Thomas Gietzelt

Dr. Thomas Gietzelt

Insitute for Micro Process Engeinnering, KIT, Karlsruhe, Baden-Württemberg, Germany
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Research Focus & Metrics

Academic Career Length

31Years (1996-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 May 1997 in Langmuir
Verified
Journal Article
Closed access
DKD. Y. Kwok
D. Y. Kwok
Thomas GietzeltThomas Gietzelt
Thomas Gietzelt
KGK. Grundke
K. Grundke
HJH.-J. Jacobasch
H.-J. Jacobasch
ANA. W. Neumann
A. W. Neumann

1 August 2002 in Microsystem Technologies
Verified
Journal Article
Closed access
PDF file
RRR. Ruprecht
R. Ruprecht
Thomas GietzeltThomas Gietzelt
Thomas Gietzelt
KMK. Müller
K. Müller
VPV. Piotter
V. Piotter
JHJ. Haußelt
J. Haußelt

20 May 2006 in Biomedical Microdevices
Verified
Journal Article
Closed access
PDF file
SGStefan Giselbrecht
Stefan Giselbrecht
Thomas GietzeltThomas Gietzelt
Thomas Gietzelt
EGE. Gottwald
E. Gottwald
CTChristina Trautmann
Christina Trautmann
RTR. Truckenmüller
R. Truckenmüller
AWA. Welle
A. Welle

16 April 2007 in Lab on a Chip
Verified
Journal Article
Closed access
PDF file
EGEric Gottwald
Eric Gottwald
SGStefan Giselbrecht
Stefan Giselbrecht
CACaroline Augspurger
Caroline Augspurger
BLBrigitte Lahni
Brigitte Lahni
NDNina Dambrowsky
Nina Dambrowsky
KWKarl-Friedrich Weibezahn
Karl-Friedrich Weibezahn
We describe a multi-purpose platform for the three-dimensional cultivation of tissues. The device is composed of polymer chips featuring a microstructured area of 1–2 cm2. The chip is constructed either as a grid of micro-containers measuring 120–300 × 300 × 300 µm (h × l × w), or as an array of round recesses (300 µm diameter, 300 µm deep). The micro-containers may be separately equipped with addressable 3D-micro-electrodes, which allow for electrical stimulation of excitable cells and on-site measurements of electrochemically accessible parameters. The system is applicable for the cultivation of high cell densities of up to 8 × 106 cells and, because of the rectangular grid layout, allows the automated microscopical analysis of cultivated cells. More than 1000 micro-containers enable the parallel analysis of different parameters under superfusion/perfusion conditions. Using different polymer chips in combination with various types of bioreactors we demonstrated the principal suitability of the chip-based bioreactor for tissue culture applications. Primary and established cell lines have been successfully cultivated and analysed for functional properties. When cells were cultured in non-perfused chips, over time a considerable degree of apoptosis could be observed indicating the need for an active perfusion. The system presented here has also been applied for the differentiation analysis of pluripotent embryonic stem cells and may be suitable for the analysis of the stem cell niche.

1 August 2004 in Chemical Engineering Journal
Verified
Journal Article
Closed access
AGAndreas E Guber
Andreas E Guber
MHMathias Heckele
Mathias Heckele
DHDirk Herrmann
Dirk Herrmann
AMAlban Muslija
Alban Muslija
VSVolker Saile
Volker Saile
GKGünther Knebel
Günther Knebel

1 January 1996 in Composites Part A: Applied Science and Manufacturing
Verified
Journal Article
Closed access
EME. Mäder
E. Mäder
HJH.-J. Jacobasch
H.-J. Jacobasch
KGK. Grundke
K. Grundke
Thomas GietzeltThomas Gietzelt
Thomas Gietzelt