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2048 action potential recording channels with 2.4 μVrms noise and stimulation artifact suppression., , , , , , , и . BioCAS, стр. 136-139. IEEE, (2016)In Vitro Multi-Functional Microelectrode Array Featuring 59 760 Electrodes, 2048 Electrophysiology Channels, Stimulation, Impedance Measurement, and Neurotransmitter Detection Channels., , , , , , , , , и 1 other автор(ы). IEEE J. Solid State Circuits, 52 (6): 1576-1590 (2017)Technology trends and commercialization of high-density microelectrode arrays for advanced in-vitro electrophysiology., , , и . ISCAS, стр. 1. IEEE, (2017)22.8 Multi-functional microelectrode array system featuring 59, 760 electrodes, 2048 electrophysiology channels, impedance and neurotransmitter measurement units., , , , , , и . ISSCC, стр. 394-396. IEEE, (2016)Compensating imperfections in RF-DAC based transmitters using LUT-based predistortion., , , и . SoCC, стр. 312-316. IEEE, (2014)A submodular boost converter ASIC for output energy improvements in photovoltaic applications., , , и . IECON, стр. 1944-1949. IEEE, (2014)A low complexity multi standard dual band CMOS polar transmitter for smart utility networks., , , , , , и . SoCC, стр. 426-430. IEEE, (2014)Design of a low power multistandard transceiver chain based on current-reuse VCO., , , , и . SoCC, стр. 393-396. IEEE, (2014)A multistandard, triple band wireless transceiver in a 130 nm CMOS technology with integrated PAs for IoT applications., , , , , , , , , и . RWS, стр. 88-90. IEEE, (2018)Advanced digital current prediction for current ripple reduction in DC-DC converters for photovoltaic applications., , , и . IECON, стр. 6968-6973. IEEE, (2013)