Team:SupBiotech-Paris/Bibliographie
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- | == | + | == Action antitumorale == |
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- | |height=40px| | + | |height=40px|Action antitumorale |
- | |[] | + | |[1] |
- | | | + | |Chunlin Yang et al |
- | | | + | |Adenovirus-mediated Wild-Type p53 Expression Induces Apoptosis and Suppresses Tumorigenesis of Prostatic Tumor Cells |
- | | | + | |1995 |
|- style="background: #C0C0C0; text-align: center;" | |- style="background: #C0C0C0; text-align: center;" | ||
- | |height=40px| | + | |height=40px|Action antitumorale |
- | |[] | + | |[2] |
- | | | + | |Corrado Cirielli et al. |
- | | | + | |Adenovirus-mediated wild-type p53 expression induces apoptosis and suppresses tumorigenesis of experimental intracranial human malignant glioma |
- | | | + | |1999 |
|- style="background: white; text-align: center;" | |- style="background: white; text-align: center;" | ||
- | |height=40px| | + | |height=40px|Action antitumorale |
- | |[] | + | |[3] |
- | | | + | |Su-Ping Ren et al. |
- | | | + | |Adenoviral-mediated transfer of human wild-type p53, GM-CSF and B7-1 genes results in growth suppression and autologous anti-tumor cytotoxicity of multiple myeloma cells in vitro |
- | | | + | |2006 |
|- style="background: #C0C0C0; text-align: center;" | |- style="background: #C0C0C0; text-align: center;" | ||
- | |height=40px| | + | |height=40px|Action antitumorale |
- | |[] | + | |[4] |
- | | | + | |Zhao-hua Qiu et al |
- | | | + | |Growth suppression and immunogenicity enhancement of Hep-2 or primary laryngeal cancer cells by adenovirus-mediated co-transfer of human wild-type p53, granulocyte-macrophage colony-stimulating factor and B7-1 genes |
- | | | + | |2002 |
|- style="background: white; text-align: center;" | |- style="background: white; text-align: center;" | ||
- | |height=40px| | + | |height=40px|Action antitumorale |
- | |[] | + | |[5] |
- | | | + | |Zhao-hua Qiu et al. |
- | | | + | |Co-transfer of human wild-type p53 and granulocyte-macrophage colony-stimulating factor genes via recombinant adenovirus induces apoptosis and enhances immunogenicity in laryngeal cancer cells |
- | | | + | |2001 |
|- style="background: #C0C0C0; text-align: center;" | |- style="background: #C0C0C0; text-align: center;" | ||
- | |height=40px| | + | |height=40px|Action antitumorale |
- | |[] | + | |[6] |
- | | | + | |Markus Reiser et al. |
- | | | + | |Induction of cell proliferation arrest and apoptosis in hepatoma cells through adenoviral-mediated transfer of p53 gene |
- | | | + | |2000 |
|- style="background: white; text-align: center;" | |- style="background: white; text-align: center;" | ||
- | |height=40px| | + | |height=40px|Action antitumorale |
- | |[] | + | |[7] |
- | | | + | |Louis L. Pisters et al. |
- | | | + | |Evidence That Transfer of Functional p53 Protein Results in Increased Apoptosis in Prostate Cancer |
- | | | + | |2004 |
|- style="background: #C0C0C0; text-align: center;" | |- style="background: #C0C0C0; text-align: center;" | ||
- | |height=40px| | + | |height=40px|Action antitumorale |
- | |[] | + | |[8] |
- | | | + | |Susan C. Modesitt et al. |
- | | | + | |In Vitro and in Vivo Adenovirus-mediated p53 and p16 Tumor Suppressor Therapy in Ovarian Cancer |
- | | | + | |2001 |
|- style="background: white; text-align: center;" | |- style="background: white; text-align: center;" | ||
