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Leo K. Cheng
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2020 – today
- 2024
- [j43]Nipuni D. Nagahawatte
, Recep Avci
High-Energy Pacing in the Jejunum Elicits Pulsatile Segmental Contractions. IEEE Trans. Biomed. Eng. 71(3): 750-757 (2024) - [j42]Sam Simmonds
Measurement and Analysis of In Vivo Gastroduodenal Slow Wave Patterns Using Anatomically-Specific Cradles and Electrodes. IEEE Trans. Biomed. Eng. 71(4): 1289-1297 (2024) - [j41]Zhonghan Duanmu
A Review of In Vitro and In Silico Swallowing Simulators: Design and Applications. IEEE Trans. Biomed. Eng. 71(7): 2042-2057 (2024) - [c83]Zhonghan Duanmu, Martin Stommel, Leo K. Cheng, Weiliang Xu:
Enhancing a Bellow-Structure Soft Actuator Simulations via a Novel Continuous Collision Detection Algorithm. M2VIP 2024: 1-4 - 2023
- [j40]Nipuni D. Nagahawatte
A novel framework for the removal of pacing artifacts from bio-electrical recordings. Comput. Biol. Medicine 155: 106673 (2023) - [j39]Chad E. Drake
Electroanatomical mapping of the stomach with simultaneous biomagnetic measurements. Comput. Biol. Medicine 165: 107384 (2023) - [j38]Shawn Means
Steady-state approximations for Hodgkin-Huxley cell models: Reduction of order for uterine smooth muscle cell model. PLoS Comput. Biol. 19(8) (2023) - [j37]Chad E. Drake
Stomach Geometry Reconstruction Using Serosal Transmitting Coils and Magnetic Source Localization. IEEE Trans. Biomed. Eng. 70(3): 1036-1044 (2023) - [j36]Xiaokai Wang
Diffeomorphic Surface Modeling for MRI-Based Characterization of Gastric Anatomy and Motility. IEEE Trans. Biomed. Eng. 70(7): 2046-2057 (2023) - [j35]Saeed Alighaleh
Optimization of Gastric Pacing Parameters Using High-Resolution Mapping. IEEE Trans. Biomed. Eng. 70(10): 2964-2971 (2023) - [c82]Omkar N. Athavale
Cervical Vagus Nerve Stimulation Disrupts Gastric Slow Wave Activity in Rats. EMBC 2023: 1-4 - [c81]Saeed Hosseini, Nadun Palmada, Recep Avci, Vinod Suresh, Leo K. Cheng:
MRI Derived Simulations of Flow Patterns in the Stomach. EMBC 2023: 1-4 - [c80]Kiara J. W. Miller, Phoebe Macrae, Gregory B. Sands, Maggie-Lee Huckabee, Leo K. Cheng:
An Accurate Fiducial Marker for Aligning EMG signals with Swallow Onset. EMBC 2023: 1-4 - [c79]Nipuni D. Nagahawatte
Evaluation of Pacing Parameters to Induce Contractions in the Small Intestine. EMBC 2023: 1-4 - [c78]Nadun Palmada, John E. Cater, Leo K. Cheng, Vinod Suresh:
Landmark-free Shape Analysis of the Human Duodenum. EMBC 2023: 1-4 - [c77]Savindi Wijenayaka, Alys R. Clark, Recep Avci, Leo K. Cheng, Peng Du:
Atrous spatial pyramid pooling and multi-image data fusion for smooth muscle segmentation in upper gastrointestinal sphincters. EMBC 2023: 1-4 - [c76]Hanyu Zhang
Optical Mapping of Virtual Electrode Polarization Pattern and Its Relationship with Pacemaker Location during Gastric Pacing. EMBC 2023: 1-4 - 2022
- [j34]Luman Wang, Avinash Malik, Partha S. Roop, Leo K. Cheng, Niranchan Paskaranandavadivel:
A framework for the design of a closed-loop gastric pacemaker for treating conduction block. Comput. Methods Programs Biomed. 216: 106652 (2022) - [j33]Henry Han
