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Publié par | julius-maximilians-universitat_wurzburg |
Publié le | 01 janvier 2009 |
Nombre de lectures | 46 |
Langue | Deutsch |
Poids de l'ouvrage | 7 Mo |
Extrait
Bayerische Julius-Maximilians-Universität zu Würzburg
Fakultät für Biologie
Lehrstuhl für Mikrobiologie
Protein dynamics in responder and non-responder solid
tumor xenografts during oncolytic viral therapy
Dissertation
zur Erlangung des naturwissenschaftlichen Doktorgrades
der Bayerischen Julius-Maximilians-Universität Würzburg
vorgelegt von
Thu Ha Le
aus Vietnam
Würzburg, 2008
Eingereicht am: .....................................................................................................................
Mitglieder der Promotionskommission:
Vorsitzender: .........................................................................................................................
Gutachter : .............................................................................................................................
Gutachter: ..............................................................................................................................
Tag des Promotionskolloquiums: ........................................................................................
Doktorurkunde ausgehändigt am: ........................................................................................
Supervisor 1:
(Prof. Dr. A. A. Szalay, Lehrstuhl für Mikrobiologie)
Supervisor 2:
(Prof. Dr. F. Grummt, Lehrstuhl für Biochemie)
Eidesstattliche Erklärung
Hiermit versichere ich, dass ich die vorliegende Dissertation selbständig und nur mit den
angegebenen Hilfsmitteln und Quellen angefertigt habe.
Ich erkläre außerdem, dass diese Dissertation weder in gleicher noch in anderer Form bereits
in einem anderen Prüfungsverfahren vorgelegen hat.
Neben dem akademischen Grad „Master-MD-Uni.“ habe ich keine weiteren akademischen
Grade erworben oder zu erwerben versucht.
Würzburg, den ……………….. ………………………………...
(Thu Ha Le)
ACKNOWLEDGEMENT
At this point I would like to take the chance to express my gratitude to all those who
gave me the possibility to complete this thesis that took place at the department of
stmicrobiology, Bio center of the University of Wuerzburg, Germany, from October 1 of 2004
until December of 2008 under supervision of Prof. Dr. A. A. Szalay and Prof. Dr. F. Grummt.
I special thanks to
Prof. Dr. A. A. Szalay for providing working environment and for representing this
dissertation at the faculty of biology. I am deeply indebted to you for your kindness for giving
a very interesting thesis as well as stimulating suggestions, kindly recommendation, financial
support of scientific projects and for your continuous encouragement.
Prof. Dr. F. Grummt for his interest on my project and for proofreading this work. I
particularly thank you for encouragement helped me in all the time of research for and writing
of this thesis, looked closely at the final version of the thesis for English style and grammar,
correcting both and offering suggestions for improvement.
Dr. Andrea Spory from Microbiology department of Wuerzburg University for her
kindly technical assistance of two-dimensional electrophoresis.
Dr. Jörg Bernhardt from Institute of Microbiology in Greifswald University for his
meticulous assistance in instructing in analysis a differential protein expression by using 2D-
Software and Dr. Brigit Voigt from Institute of Microbiology in Greifswald University for her
responsible assistance in protein sequencing
Dr. Benedikt Brors from German cancer research centre for computative tumor protein
analysis.
I was delighted to interact with Dr. Elisabeth Hofmann by her help and having her as
my co-advisor, specially thank for her thorough assistance and for illuminative discussions.
My colleagues in the laboratory Christine Horchbashek, Chiristina Tietze, Stephanie
Weibel, Carolin Seubert, Victoria Raab, Andrea Worschech, Ulrike Geißinger, Dr. Jochen
Stritzker, Dr. Ivaylo Gentscher, Johanna Langbein, Ulrike Donat, Julia Sturm, Yvonne
Dombrowski, Anja Sauer, Kerstin Richte, Claudia Stühler for their sedulous helpfulness and
the comfortable working atmosphere, for advice in word and deeds and cheerful hours, the
staff members of the chair of microbiology, especially Monika Goetz for kindly support
working facilities, as well as the personnel of the chair of biochemistry, specifically to Anneli
Kießling for her organizational talent and aid.
All members of staff of Genelux company, named Tony Yo, Qian Zhang, Nanhai
Chen, Alexa Frentzen, Antonietta Jimenez Pearson, Terry Trevino, Camha Hoang, Alison Estrada, Shahrokh Shabahang, Andrea Feathers, Tom Hagood, Valere Rollings, Albert Röder,
Ron Simus and Daniela for financial support of scientific projects as well as kindly, helpful
assistance during the past 4 years.
I would regret my doctoral years at Wuerzburg University if I did not join MOET and
DAAD fellowships. Joining these fellowships was not only a turning point in my life, but also
a wonderful experience.
Sincere thanks to my mother who always supported me and to my son and husband in
Vietnam who had to live without me during the past years of my doctorade, whose patient
love enabled me to complete this work. I am deeply grateful for their true understanding and
trust, their help and support and much.
Contents
ABSTRACT..........................................................................
1. INTRODUCTION.................................................................................................. 1
1 1.1. Vaccinia virus as a representative oncolytic virus………………………...
1.2. Vaccinia virus biology………………………………………………………. 2
1.2.1. Vaccinia virion structure and life cycle..................................................... 2
1.2.2. Interactions with host cells ……… ……… … ……… ……… ……… …… ……. 3
1.3. Genetic engineering for tumor selective replication………………............ 5
1.4. Mechanisms of tumor escape………………………………………………. 7
1.5. Proteomic strategies and their application cancer research……………... 10
1.5.1. Cancers ……………………………………… …………………………… …….. 10
1.5.2. Cancer proteomic …………………………… ……. 10
1.5.3. Principles and technological platforms …… ……… ……… ……… …… …... 11
1.5.3.1. Two-dimensional polyacrylamide gel electrophoresis (2D-PAGE ) … ... 12
1.5.3.2. Mass spectrometry ………………………………………………………. ... ... 12
1.5.4. Proteome analysis of human cancer ……… ……… ……… ……… …… ……. 15
1.5.4.1. Proteome analysis of human breast cancer …………………………… …. 15
1.5.4.2. Proteome analysis of human colon cancer ….. 16
1.5.4.3. Proteome analysis of human prostate cancer …………………………….. 18
1.5.5. Proteomics analysis the differentially expressed of cancer cells infected
with virus …… ……… ……… ……… …… ……… ……… ……… …… ……… … 19
1.5.5.1. Modification of apoptotic pathways in the host cell …………………….. 21
1.5.5.2. Modification in the cytoskeleton structure of the host cell ……… ……... 23
1.5.5.3. Modification of cell host intracellular signaling pathways ……… … ….. 24
1.5.5.4. Modif cell host metabolic pathways ……………………………. 26
AIMS OF THE STUDY............................................................................................. 29
30 2. MATERIALS AND METHODS...........................................................................
2.1 MATERIALS........................................................................................................ 30
2.1.1 Equipments..................................................................................................... 30
32 2.1.2 Reagents, solutions and media.......................................................................
2.1.2.1 Reagents................................................................................................... 32
2.1.2.2 Solutions and media................................................................................. 34
2.1.3 Cell lines…………………………………………………………………….. 35
i
35 2.1.4 Recombinant vaccinia virus VACV GLV-1h68.............................................
2.1.5 Antibodies........................................................................................................ 36
2.2 METHODS............................................................................................................ 38
38 2.2.1 Cell biological methods..................................................................................
2.2.1.1 Cell