- | |height=40px| | + | |height=40px|Action antitumorale |
- | |[] | + | |[9] |
- | | | + | |Yong-song GUAN et al. |
- | | | + | |Adenovirus-mediated wild-type p53 gene transfer in combination with bronchial arterial infusion for treatment of advanced non-small-cell lung cancer, one year follow-up |
- | | | + | |2009 |
|- style="background: #C0C0C0; text-align: center;" | |- style="background: #C0C0C0; text-align: center;" |
Revision as of 01:38, 21 October 2009
Contents |
Thérapies
Chapitre | Ref. | Auteurs | Titre | Année |
Thérapie actuelle | [1] | Lechat P. | Pharmacology | 2006 |
Thérapie actuelle | [2] | Bruguerolle B. | Biological rhythms and medications: a source of variability often neglected in pharmacology | 2008 |
Thérapie genique | [1] | Kevin J. Scanlon and al. | Cancer Gene Therapy: Challenges and Opportunities | 2004 |
Thérapie genique | [2] | Gouze JN and al. | A comparative study of the inhibitory effects of interleukin-1 receptor antagonist following administration as a recombinant protein or by gene transfer | 2003 |
Thérapie génique | [3] | Centre for Genetics Education | http://www.genetics.com.au/index.asp | XXXX |
Vectorisation
Chapitre | Ref. | Auteurs | Titre | Année |
Vectorisation | [1] | Couvreur P. | L'encapsulation de médicament | 2003 |
Vectorisation | [2] | Andrieux K. and al. | Nanotechnology and new drug | 2003 |
Vectorisation | [3] | Torchilin V.P. | Recent Approaches to Intracellular Delivery of Drugs and DNA and Organelle Targeting | 2006 |
Vectorisation | [4] | Davis M.E. and al. | Nanoparticle therapeutics: an emerging treatment modality for cancer | 2008 |
Vectorisation | [5] | Seow Y. and al. | Biological Gene Delivery Vehicles: Beyond Viral Vectors | 2009 |
Vectorisation | [6] | Decroly E. | Vectorology | 2005 |
Vectorisation | [7] | Robbins P.D. and al. | Viral Vectors for Gene Therapy | 1998 |
Vectorisation | [8] | Wei M.Q. and al. | Bacterial targeted tumour therapy-dawn of a new era | 2008 |
Vectorisation | [9] | Ryan R.M. and al. | Use of bacteria in anti-cancer therapies | 2005 |
Vectorisation | [10] | Mehnert | Solid lipid nanoparticles: Production, characterization and applications | 2001 |
Vectorisation | [11] | Lasic D.D. | Liposomes in gene therapy | 1996 |
Vectorisation | [12] | Lutten J. and al. | Biodegradable polymers as non-viral carriers for plasmid DNA delivery | 2008 |
Vectorisation | [13] | Jiskoot W. and al. | Immunological Risk of Injectable Drug Delivery Systems | 2009 |
Vectorisation | [14] | Head M. and al. | Mechanism and computer simulation of immune complex formation, opsonization, and clearance | 1996 |
Vectorisation | [15] | Koide H. and al. | Particle size-dependent triggering of accelerated blood clearance phenomenon | 2008 |
Vectorisation | [16] | Ishida T. and al. | Accelerated blood clearance of PEGylated liposomes following preceding liposome injection: Effects of lipid dose and PEG surface-density and chain length of the first-dose liposomes | 2005 |
Vectorisation | [17] | Wang XY and al. | Anti-PEG IgM elicited by injection of liposomes is involved in the enhanced blood clearance of a subsequent dose of PEGylated liposomes | 2007 |
Vectorisation | [18] | Tosi M.F. and al. | Innate immune responses to infection | 2005 |
Vectorisation | [19] | Linkov I and al. | Nanotoxicology and nanomedicine: making hard decisions | 2008 |