Quantification of Gastric Slow Wave Velocity Using Bipolar High-Resolution Recordings. IEEE Trans. Biomed. Eng. 69(3): 1063-1071 (2022) - [j32]Jaime E. Lara
Muscle-Specific High-Density Electromyography Arrays for Hand Gesture Classification. IEEE Trans. Biomed. Eng. 69(5): 1758-1766 (2022) - [j31]Sachira Kuruppu
High-Resolution Spatiotemporal Quantification of Intestinal Motility With Free-Form Deformation. IEEE Trans. Biomed. Eng. 69(6): 2077-2086 (2022) - [j30]Recep Avci
Characterizing Spatial Signatures of Gastric Electrical Activity Using Biomagnetic Source Localization. IEEE Trans. Biomed. Eng. 69(11): 3551-3558 (2022) - [j29]Dipankar Bhattacharya
Nonlinear Model Predictive Control of a Robotic Soft Esophagus. IEEE Trans. Ind. Electron. 69(10): 10363-10373 (2022) - [c75]Sam Simmonds, Leo K. Cheng, Wharengaro Ruha, Andrew J. Taberner
Anatomically-Specific, 3D-Printed Cradles Enable In Vivo Mapping of the Bioelectrical Activation across the Gastroduodenal Junction. EMBC 2022: 377-380 - [c74]Jack Xu, Leo K. Cheng, Recep Avci, Peng Du:
Reconstruction of the Gastro-esophageal Junction Based on Ultramill Imaging for Biomechanical Analysis. EMBC 2022: 1594-1597 - [c73]Nipuni D. Nagahawatte
A generalized framework for pacing artifact removal using a Hampel filter. EMBC 2022: 2009-2012 - [c72]Nipuni D. Nagahawatte
Gastric pacing response evaluated with simultaneous electrical and optical mapping. EMBC 2022: 2224-2227 - [c71]Omkar N. Athavale
Mathematical Modeling of Gastric Slow Waves During Electrical Field Stimulation. EMBC 2022: 2266-2269 - [c70]Sue Ann Mah
Deciphering Stomach Myoelectrical Slow Wave Conduction Patterns via Confocal Imaging of Gastric Pacemaker Cells and Fractal Geometry. EMBC 2022: 3514-3517 - [c69]Amy S. Garrett, Mathias W. Roesler
In vivo multi-channel measurement of electrical activity of the non-pregnant rat uterus. EMBC 2022: 3682-3685 - [c68]Timothy R. Angeli-Gordon, Chad E. Eichler
Anatomically Constrained Gastric Slow Wave Localization using Biomagnetic Data. EMBC 2022: 3935-3938 - [c67]Peikai Zhang
Wet-printing of PEDOT: PSS Microelectrodes for Gastric Slow Wave Recording. EMBC 2022: 4868-4871 - [c66]Recep Avci, Joseph D. Wickens, Mehrdad Sangi, Omkar N. Athavale
A Computational Model of Biophysical Properties of the Rat Stomach Informed by Comprehensive Analysis of Muscle Anatomy. EMBC 2022: 4954-4957 - [c65]Kiara J. W. Miller, Phoebe Macrae, Niranchan Paskaranandavadivel, Maggie-Lee Huckabee, Leo K. Cheng:
Non-invasive assessment of swallowing using flexible high-density electromyography arrays. EMBC 2022: 5120-5123 - [c64]Shahab Kazemi, Martin Stommel, Leo K. Cheng, Weiliang Xu:
Optimal Feedback Linearization Control for a Bioinspired Soft Pneumatic Contractive Actuator. M2VIP 2022: 1-4 - 2021
- [j28]Chad E. Eichler
Effects of magnetogastrography sensor configurations in tracking slow wave propagation. Comput. Biol. Medicine 129: 104169 (2021) - [j27]Niranchan Paskaranandavadivel
ManoMap: an automated system for characterization of colonic propagating contractions recorded by high-resolution manometry. Medical Biol. Eng. Comput. 59(2): 417-429 (2021) - [j26]Saeed Alighaleh
Design and Validation of a Surface-Contact Electrode for Gastric Pacing and Concurrent Slow-Wave Mapping. IEEE Trans. Biomed. Eng. 68(8): 2574-2581 (2021) - [c63]Matthew Savage, Recep Avci, Zahra Aghababaie
