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Team:Freiburg/Content/Team/Members
From 2014.igem.org
Team
We succeed to stably integrate our gene of interest into the genome of target cells by using a viral vector derived from the murine leukemia virus. The advantages of this vector are: its specificity for murine cells, making the viral work safe and easy; a very high efficiency for infection; and the ability of stable gene transfer into the genomes of target cells. Here we present results on these three qualities of our viral vector and how we optimized virus production and cell infection.
Team
Members
Jan Ole Ackermann
We succeed to stably integrate our gene of interest into the genome of target cells by using a viral vector derived from the murine leukemia virus. The advantages of this vector are: its specificity for murine cells, making the viral work safe and easy; a very high efficiency for infection; and the ability of stable gene transfer into the genomes of target cells. Here we present results on these three qualities of our viral vector and how we optimized virus production and cell infection.
OH Le Ole
Christoph Bauer
Chrys
We succeed to stably integrate our gene of interest into the genome of target cells by using a viral vector derived from the murine leukemia virus. The advantages of this vector are: its specificity for murine cells, making the viral work safe and easy; a very high efficiency for infection; and the ability of stable gene transfer into the genomes of target cells. Here we present results on these three qualities of our viral vector and how we optimized virus production and cell infection.
Ileana Bender
We succeed to stably integrate our gene of interest into the genome of target cells by using a viral vector derived from the murine leukemia virus. The advantages of this vector are: its specificity for murine cells, making the viral work safe and easy; a very high efficiency for infection; and the ability of stable gene transfer into the genomes of target cells. Here we present results on these three qualities of our viral vector and how we optimized virus production and cell infection.
Illi-Vanilli
Valentina Diehl
Vali
We succeed to stably integrate our gene of interest into the genome of target cells by using a viral vector derived from the murine leukemia virus. The advantages of this vector are: its specificity for murine cells, making the viral work safe and easy; a very high efficiency for infection; and the ability of stable gene transfer into the genomes of target cells. Here we present results on these three qualities of our viral vector and how we optimized virus production and cell infection.
Mirja Harms
We succeed to stably integrate our gene of interest into the genome of target cells by using a viral vector derived from the murine leukemia virus. The advantages of this vector are: its specificity for murine cells, making the viral work safe and easy; a very high efficiency for infection; and the ability of stable gene transfer into the genomes of target cells. Here we present results on these three qualities of our viral vector and how we optimized virus production and cell infection.
MirNEIN
Patrick Heisterkamp
Appologe
We succeed to stably integrate our gene of interest into the genome of target cells by using a viral vector derived from the murine leukemia virus. The advantages of this vector are: its specificity for murine cells, making the viral work safe and easy; a very high efficiency for infection; and the ability of stable gene transfer into the genomes of target cells. Here we present results on these three qualities of our viral vector and how we optimized virus production and cell infection.
Clarissa Hiltl
We succeed to stably integrate our gene of interest into the genome of target cells by using a viral vector derived from the murine leukemia virus. The advantages of this vector are: its specificity for murine cells, making the viral work safe and easy; a very high efficiency for infection; and the ability of stable gene transfer into the genomes of target cells. Here we present results on these three qualities of our viral vector and how we optimized virus production and cell infection.
CEO von HZ Corp.
Jialiang Lu
LaLeLu
We succeed to stably integrate our gene of interest into the genome of target cells by using a viral vector derived from the murine leukemia virus. The advantages of this vector are: its specificity for murine cells, making the viral work safe and easy; a very high efficiency for infection; and the ability of stable gene transfer into the genomes of target cells. Here we present results on these three qualities of our viral vector and how we optimized virus production and cell infection.
Wignand Mühlhäuser
We succeed to stably integrate our gene of interest into the genome of target cells by using a viral vector derived from the murine leukemia virus. The advantages of this vector are: its specificity for murine cells, making the viral work safe and easy; a very high efficiency for infection; and the ability of stable gene transfer into the genomes of target cells. Here we present results on these three qualities of our viral vector and how we optimized virus production and cell infection.
