. EMBC 2013: 4557-4560 - [c29]Tianruo Guo
Cell-specific modeling of retinal ganglion cell electrical activity. EMBC 2013: 6539-6542 - [c28]Amr Al Abed
A continuum neuronal tissue model based on a two-compartmental representation of cells. EMBC 2013: 6543-6546 - [c27]Cesar Ramos Rodrigues
A 2.6V Silicon-on Sapphire CMOS current imbalance sensing circuit for neurostimulation applications. MWSCAS 2013: 971-974 - 2012
- [c26]Amr Al Abed
Convolution based method for calculating inputs from dendritic fields in a continuum model of the retina. EMBC 2012: 215-218 - [c25]Umar Ansari, Nigel H. Lovell, Gregg J. Suaning
Measuring the electric field of bioelectrodes in saline during stimulation. EMBC 2012: 807-810 - [c24]Amgad G. Habib, Morven A. Cameron
Efficacy of the hexpolar configuration in localizing the activation of retinal ganglion cells under electrical stimulation. EMBC 2012: 2776-2779 - [c23]Paul B. Matteucci, Spencer C. Chen
Threshold analysis of a quasimonopolar stimulation paradigm in visual prosthesis. EMBC 2012: 2997-3000 - [c22]Miganoosh Abramian, Nigel H. Lovell
Computational model of electrical stimulation of a retinal ganglion cell with hexagonally arranged electrodes. EMBC 2012: 3029-3032 - [c21]Duojinshen Duo, Paul B. Matteucci, Philip Byrnes-Preston, Gregg J. Suaning
Analysis of the voltage response to identify macromolecule quantities in an electrolyte. EMBC 2012: 3756-3759 - [c20]Tianruo Guo
Modeling normal and rebound excitation in mammalian retinal ganglion cells. EMBC 2012: 5506-5509 - 2011
- [c19]Christopher W. D. Dodds, Martin Schuettler, Thomas Guenther, Nigel H. Lovell
Advancements in electrode design and laser techniques for fabricating micro-electrode arrays as part of a retinal prosthesis. EMBC 2011: 636-639 - [c18]Shijie Yin, Nigel H. Lovell, Gregg J. Suaning
Continuum model of light response in the retina. EMBC 2011: 908-911 - [c17]David Tsai, John W. Morley
Responses of starburst amacrine cells to prosthetic stimulation of the retina. EMBC 2011: 1053-1056 - [c16]Thomas Guenther, Apoorv Mintri, William W. Lim, Louis H. Jung, Torsten Lehmann, Nigel H. Lovell
Laser-micromachined, chip-scaled ceramic carriers for implantable neurostimulators. EMBC 2011: 1085-1088 - [c15]Melissa P. Anenden, Martin J. Svehla
Process development for dry etching polydimethylsiloxane for neural electrodes. EMBC 2011: 2977-2980 - [c14]Paul B. Matteucci, Philip Byrnes-Preston, Spencer C. Chen
ARM-based visual processing system for prosthetic vision. EMBC 2011: 3921-3924 - [c13]Alejandro Barriga-Rivera
Digital image processing for visual prosthesis: Filtering implications. EMBC 2011: 4860-4863 - [c12]Thomas Guenther, Christopher W. D. Dodds, Nigel H. Lovell, Gregg J. Suaning
Chip-scale hermetic feedthroughs for implantable bionics. EMBC 2011: 6717-6720 - [c11]Louis H. Jung, Nitzan Shany, Torsten Lehmann, Phil Preston, Nigel H. Lovell
Towards a chip scale neurostimulator: System architecture of a current-driven 98 channel neurostimulator via a two-wire interface. EMBC 2011: 6737-6740 - [c10]Louis H. Jung, Torsten Lehmann, Gregg J. Suaning
A semi-static threshold-triggered delay element for low power applications. ISCAS 2011: 833-836 - 2010
- [j3]Nigel H. Lovell
Biological-Machine Systems Integration: Engineering the Neural Interface. Proc. IEEE 98(3): 418-431 (2010) - [c9]Robert G. H. Wilke, Gita Khalili Moghaddam
Stimulation of the Retinal Network in Bionic Vision Devices: From Multi-Electrode Arrays to Pixelated Vision. ICONIP (1) 2010: 140-147 - [c8]Torsten Lehmann, Hosung Chun, Philip Preston, Gregg J. Suaning
Current-limited passive charge recovery for implantable neuro-stimulators: Power savings, modelling and characterisation. ISCAS 2010: 3128-3131
2000 – 2009
- 2009
- [j2]David Tsai, John W. Morley
A wearable real-time image processor for a vision prosthesis. Comput. Methods Programs Biomed. 95(3): 258-269 (2009) - 2008
- [c7]Torsten Lehmann, Nigel H. Lovell
Implant electronics for intraocular epiretinal neuro-stimulators. ISCAS 2008: 352-355 - 2006
- [c6]Luke E. Hallum, Shaun L. Cloherty
Psychophysics of Prosthetic Vision: III. Stochastic Rendering, the Phosphene Image, and Perception. EMBC 2006: 1169-1172 - [c5]Gregg J. Suaning
Microelectronic Retinal Prosthesis: III. A New Method for Fabrication of High-Density Hermetic Feedthroughs. EMBC 2006: 1638-1641 - [c4]Spencer C. Chen
Psychophysics of Prosthetic Vision: I. Visual Scanning and Visual Acuity. EMBC 2006: 4400-4403 - [c3]Yan Tat Wong
Microelectronic Retinal Prosthesis: I. A Neurostimulator for the Concurrent Activation of Multiple Electrodes. EMBC 2006: 4647-4650 - [c2]Norbert Dommel, Yan Tat Wong
Microelectronic Retinal Prosthesis: II. Use of High-Voltage CMOS in Retinal Neurostimulators. EMBC 2006: 4651-4654 - [c1]Norbert Dommel, Yan Tat Wong
The Design and Testing of an Epi-Retinal Vision Prosthesis Neurostimulator Capable of Concurrent Parallel Stimulation. EMBC 2006: 4700-4709 - 2001
- [j1]Gregg Jørgen Suaning
CMOS neurostimulation ASIC with 100 channels, scaleable output, and bidirectional radio-frequency telemetry. IEEE Trans. Biomed. Eng. 48(2): 248-260 (2001)
Coauthor Index
[c61] [c56] [j6] [c53] [c52] [c49] [c47] [c46] [c45] [c44] [c43] [c42] [c41] [c40] [j5] [c39] [c38] [c37] [c36] [c35] [j4] [c33] [c32] [c31] [c30] [c29] [c28] [c26] [c25] [c24] [c23] [c22] [c20] [c19] [c18] [c17] [c16] [c15] [c14] [c12] [c11] [c10] [j3] [c9] [j2] [c7] [c6] [c5] [c4] [c3] [c2] [c1] [j1]
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last updated on 2024-10-07 21:25 CEST by the dblp team
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