A computational model of radiofrequency ablation in the stomach, an emerging therapy for gastric dysrhythmias. EMBC 2021: 1495-1498 - [c62]Sue Ann Mah
Antral Variation of Murine Gastric Pacemaker Cells Informed by Confocal Imaging and Machine Learning Methods. EMBC 2021: 3105-3108 - [c61]Saeed Hosseini, Recep Avci, Niranchan Paskaranandavadivel, Vinod Suresh
Quantification of Gastric Contractions Using MRI with a Natural Contrast Agent. EMBC 2021: 3601-3604 - [c60]Chad E. Eichler
Reconstruction of stomach geometry using magnetic source localization. EMBC 2021: 4234-4237 - [c59]Nipuni D. Nagahawatte
Characterization of Slow Wave Activity in Ex-vivo Porcine Small Intestine Segments. EMBC 2021: 7296-7299 - [c58]Zhonghan Duanmu, Martin Stommel, Leo K. Cheng, Weiliang Xu:
Simulation of Solid Meal Digestion in a Soft Gastric Robot using SOFA. M2VIP 2021: 357-362 - 2020
- [j25]Luman Wang, Avinash Malik, Partha S. Roop, Leo K. Cheng, Niranchan Paskaranandavadivel, Weiwei Ai:
A novel approach for model-based design of gastric pacemakers. Comput. Biol. Medicine 116: 103576 (2020) - [j24]Stefan Calder
A Simulated Anatomically Accurate Investigation Into the Effects of Biodiversity on Electrogastrography. IEEE Trans. Biomed. Eng. 67(3): 868-875 (2020) - [j23]Dipankar Bhattacharya
Sparse Machine Learning Discovery of Dynamic Differential Equation of an Esophageal Swallowing Robot. IEEE Trans. Ind. Electron. 67(6): 4711-4720 (2020) - [c57]Henry Han
Detection of Slow Wave Propagation Direction Using Bipolar High-Resolution Recordings. EMBC 2020: 837-840 - [c56]Sue Ann Mah
Supervised Machine Learning Segmentation and Quantification of Gastric Pacemaker Cells. EMBC 2020: 1408-1411 - [c55]Zahra Aghababaie
A V-Net Based Deep Learning Model for Segmentation and Classification of Histological Images of Gastric Ablation. EMBC 2020: 1436-1439 - [c54]Sachira Kuruppu, Leo K. Cheng, Timothy R. Angeli
High-Resolution Mapping of Intestinal Spike Bursts and Motility. EMBC 2020: 1779-1782 - [c53]Recep Avci, Niranchan Paskaranandavadivel, Chad E. Eichler
Computational Reconstruction of 3D Stomach Geometry using Magnetic Field Source Localization. EMBC 2020: 2376 - [c52]Saeed Hosseini, Recep Avci, Niranchan Paskaranandavadivel, Nadun Palmada, Vinod Suresh
A Novel Method for Time-Dependent Numerical Modeling of Gastric Motility Directly from Magnetic Resonance Imaging*. EMBC 2020: 2384-2387 - [c51]Recep Avci, Niranchan Paskaranandavadivel, Peng Du, Jean-Marie Vanderwinden, Leo K. Cheng:
Continuum Based Bioelectrical Simulations using Structurally Realistic Gastrointestinal Pacemaker Cell Networks. EMBC 2020: 2483-2486 - [c50]Nadun Palmada, John E. Cater
Modelling Flow and Mixing in the Proximal Small Intestine. EMBC 2020: 2496-2499 - [c49]Luman Wang, Avinash Malik, Partha S. Roop, Leo K. Cheng, Niranchan Paskaranandavadivel, Weiwei Ai:
Design of a closed-loop gastric pacemaker for modulating dysrhythmic conduction patterns via extracellular potentials. EMBC 2020: 2504-2507 - [c48]Chad E. Eichler
Simulation-based Analysis of Magnetogastrography Sensor Configurations for Characterizing Gastric Slow Wave Dysrhythmias. EMBC 2020: 2512-2515 - [c47]Kiara J. W. Miller, Leo K. Cheng, Timothy R. Angeli
