1 L. Yao, "pulse-width-adaptive active charge balancing circuit with pulse-insertion based residual charge compensation and quantization for electrical stimulation applications" 1-4, 2015
2 L. A. Geddes, "The strengthduration curve" BME-32 (BME-32): 458-459, 1985
3 H. Chun, "Safety ensuring retinal prosthesis with precise charge balance and low power consumption" 8 (8): 108-118, 2014
4 R. Ranjandish, "Polarity detection base pulse insertion for active charge balancing in electrical stimulation" 38-41, 2014
5 K. Loizos, "Increasing electrical stimulation efficacy in degenerated retina : stimulus waveform design in a multiscale computational model" 26 (26): 1111-1120, 2018
6 R. K. Shepherd, "Electrical stimulation of the auditory nerve : II. Effect of stimulus waveshape on single fibre response properties" 130 (130): 171-188, 1999
7 X. Liu, "Design of a closed-loop, bidirectional brain machine interface system with energy efficient neural feature extraction and PID control" 11 : 729-, 2017
8 S. Stanslaski, "Design and validation of a fully implantable, chronic, closed-loop neuromodulation device with concurrent sensing and stimulation" 20 (20): 410-421, 2012
9 K. Y. Qing, "Burstmodulated waveforms optimize electrical stimuli for charge efficiency and fiber selectivity" 23 (23): 936-945, 2015
10 J. -Y. Son, "An implantable neural stimulator IC with anodic current pulse modulation based active charge balancing" 8 : 136449-136458, 2020
1 L. Yao, "pulse-width-adaptive active charge balancing circuit with pulse-insertion based residual charge compensation and quantization for electrical stimulation applications" 1-4, 2015
2 L. A. Geddes, "The strengthduration curve" BME-32 (BME-32): 458-459, 1985
3 H. Chun, "Safety ensuring retinal prosthesis with precise charge balance and low power consumption" 8 (8): 108-118, 2014
4 R. Ranjandish, "Polarity detection base pulse insertion for active charge balancing in electrical stimulation" 38-41, 2014
5 K. Loizos, "Increasing electrical stimulation efficacy in degenerated retina : stimulus waveform design in a multiscale computational model" 26 (26): 1111-1120, 2018
6 R. K. Shepherd, "Electrical stimulation of the auditory nerve : II. Effect of stimulus waveshape on single fibre response properties" 130 (130): 171-188, 1999
7 X. Liu, "Design of a closed-loop, bidirectional brain machine interface system with energy efficient neural feature extraction and PID control" 11 : 729-, 2017
8 S. Stanslaski, "Design and validation of a fully implantable, chronic, closed-loop neuromodulation device with concurrent sensing and stimulation" 20 (20): 410-421, 2012
9 K. Y. Qing, "Burstmodulated waveforms optimize electrical stimuli for charge efficiency and fiber selectivity" 23 (23): 936-945, 2015
10 J. -Y. Son, "An implantable neural stimulator IC with anodic current pulse modulation based active charge balancing" 8 : 136449-136458, 2020
11 R. Ranjandish, "An active charge balancing method based on anodic current variation monitoring" 1-4, 2017
12 K. Sooksood, "An active approach for charge balancing in functional electrical stimulation" 4 (4): 162-170, 2010
13 Hyung Seok Kim, "An Ultra Low-power Low-noise Neural Recording Analog Front-end IC for Implantable Devices" 대한전자공학회 18 (18): 454-460, 2018
14 H. -M. Lee, "A powerefficient wireless system with adaptive supply control for deep brain stimulation" 48 (48): 2203-2216, 2013
15 M. N. van Dongen, "A powerefficient multichannel neural stimulator using highfrequency pulsed excitation from an unfiltered dynamic supply" 10 (10): 61-71, 2016
16 E. Maghsoudloo, "A new charge balancing scheme for electrical microstimulators based on modulated anodic stimulation pulse width" 2443-2446, 2016
17 S. Moradi, "A new approach to design safe and reliable electrical stimulator" 15 (15): 305-316, 2014
18 R. R. Harrison, "A low-power lownoise CMOS amplifier for neural recording applications" 38 (38): 958-965, 2003
19 R. R. Harrison, "A low-power lownoise CMOS amplifier for neural recording applications" 20 (20): 410-421, 2012
20 H. -G. Rhew, "A fully self-contained logarithmic closed-loop deep brain stimulation SoC with wireless telemetry and wireless power management" 49 : 213-, 2014
21 R. Ranjandish, "A Fully Fail-Safe Capacitive-Based Charge Metering Method for Active Charge Balancing in Deep Brain Stimulation" 2018
22 A. Taschwer, "A Charge Balanced Neural Stimulator with 3.3 V to 49 V Supply Compliance and Arbitrary Programmable Current Pulse Shapes" 2018
23 M. Ortmanns, "A 232-channel epiretinal stimulator ASIC" 42 (42): 2946-2959, 2007
24 A. Banuaji, "A 15-V bidirectional ultrasound interface analog front-end IC for medical imaging using standard CMOS technology" 61 (61): 604-608, 2014