Andreas Nørgaard Glud

Dr. Andreas Nørgaard Glud

orcid

Research Focus & Metrics

Academic Career Length

19Years (2008-Present)

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

Representative Publications

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9 May 2018 in Science Translational Medicine
Verified
Journal Article
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JSJan Strnadel
Jan Strnadel
CCCassiano Carromeu
Cassiano Carromeu
CBCedric Bardy
Cedric Bardy
MNMichael Navarro
Michael Navarro
OPOleksandr Platoshyn
Oleksandr Platoshyn
MMMartin Marsala
Martin Marsala
Syngeneic iPSC–derived neurons survive and mature without immunosuppression after grafting into the spinal cord of adult pigs.

24 October 2016 in Brain Structure and Function
Verified
Journal Article
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PDF file
CBCarsten R. Bjarkam
Carsten R. Bjarkam
AGAndreas Nørgaard Glud
Andreas Nørgaard Glud
DODariusz Orlowski
Dariusz Orlowski
JSJens Christian H. Sørensen
Jens Christian H. Sørensen
NPNicola Palomero-Gallagher
Nicola Palomero-Gallagher

1 January 2008 in British Journal Of Neurosurgery
Verified
Journal Article
Closed access
CBC. R. Bjarkam
C. R. Bjarkam
MNM. S. Nielsen
M. S. Nielsen
AGAndreas Nørgaard Glud
Andreas Nørgaard Glud
FRF. Rosendal
F. Rosendal
PMP. Mogensen
P. Mogensen
JSJ. C. Sørensen
J. C. Sørensen
Large animal neuroscience enables the use of conventional clinical brain imagers and the direct use and testing of surgical procedures and equipment from the human clinic. The greater complexity of the large animal brain additionally enables a more direct translation to human brain function in health and disease. Economical, ethical, scientific and practical issues may on the other hand hamper large animal neuroscience. Large animal neuroscience should therefore either be performed in order to examine large animal species dependent problems or to complement promising small animal basic studies by constituting an intermediate research system, bridging small animal CNS research to the human CNS. We have, accordingly, during the last ten years used the Göttingen minipig to examine neuromodulatory treatment modalities such as stem cell transplantation and deep brain stimulation directed towards Parkinson disease. This has been accomplished by the development of a MPTP-based large animal model of Parkinson disease in the Göttingen minipig and the development of stereotaxic and surgical approaches needed to manipulate the Göttingen minipig CNS. The instituted changes in the CNS can be evaluated in the live animal by brain imaging (PET and MR), cystometry, gait analysis, neurological evaluation and by post mortem examination based on histology and stereological analysis.

1 October 2009 in Journal of Neuroscience Methods
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Journal Article
Closed access
CBCarsten R. Bjarkam
Carsten R. Bjarkam
GCGraziano Cancian
Graziano Cancian
AGAndreas Nørgaard Glud
Andreas Nørgaard Glud
KEKaare S. Ettrup
Kaare S. Ettrup
RJRasmus L. Jørgensen
Rasmus L. Jørgensen
JSJens-Christian Sørensen
Jens-Christian Sørensen

1 July 2017 in Neuromodulation: Technology at the Neural Interface
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Journal Article
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DODariusz Orlowski
Dariusz Orlowski
AMAlexandre Michalis
Alexandre Michalis
AGAndreas Nørgaard Glud
Andreas Nørgaard Glud
AKAnders R. Korshøj
Anders R. Korshøj
LFLise M. Fitting
Lise M. Fitting
JSJens C.H. Sørensen
Jens C.H. Sørensen

26 June 2011 in Journal of Visualized Experiments
Verified
Journal Article
Open access
PDF file
KEKaare S. Ettrup
Kaare S. Ettrup
AGAndreas Nørgaard Glud
Andreas Nørgaard Glud
DODariusz Orlowski
Dariusz Orlowski
LFLise M. Fitting
Lise M. Fitting
KMKaare Meier
Kaare Meier
AAAage Kristian Olsen Alstrup
Aage Kristian Olsen Alstrup
The emergence of the Göttingen minipig in research of topics such as neuroscience, toxicology, diabetes, obesity, and experimental surgery reflects the close resemblance of these animals to human anatomy and physiology 1-6.The size of the Göttingen minipig permits the use of surgical equipment and advanced imaging modalities similar to those used in humans 6-8. The aim of this instructional video is to increase the awareness on the value of minipigs in biomedical research, by demonstrating how to perform tracheal intubation, transurethral bladder catheterization, femoral artery and vein catheterization, as well as transcardial perfusion. Endotracheal Intubation should be performed whenever a minipig undergoes general anesthesia, because it maintains a patent airway, permits assisted ventilation and protects the airways from aspirates. Transurethral bladder catheterization can provide useful information about about hydration state as well as renal and cardiovascular function during long surgical procedures. Furthermore, urinary catheterization can prevent contamination of delicate medico-technical equipment and painful bladder extension which may harm the animal and unnecessarily influence the experiment due to increased vagal tone and altered physiological parameters. Arterial and venous catheterization is useful for obtaining repeated blood samples and monitoring various physiological parameters. Catheterization of femoral vessels is preferable to catheterization of the neck vessels for ease of access, when performing experiments involving frame-based stereotaxic neurosurgery and brain imaging. When performing vessel catheterization in survival studies, strict aseptic technique must be employed to avoid infections6. Transcardial perfusion is the most effective fixation method, and yields preeminent results when preparing minipig organs for histology and histochemistry2,9. For more information about anesthesia, surgery and experimental techniques in swine in general we refer to Swindle 2007. Supplementary information about premedication and induction of anesthesia, assisted ventilation, analgesia, pre- and postoperative care of Göttingen minipigs are available via the internet at http://www.minipigs.com10. For extensive information about porcine anatomy we refer to Nickel et al. Vol. 1-511.