Design and Application of an Inflatable Cuff to Aid High-Resolution Intestinal Slow Wave Recordings *. EMBC 2020: 3953-3956 - [c46]Nipuni D. Nagahawatte
A Spatially-dense Microfabricated Photolithographic Electrode Array for Gastrointestinal Slow Wave Recordings *. EMBC 2020: 3957-3960 - [c45]Omkar N. Athavale
Design of Pressure Sensor Arrays to Assess Electrode Contact Pressure During In Vivo Recordings in the Gut*. EMBC 2020: 4204-4207 - [c44]Johannes R. Walter, Harnoor Saini, Benjamin Maier, Naser Mostashiri
Comparative Study of a Biomechanical Model-based and Black-box Approach for Subject-Specific Movement Prediction*. EMBC 2020: 4775-4778 - [c43]Jaime E. Lara
HD-EMG Electrode Count and Feature Selection Influence on Pattern-based Movement Classification Accuracy. EMBC 2020: 4787-4790 - [c42]Chih-Hsiang Alexander Chan
Trace Mapping: A New Visualization Technique for Analyzing Gastrointestinal High-Resolution Electrical Mapping Data. EMBC 2020: 5212-5215 - [c41]Mikhael Sayat, Zahra Aghababaie
Transmural Temperature Monitoring to Quantify Thermal Conduction And Lesion Formation During Gastric Ablation, an Emerging Therapy for Gastric Dysrhythmias. EMBC 2020: 5259-5262 - [c40]Anany Dwivedi
High-Density Electromyography Based Control of Robotic Devices: On the Execution of Dexterous Manipulation Tasks. ICRA 2020: 3825-3831
2010 – 2019
- 2019
- [j22]Suseela Somarajan
Noninvasive Magnetogastrography Detects Erythromycin-Induced Effects on the Gastric Slow Wave. IEEE Trans. Biomed. Eng. 66(2): 327-334 (2019) - [j21]Saeed Alighaleh
A Novel Gastric Pacing Device to Modulate Slow Waves and Assessment by High-Resolution Mapping. IEEE Trans. Biomed. Eng. 66(10): 2823-2830 (2019) - [j20]Luman Wang
A Formal Approach for Scalable Simulation of Gastric ICC Electrophysiology. IEEE Trans. Biomed. Eng. 66(12): 3320-3329 (2019) - [c39]Zahra Aghababaie
Feasibility of High-Resolution Electrical Mapping for Characterizing Conduction Blocks Created by Gastric Ablation. EMBC 2019: 170-173 - [c38]Niranchan Paskaranandavadivel, Recep Avci, Leo K. Cheng:
Quantification of Dynamic Gastric Slow Wave Activity using Recurrence Plots. EMBC 2019: 729-732 - [c37]Chih-Hsiang Alexander Chan
Methods for Visualization of Gastric Endoscopic Mapping Data From Three-Dimensional, Non-Uniform Electrode Arrays. EMBC 2019: 2222-2225 - [c36]Recep Avci, Niranchan Paskaranandavadivel, Stefan Calder, Peng Du, Leonard A. Bradshaw, Leo K. Cheng:
Source localization for gastric electrical activity using simulated magnetogastrographic data. EMBC 2019: 2336-2339 - [c35]Sachira Kuruppu, Leo K. Cheng, Timothy R. Angeli
A Framework for Spatiotemporal Analysis of Gastrointestinal Spike Burst Propagation. EMBC 2019: 4619-4622 - [c34]Jaime E. Lara
Effect of Segmentation Parameters on Classification Accuracy of High-Density EMG recordings. EMBC 2019: 6229-6232 - [c33]Henry Han
Detection of Monophasic Slow-wave Activation Phase Using Wavelet Decomposition. EMBC 2019: 7157-7160 - 2018
- [j19]Rui Wang, Zaid Abukhalaf, Amir Javan-Khoshkholgh