Weegee
Marc Müller
Hexer
We succeed to stably integrate our gene of interest into the genome of target cells by using a viral vector derived from the murine leukemia virus. The advantages of this vector are: its specificity for murine cells, making the viral work safe and easy; a very high efficiency for infection; and the ability of stable gene transfer into the genomes of target cells. Here we present results on these three qualities of our viral vector and how we optimized virus production and cell infection.
Laura Ost
We succeed to stably integrate our gene of interest into the genome of target cells by using a viral vector derived from the murine leukemia virus. The advantages of this vector are: its specificity for murine cells, making the viral work safe and easy; a very high efficiency for infection; and the ability of stable gene transfer into the genomes of target cells. Here we present results on these three qualities of our viral vector and how we optimized virus production and cell infection.
Sonnenaufgang
Pascal Sartor
Dizzie Pascal
We succeed to stably integrate our gene of interest into the genome of target cells by using a viral vector derived from the murine leukemia virus. The advantages of this vector are: its specificity for murine cells, making the viral work safe and easy; a very high efficiency for infection; and the ability of stable gene transfer into the genomes of target cells. Here we present results on these three qualities of our viral vector and how we optimized virus production and cell infection.
Kristoffer Weißert
We succeed to stably integrate our gene of interest into the genome of target cells by using a viral vector derived from the murine leukemia virus. The advantages of this vector are: its specificity for murine cells, making the viral work safe and easy; a very high efficiency for infection; and the ability of stable gene transfer into the genomes of target cells. Here we present results on these three qualities of our viral vector and how we optimized virus production and cell infection.
Krissi
Dennis Zimmer
Chambre
We succeed to stably integrate our gene of interest into the genome of target cells by using a viral vector derived from the murine leukemia virus. The advantages of this vector are: its specificity for murine cells, making the viral work safe and easy; a very high efficiency for infection; and the ability of stable gene transfer into the genomes of target cells. Here we present results on these three qualities of our viral vector and how we optimized virus production and cell infection.
Advisors
Max Ulbrich
We succeed to stably integrate our gene of interest into the genome of target cells by using a viral vector derived from the murine leukemia virus. The advantages of this vector are: its specificity for murine cells, making the viral work safe and easy; a very high efficiency for infection; and the ability of stable gene transfer into the genomes of target cells. Here we present results on these three qualities of our viral vector and how we optimized virus production and cell infection.
Prof. Mäx
Nicole Gensch
Dr. Toolbox
We succeed to stably integrate our gene of interest into the genome of target cells by using a viral vector derived from the murine leukemia virus. The advantages of this vector are: its specificity for murine cells, making the viral work safe and easy; a very high efficiency for infection; and the ability of stable gene transfer into the genomes of target cells. Here we present results on these three qualities of our viral vector and how we optimized virus production and cell infection.
Patrick Gonschorek
We succeed to stably integrate our gene of interest into the genome of target cells by using a viral vector derived from the murine leukemia virus. The advantages of this vector are: its specificity for murine cells, making the viral work safe and easy; a very high efficiency for infection; and the ability of stable gene transfer into the genomes of target cells. Here we present results on these three qualities of our viral vector and how we optimized virus production and cell infection.
Pat
Anne Müller
Alles Müller, oder was?
We succeed to stably integrate our gene of interest into the genome of target cells by using a viral vector derived from the murine leukemia virus. The advantages of this vector are: its specificity for murine cells, making the viral work safe and easy; a very high efficiency for infection; and the ability of stable gene transfer into the genomes of target cells. Here we present results on these three qualities of our viral vector and how we optimized virus production and cell infection.
Natalie Louis
We succeed to stably integrate our gene of interest into the genome of target cells by using a viral vector derived from the murine leukemia virus. The advantages of this vector are: its specificity for murine cells, making the viral work safe and easy; a very high efficiency for infection; and the ability of stable gene transfer into the genomes of target cells. Here we present results on these three qualities of our viral vector and how we optimized virus production and cell infection.
Rafael Natal
Lisa Schmunk
Schmuck
We succeed to stably integrate our gene of interest into the genome of target cells by using a viral vector derived from the murine leukemia virus. The advantages of this vector are: its specificity for murine cells, making the viral work safe and easy; a very high efficiency for infection; and the ability of stable gene transfer into the genomes of target cells. Here we present results on these three qualities of our viral vector and how we optimized virus production and cell infection.
