Wykaz publikacji wybranego autora

Paweł Hottowy, dr inż.

adiunkt

Wydział Fizyki i Informatyki Stosowanej
WFiIS-kod, Katedra Oddziaływań i Detekcji Cząstek

  • 2022

    [dyscyplina 1] dziedzina nauk inżynieryjno-technicznych / inżynieria biomedyczna

    [dyscyplina 2] dziedzina nauk ścisłych i przyrodniczych / nauki fizyczne (50%)

  • 2018

    [dyscyplina 1] dziedzina nauk ścisłych i przyrodniczych / nauki fizyczne

    [dyscyplina 2] dziedzina nauk inżynieryjno-technicznych / inżynieria biomedyczna (50%)

[poprzednia klasyfikacja] obszar nauk ścisłych / dziedzina nauk fizycznych / fizyka

Identyfikatory Autora Informacje o Autorze w systemach zewnętrznych

ORCID: 0000-0002-7592-2195 połącz konto z ORCID

ResearcherID: R-4981-2019

Scopus: 6507358095

PBN: 5e709208878c28a04738ee75

OPI Nauka Polska

System Informacyjny AGH (SkOs)

1
  • 512-electrode MEA system for spatio-temporal distributed stimulation and recording of neural activity
2
  • A 0.0046 $mm^{2}$ low-distortion CMOS neural preamplifier for large-scale neuroelectronic interfaces
3
  • A multichannel ASIC for stimulation of live neural tissue – analysis of stimulation artifacts and design considerations
4
  • AC-coupled CMOS neural amplifier optimized for low level distortions over full bandwidth
5
  • Advancement of data acquisition system for neural activity experiments using multi-electrode arrays
6
  • An MEA-based system for multichannel, low artifact simulation and recording of neural activity
7
  • Artifact cancellation for same-electrode stimulation and recording
8
  • Cancellation of the stimulation artifacts by stimulus-dependent nanoampere correction pulses
9
  • Computational methods for large-scale MEA studies of functional connectivity in brain slice preparations in-vitro
10
  • Design and test of pseudo-random counters and control logic for a multichannel mixed-mode IC for readout of silicon strip detectors
11
  • Design of a multichannel ASIC for large scale spatio-temporal distributed simulation of neural tissue
12
  • Development of integrated circuits for readout of microelectrode arrays to image neuronal activity in live retinal tissue
13
  • Development of integrated circuits for readout of microelectrode arrays to image neuronal activity in live retinal tissue
14
  • Efficient characterization of electrically evoked responses for neural interfaces
15
  • Efficient modeling and calibration of multi-electrode stimuli for epiretinal implants
16
  • Electrical stimulation of mammalian retinal ganglion cells using dense arrays of small-diameter electrodes
17
  • Functional characterization of the mouse retina through large-scale multielectrode recording
18
  • High-density micro-needles for in vitro neural studies
19
  • High-resolution electrical stimulation of the retina for artificial vision
20
  • High-resolution multielectrode array system for spatio-temporal distributed simulation and recording of neural activity
21
  • Interfacing with tens of neurons in acute neural tissue using an array of 61 extracellular micro-needles
22
  • Large-area, high-density arrays of micro-needles for acute slice electrophysiology
23
  • Local contribution to the somatosensory evoked potentials in rat’s thalamus
24
  • Low noise multichannel front-end electronics for recording signals from alive neuronal cells
25
  • Low-amplitude electrical microsimulation of a cortical column in rat barrel cortex with high-density silicon probes