A Miniature Configurable Wireless System for Recording Gastric Electrophysiological Activity and Delivering High-Energy Electrical Stimulation. IEEE J. Emerg. Sel. Topics Circuits Syst. 8(2): 221-229 (2018) - [j18]Terence P. Mayne
Improved Visualization of Gastrointestinal Slow Wave Propagation Using a Novel Wavefront-Orientation Interpolation Technique. IEEE Trans. Biomed. Eng. 65(2): 319-326 (2018) - [c32]Yu Dang, Martin Stommel, Leo K. Cheng, Weiliang Xu
A Soft Ring-shaped Actuator: FE Simulation and Motion Tracking. M2VIP 2018: 1-5 - [c31]Dipankar Bhattacharya
Testing and Analysis of Migration Displacement of a Flared Stent Deployed in an Esophageal Swallowing Robot. M2VIP 2018: 1-6 - 2017
- [j17]Niranchan Paskaranandavadivel
Time-Delay Mapping of High-Resolution Gastric Slow-Wave Activity. IEEE Trans. Biomed. Eng. 64(1): 166-172 (2017) - [j16]Stefan Calder, Greg O'Grady, Leo K. Cheng, Peng Du:
A Theoretical Analysis of Electrogastrography (EGG) Signatures Associated With Gastric Dysrhythmias. IEEE Trans. Biomed. Eng. 64(7): 1592-1601 (2017) - [c30]Niranchan Paskaranandavadivel, Timothy R. Angeli
Ambulatory gastric mucosal slow wave recording for chronic experimental studies. EMBC 2017: 755-758 - [c29]Saeed Alighaleh
Design and application of a novel gastric pacemaker. EMBC 2017: 2181-2184 - [c28]Anna Qian, Shawn Means, Leo K. Cheng, James Sneyd, Peng Du:
A mathematical model of the effects of anoctamin-1 loss on intestinal slow wave entrainment. EMBC 2017: 2688-2691 - [c27]Niranchan Paskaranandavadivel, Saeed Alighaleh
Suppression of ventilation artifacts for gastrointestinal slow wave recordings. EMBC 2017: 2769-2772 - [c26]Berit Krohn, Shameer Sathar, Oliver Röhrle
A framework for simulating gastric electrical propagation in confocal microscopy derived geometries. EMBC 2017: 4215-4218 - [c25]Stefan Calder, Greg O'Grady, Leo K. Cheng, Peng Du:
Anatomical variations of the stomach effects on electrogastrography. EMBC 2017: 4219-4222 - [c24]Dipankar Bhattacharya
Actuation planning and modeling of a soft swallowing robot. M2VIP 2017: 1-6 - [c23]Sattar Din
Biomimetic evaluation of bolus transit in modelled esophageal swallowing. M2VIP 2017: 1-8 - [c22]Dipankar Bhattacharya
Artificial Intelligence Approach to the Trajectory Generation and Dynamics of a Soft Robotic Swallowing Simulator. RiTA 2017: 3-16 - [c21]Ryman Hashem, Weiliang Xu
FEA Evaluation of Ring-Shaped Soft-Actuators for a Stomach Robot. RiTA 2017: 475-487 - 2016
- [j15]L. Alan Bradshaw, Juliana H. Kim, Suseela Somarajan, William O. Richards, Leo K. Cheng:
Characterization of Electrophysiological Propagation by Multichannel Sensors. IEEE Trans. Biomed. Eng. 63(8): 1751-1759 (2016) - [j14]Jonathan C. Erickson, Joy Putney, Douglas Hilbert, Niranchan Paskaranandavadivel, Leo K. Cheng, Gregory O'Grady, Timothy R. Angeli
Iterative Covariance-Based Removal of Time-Synchronous Artifacts: Application to Gastrointestinal Electrical Recordings. IEEE Trans. Biomed. Eng. 63(11): 2262-2272 (2016) - 2015
- [j13]Jerry Gao, Shameer Sathar, Gregory O'Grady, Rosalind Archer
A Stochastic Algorithm for Generating Realistic Virtual Interstitial Cell of Cajal Networks. IEEE Trans. Biomed. Eng. 62(8): 2070-2078 (2015) - [j12]Shameer Sathar, Mark L. Trew, Greg O'Grady, Leo K. Cheng:
