| # | Document title | Authors | Year | Source | Cited by |
| 1 | An energy-efficient micropower neural recording amplifier | Wattanapanitch W., Fee M., Sarpeshkar R. | 2007 | IEEE Transactions on Biomedical Circuits and Systems,
1(2), pp. 136-147 | 430 |
| 2 | A low-power 32-channel digitally programmable neural recording integrated circuit | Wattanapanitch W., Wattanapanitch W., Sarpeshkar R. | 2011 | IEEE Transactions on Biomedical Circuits and Systems,
5(6), pp. 592-602, 6012491 | 127 |
| 3 | Low-power circuits for brain-machine interfaces | Sarpeshkar R., Wattanapanitch W., Arfin S., Rapoport B., Mandal S., Baker M., Fee M., Musallam S., Andersen R. | 2008 | IEEE Transactions on Biomedical Circuits and Systems,
2(3), pp. 173-183 | 67 |
| 4 | Low-power circuits for brain-machine interfaces | Sarpeshkar R., Wattanapanitch W., Rapoport B.I., Arfin S.K., Baker M.W., Mandal S., Fee M.S., Musallam S., Andersen R.A. | 2007 | Proceedings - IEEE International Symposium on Circuits and Systems,
pp. 2068-2071, 4253076 | 24 |
| 5 | Efficient Universal Computing Architectures for Decoding Neural Activity | Rapoport B., Rapoport B., Turicchia L., Wattanapanitch W., Davidson T., Sarpeshkar R. | 2012 | PLoS ONE,
7(9), e42492 | 20 |
| 6 | A Micropower Motion Artifact Estimator for Input Dynamic Range Reduction in Wearable ECG Acquisition Systems | Pholpoke B., Songthawornpong T., Wattanapanitch W. | 2019 | IEEE Transactions on Biomedical Circuits and Systems,
13(5), pp. 1021-1035, 8815829 | 15 |
| 7 | A 2.64-\mu \mathrm{W} 71-dB SNDR Discrete-Time Signal-Folding Amplifier for Reducing ADC's Resolution Requirement in Wearable ECG Acquisition Systems | Ratametha C., Tepwimonpetkun S., Wattanapanitch W. | 2020 | IEEE Transactions on Biomedical Circuits and Systems,
14(1), pp. 48-64, 8918327 | 14 |
| 8 | A Low-Power Wide-Load-Range Output-Capacitorless Low-Dropout Voltage Regulator with Indirect-Direct Nested Miller Compensation | Limpisawas T., Wattanapanitch W. | 2022 | IEEE Access,
10, pp. 67396-67412 | 13 |
| 9 | A biomimetic adaptive algorithm and low-power architecture for implantable neural decoders | Rapoport B., Rapoport B., Wattanapanitch W., Penagos H., Musallam S., Andersen R., Sarpeshkar R. | 2009 | Proceedings of the 31st Annual International Conference of the IEEE Engineering in Medicine and Biology Society: Engineering the Future of Biomedicine, EMBC 2009,
pp. 4214-4217, 5333793 | 13 |
| 10 | Design of a Low-Power Ground-Free Analog Front End for ECG Acquisition | Watcharapongvinit K., Yongpanich I., Wattanapanitch W. | 2023 | IEEE Transactions on Biomedical Circuits and Systems | 11 |
| 11 | A Low-Power High-Input-Impedance ECG Readout System Employing A Very High-Gain Amplification and A Signal-Folding Technique for Dry-Electrode Recording | Buaban C., Ratametha C., Limpisawas T., Songthawornpong T., Pholpoke B., Wattanapanitch W. | 2021 | IEEE Sensors Journal,
9449892 | 10 |
| 12 | Graphical analysis and design of multistage operational amplifiers with active feedback Miller compensation | Tepwimonpetkun S., Pholpoke B., Wattanapanitch W. | 2016 | International Journal of Circuit Theory and Applications,
44(3), pp. 562-583 | 10 |
| 13 | A flexible non-enzymatic hydrogel-assisted electrochemical sensor: Wireless, sensitive, and selective uric acid detection for home monitoring | Thirabowonkitphithan P., Maksuk K., Permpoka K., Jiraseree-amornkun A., Wattanapanitch W., Nilaratanakul V., Nilaratanakul V., Nilaratanakul V., Tasca F., Laiwattanapaisal W. | 2024 | Microchemical Journal,
205, 111268 | 9 |
| 14 | Design of a low-power high open-loop gain operational amplifier for capacitively-coupled instrumentation amplifiers | Prasopsin P., Wattanapanitch W. | 2017 | International Journal of Circuit Theory and Applications,
45(11), pp. 1552-1575 | 8 |
| 15 | Design of a High-Efficiency Low-Ripple Buck Converter for Low-Power System-On-Chips | Thongmark S., Wattanapanitch W. | 2023 | IEEE Access,
11, pp. 122566-122585 | 8 |
| 16 | A compact low-power mixed-signal architecture for powerline interference rejection in biopotential analog front ends | Prasopsin P., Pholpoke B., Tepwimonpetkun S., Wattanapanitch W. | 2014 | IEEE 2014 Biomedical Circuits and Systems Conference, BioCAS 2014 - Proceedings,
pp. 196-199, 6981696 | 4 |
| 17 | Formulation and emulation of quantum-inspired dynamical systems with classical analog circuits | Cressman A.J., Wattanapanitch W., Chuang I., Sarpeshkar R. | 2022 | Neural Computation,
34(4), pp. 856-890 | 1 |
| 18 | A Low-Power High-Input-Impedance 70-dB Gain ECG Readout System with High Interference Tolerance | Ratametha C., Buaban C., Pholpoke B., Limpisawas T., Prasopsin P., Tepwimonpetkun S., Wattanapanitch W. | 2018 | 2018 IEEE Biomedical Circuits and Systems Conference, BioCAS 2018 - Proceedings,
8584694 | 1 |
| 19 | Design Optimization of a Low-Power and Low-Complexity Digital Driven-Right-Leg Circuit for Active-Electrode Measurement Systems | Songthawornpong T., Wattanapanitch W. | 2025 | IEEE Transactions on Instrumentation and Measurement,
74, 2006712 | 1 |
| 20 | A Low-Noise Fully-Differential Bandgap Reference for Low-Power High-Precision ADCs | Songthawornpong T., Jiraseree-Amornkun A., Thantipwan T., Wattanapanitch W. | 2024 | APCCAS and PrimeAsia 2024 - 2024 IEEE 20th Asia Pacific Conference on Circuits and Systems and IEEE Asia Pacific Conference on Postgraduate Research in Microelectronics Electronics, Proceeding,
pp. 83-86 | 0 |
| 21 | A 10 Gb/s optical receiver in 0.25 μm silicon-on-sapphire CMOS | Chen P.C.P., Pappu A.M., Fu Z., Wattanapanitch W., Apsel A.B. | 2008 | Proceedings - IEEE International Symposium on Circuits and Systems,
pp. 193-196, 4541387 | 0 |