Christine Baechlein

Christine Baechlein


Research Focus & Metrics

Academic Career Length

17Years (2010-Present)

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

Representative Publications

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29 July 2010 in Veterinary Microbiology
Verified
Journal Article
Closed access
CBChristine Baechlein
Christine Baechlein
ASAnika Schielke
Anika Schielke
RJReimar Johne
Reimar Johne
RURainer Ulrich
Rainer Ulrich
WBWolfgang Baumgaertner
Wolfgang Baumgaertner
BGBeatrice Grummer
Beatrice Grummer

20 July 2018 in Viruses
Verified
Journal Article
Open access
PDF file
VPVanessa Maria Pfankuche
Vanessa Maria Pfankuche
KHKerstin Hahn
Kerstin Hahn
RBRogier Bodewes
Rogier Bodewes
FHFlorian Hansmann
Florian Hansmann
AHAndré Habierski
André Habierski
CPChristina Puff
Christina Puff
In situ hybridization (ISH) is a technique to determine potential correlations between viruses and lesions. The aim of the study was to compare ISH techniques for the detection of various viruses in different tissues. Tested RNA viruses include atypical porcine pestivirus (APPV) in the cerebellum of pigs, equine and bovine hepacivirus (EqHV, BovHepV) in the liver of horses and cattle, respectively, and Schmallenberg virus (SBV) in the cerebrum of goats. Examined DNA viruses comprise canine bocavirus 2 (CBoV-2) in the intestine of dogs, porcine bocavirus (PBoV) in the spinal cord of pigs and porcine circovirus 2 (PCV-2) in cerebrum, lymph node, and lung of pigs. ISH with self-designed digoxigenin-labelled RNA probes revealed a positive signal for SBV, CBoV-2, and PCV-2, whereas it was lacking for APPV, BovHepV, EqHV, and PBoV. Commercially produced digoxigenin-labelled DNA probes detected CBoV-2 and PCV-2, but failed to detect PBoV. ISH with a commercially available fluorescent ISH (FISH)-RNA probe mix identified nucleic acids of all tested viruses. The detection rate and the cell-associated positive area using the FISH-RNA probe mix was highest compared to the results using other probes and protocols, representing a major benefit of this method. Nevertheless, there are differences in costs and procedure time.

1 October 2013 in Journal of Virological Methods
Verified
Journal Article
Closed access
CBChristine Baechlein
Christine Baechlein
DMD. Meemken
D. Meemken
GPGiulia Pezzoni
Giulia Pezzoni
CEC. Engemann
C. Engemann
BGB. Grummer
B. Grummer

25 February 2020 in Pathogens
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Journal Article
Open access
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JSJohannes Scholz
Johannes Scholz
CBChristine Baechlein
Christine Baechlein
AGAshish Gadicherla
Ashish Gadicherla
AFAlexander Falkenhagen
Alexander Falkenhagen
STSimon Tausch
Simon Tausch
RJReimar Johne
Reimar Johne
The hepatitis E virus (HEV) causes acute and chronic hepatitis in humans. Investigation of HEV replication is hampered by the lack of broadly applicable, efficient cell culture systems and tools for site-directed mutagenesis of HEV. The cell culture-adapted genotype 3c strain 47832c, which represents a typical genotype predominantly detected in Europe, has previously been used for several basic and applied research studies. Here, a plasmid-based reverse genetics system was developed for this strain, which efficiently rescued the infectious virus without the need for in vitro RNA transcription. The cotransfection of T7 RNA polymerase-expressing BSR/T7 cells with one plasmid encoding the full-length viral genome and two helper plasmids encoding vaccinia virus capping enzymes resulted in the production of infectious HEV, which could be serially passaged on A549/D3 cells. The parental and recombinant virus exhibited similar replication kinetics. A single point mutation creating an additional restriction enzyme site could be successfully introduced into the virus genome of progeny virus, indicating that the system is suitable for site-directed mutagenesis. This system is the first plasmid-based HEV reverse genetics system, as well as the first reverse genetics system for HEV genotype 3c, and should therefore be of broad use for basic and applied HEV research.

1 January 2013
Verified
Journal Article
Closed access
CBChristine Baechlein
Christine Baechlein
FSFrauke Seehusen
Frauke Seehusen
HNHeiko Nathues
Heiko Nathues
EBElisabeth Grosse Beilage
Elisabeth Grosse Beilage
WBWolfgang Baumgärtner
Wolfgang Baumgärtner
BGBeatrice Grummer
Beatrice Grummer

17 January 2022 in Viruses
Verified
Journal Article
Open access
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Iben StokholmIben Stokholm
Iben Stokholm
NFNicole Fischer
Nicole Fischer
CBChristine Baechlein
Christine Baechlein
APAlexander Postel
Alexander Postel
AGAnders Galatius
Anders Galatius
PBPaul Becher
Paul Becher
Pestiviruses are widespread pathogens causing severe acute and chronic diseases among terrestrial mammals. Recently, Phocoena pestivirus (PhoPeV) was described in harbour porpoises (Phocoena phocoena) of the North Sea, expanding the host range to marine mammals. While the role of the virus is unknown, intrauterine infections with the most closely related pestiviruses— Bungowannah pestivirus (BuPV) and Linda virus (LindaV)—can cause increased rates of abortions and deaths in young piglets. Such diseases could severely impact already vulnerable harbour porpoise populations. Here, we investigated the presence of PhoPeV in 77 harbour porpoises, 277 harbour seals (Phoca vitulina), grey seals (Halichoerus grypus) and ringed seals (Pusa hispida) collected in the Baltic Sea region between 2002 and 2019. The full genome sequence of a pestivirus was obtained from a juvenile female porpoise collected along the coast of Zealand in Denmark in 2011. The comparative Bayesian phylogenetic analyses revealed a close relationship between the new PhoPeV sequence and previously published North Sea sequences with a recent divergence from genotype 1 sequences between 2005 and 2009. Our findings provide further insight into the circulation of PhoPeV and expand the distribution from the North Sea to the Baltic Sea region with possible implications for the vulnerable Belt Sea and endangered Baltic Proper harbour porpoise populations.