A Multiscale Tridomain Model for Simulating Bioelectric Gastric Pacing. IEEE Trans. Biomed. Eng. 62(11): 2685-2692 (2015) - [j11]Steven Dirven
Biomimetic Investigation of Intrabolus Pressure Signatures by a Peristaltic Swallowing Robot. IEEE Trans. Instrum. Meas. 64(4): 967-974 (2015) - [c20]Joy Putney, Gregory O'Grady, Timothy R. Angeli
Determining the efficient inter-electrode distance for high-resolution mapping using a mathematical model of human gastric dysrhythmias. EMBC 2015: 1448-1451 - [c19]Shameer Sathar, Leo K. Cheng, Mark L. Trew:
A comparison of solver performance for complex gastric electrophysiology models. EMBC 2015: 1452-1455 - [c18]Niranchan Paskaranandavadivel, Peng Du, Jonathan C. Erickson, Gregory O'Grady, Leo K. Cheng:
Extending the automated gastrointestinal analysis pipeline: Removal of invalid slow wave marks in gastric serosal recordings. EMBC 2015: 1938-1941 - [c17]Niranchan Paskaranandavadivel, Xingzheng Pan, Peng Du, Gregory O'Grady, Leo K. Cheng:
Detection of the Recovery Phase of in vivo gastric slow wave recordings. EMBC 2015: 6094-6097 - [c16]Niranchan Paskaranandavadivel, Simon H. Bull
A system for automated quantification of cutaneous electrogastrograms. EMBC 2015: 6098-6101 - [c15]Shameer Sathar, Mark L. Trew, Leo K. Cheng:
Tissue specific simulations of interstitial cells of cajal networks using unstructured meshes. EMBC 2015: 8062-8065 - 2014
- [j10]Simon H. Bull
A System and Method for Online High-Resolution Mapping of Gastric Slow-Wave Activity. IEEE Trans. Biomed. Eng. 61(11): 2679-2687 (2014) - [c14]Stefan Calder, Leo K. Cheng, Peng Du:
A theoretical analysis of the electrogastrogram (EGG). EMBC 2014: 4330-4333 - 2013
- [c13]Jerry Gao, Peng Du, Greg O'Grady, Rosalind Archer
Cellular automaton model for simulating tissue-specific intestinal electrophysiological activity. EMBC 2013: 5537-5540 - [c12]Peng Du, Jerry Gao, Gregory O'Grady, Leo K. Cheng:
A simplified biophysical cell model for gastric slow wave entrainment simulation. EMBC 2013: 6547-6550 - [c11]Niranchan Paskaranandavadivel, Jerry Gao, Peng Du, Gregory O'Grady, Leo K. Cheng:
Automated classification of spatiotemporal characteristics of gastric slow wave propagation. EMBC 2013: 7342-7345 - [c10]Steven Dirven
Soft-Robotic Peristaltic Pumping Inspired by Esophageal Swallowing in Man. RiTA 2013: 473-482 - 2012
- [j9]Niranchan Paskaranandavadivel, Gregory O'Grady, Peng Du, Andrew J. Pullan, Leo K. Cheng:
An Improved Method for the Estimation and Visualization of Velocity Fields from Gastric High-Resolution Electrical Mapping. IEEE Trans. Biomed. Eng. 59(3): 882-889 (2012) - 2011
- [j8]Jerry Gao, Peng Du, Rosalind Archer
A Stochastic Multi-Scale Model of Electrical Function in Normal and Depleted ICC Networks. IEEE Trans. Biomed. Eng. 58(12): 3451-3455 (2011) - [j7]Peng Du, Yong Cheng Poh, Jee Lean Lim, Viveka Gajendiran, Greg O'Grady, Martin L. Buist, Andrew J. Pullan, Leo K. Cheng:
A Preliminary Model of Gastrointestinal Electromechanical Coupling. IEEE Trans. Biomed. Eng. 58(12): 3491-3495 (2011) - [c9]Juliana H. K. Kim, Andrew J. Pullan, Leo K. Cheng:
Reconstruction of multiple gastric electrical wave fronts using potential based inverse methods. EMBC 2011: 1355-1358 - [c8]Niranchan Paskaranandavadivel, Leo K. Cheng, Peng Du, Gregory O'Grady, Andrew J. Pullan:
Improved signal processing techniques for the analysis of high resolution serosal slow wave activity in the stomach. EMBC 2011: 1737-1740 - [c7]Simon H. Bull
A framework for the online analysis of multi-electrode gastric slow wave recordings. EMBC 2011: 1741-1744 - [c6]Peng Du, Greg O'Grady, Niranchan Paskaranandavadivel, Timothy R. Angeli
Quantification of velocity anisotropy during gastric electrical arrhythmia. EMBC 2011: 4402-4405 - [c5]Timothy R. Angeli
Mapping small intestine bioelectrical activity using high-resolution printed-circuit-board electrodes. EMBC 2011: 4951-4954
2000 – 2009
- 2009
- [j6]L. Alan Bradshaw, Leo K. Cheng, William O. Richards, Andrew J. Pullan:
Surface Current Density Mapping for Identification of Gastric Slow Wave Propagation. IEEE Trans. Biomed. Eng. 56(8): 2131-2139 (2009) - [j5]Peng Du, Greg O'Grady, John A. Windsor
A Tissue Framework for Simulating the Effects of Gastric Electrical Stimulation and In Vivo Validation. IEEE Trans. Biomed. Eng. 56(12): 2755-2761 (2009) - 2006
- [j4]Andrei Irimia, Leo K. Cheng, Martin L. Buist, Andrew J. Pullan, L. Alan Bradshaw:
An integrative software package for gastrointestinal biomagnetic data acquisition and analysis using SQUID magnetometers. Comput. Methods Programs Biomed. 83(2): 83-94 (2006) - [c4]Thusitha De Silva Mabotuwana, Leo K. Cheng, Nicolas P. Smith, Andrew J. Pullan:
Modeling Blood Flow in the Gastrointestinal System. EMBC 2006: 1810-1813 - [c3]Leo K. Cheng, Martin Lindsay Buist, Andrew J. Pullan:
Anatomically Realistic Torso Model For Studying the Relative Decay of Gastric Electrical and Magnetic Fields. EMBC 2006: 3158-3161 - [c2]Kim F. Noakes, Ian P. Bissett
Anatomically Based Computational Models of the Male and Female Pelvic Floor and Anal Canal. EMBC 2006: 3815-3818 - [c1]John B. Davidson, Juliana Kim, Leo K. Cheng, Oliver Röhrle
Mathematically Modeling the Effects of Electrically Stimulating Skeletal Muscle. EMBC 2006: 4635-4638 - 2005
- [j3]Leo K. Cheng, Gregory B. Sands
Rapid construction of a patient-specific torso model from 3D ultrasound for non-invasive imaging of cardiac electrophysiology. Medical Biol. Eng. Comput. 43(3): 325-330 (2005) - 2003
- [j2]Leo K. Cheng, John M. Bodley, Andrew J. Pullan:
Comparison of potential- and activation-based formulations for the inverse problem of electrocardiology. IEEE Trans. Biomed. Eng. 50(1): 11-22 (2003) - [j1]Leo K. Cheng, John M. Bodley, Andrew J. Pullan:
Effects of experimental and modeling errors on electrocardiographic inverse formulations. IEEE Trans. Biomed. Eng. 50(1): 23-32 (2003)
Coauthor Index
Timothy R. Angeli-Gordon
aka: Timothy R. Angeli
aka: Timothy R. Angeli
Gregory O'Grady
aka: Greg O'Grady
aka: Greg O'Grady
[j43] [j40] [j39] [j37] [j35] [c79] [j34] [j33] [j32] [j31] [j30] [c73] [c72] [c68] [c65] [j28] [j27] [j26] [c61] [c60] [c59] [j25] [c57] [c55] [c54] [c53] [c52] [c51] [c49] [c48] [c47] [c46] [c45] [c43] [c42] [c41] [c40] [j21] [j20] [c39] [c38] [c37] [c36] [c35] [c34] [c33] [j19] [j18] [j17] [c30] [c29] [c27] [j14] [c20] [c18] [c17] [c16] [c11] [j9] [c8] [c6] [c5]
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