Vecteur Tissulaire
Chapitre | Ref. | Auteurs | Titre | Année |
Vecteur Tissulaire | [1] | Ronald S. and al. | Antimicrobial mechanisms of phagocytes and bacterial evasion strategies | 2009 |
Vecteur Tissulaire | [2] | Clark B. Inderlied and al. | The Mycobacterium avium Complex | 1993 |
Vecteur Tissulaire | [3] | Nisheeth Agarwal and al. | Cyclic AMP intoxication of macrophages by a Mycobacterium tuberculosis adenylate cyclase | 2009 |
Vecteur Tissulaire | [4] | Hunter R.L. and al. | Pathology of postprimary tuberculosis in humans and mice: contradiction of long-held beliefs | 2007 |
Vecteur Tissulaire | [5] | Axelrod S and al. | Delay of phagosome maturation by a mycobacterial lipid is reversed by nitric oxide | 2008 |
Vecteur Tissulaire | [6] | Nicole N van der Wel and al. | Subcellular localization of mycobacteria in tissues and detection of lipid antigens in organelles using cryo-techniques for light and electron microscopy | 2005 |
Vecteur Tissulaire | [7] | Claudia Nobrega and al. | The thymus as a target for mycobacterial infections | 2007 |
Vecteur Cellulaire
Chapitre | Ref. | Auteurs | Titre | Année |
Vecteur Cellulaire | [1] | Harrison Echols and al. | Genetic Map of Bacteriophage Lambda | 1978 |
Vecteur Cellulaire | [2] | Joseph Sambrook and al. | Molecular Cloning: A Laboratory Manual (Third Edition) | 2001 |
Vecteur Cellulaire | [3] | Court DL and al. | A New Look at Bacteriophage lambda Genetic Networks | 2007 |
Vecteur Cellulaire | [4] | Ortega ME and al. | Bacteriophage Lambda gpNu1 and Escherichia coli IHF Proteins Cooperatively Bind and Bend Viral DNA: Implications for the Assembly of a Genome-Packaging Motor | 2006 |
Vecteur Cellulaire | [5] | Feiss M. and al. | Bactériophage Lambda Terminase and the Mechanism of Viral DNA Packaging | 2005 |
Vecteur Cellulaire | [6] | Hang JQ and al. | The Functional Asymmetry of cosN, the Nicking Site for Bacteriophage λ DNA Packaging, Is Dependent on the Terminase Binding Site, cosB | 2001 |
Vecteur Cellulaire | [7] | Becker A and al. | Bacteriophage lambda DNA : The begginning of the End | 1990 |
Vecteur Cellulaire | [8] | Hochschild A and al. | The bactériophage lambda cI protein finds an asymmetric solution | 2009 |
Vecteur Cellulaire | [9] | Phoebe L.Stewart1 and al. | Cryo-EM visualization of an exposed RGD epitope on adenovirus that escapes antibody neutralization | 1997 |
Plasmide Thérapeutique
Chapitre | Ref. | Auteurs | Titre | Année |
Plasmide thérapeutique | [1] | Ortega ME et al. | Bacteriophage lambda gpNu1 and Escherichia coli IHF proteins cooperatively bind and bend viral DNA: implications for the assembly of a genome-packaging motor | 2006 |
Plasmide thérapeutique | [2] | Joseph Sambrook and al. | Molecular Cloning: A Laboratory Manual (Third Edition) | 2001 |
Plasmide thérapeutique | [3] | Court DL and al. | A New Look at Bacteriophage lambda Genetic Networks | 2007 |
Plasmide thérapeutique | [4] | Feiss M. and al. | Viral Genome Packaging Machines: Genetics, Structure and Mechanism | 2005 |
Plasmide thérapeutique | [5] | Hang JQ and al. | The Functional Asymmetry of cosN, the Nicking Site for Bacteriophage λ DNA Packaging, Is Dependent on the Terminase Binding Site, cosB | 2001 |
Plasmide thérapeutique | [6] | Becker A and al. | Bacteriophage lambda DNA : The begginning of the End | 1990 |
Plasmide thérapeutique | [7] | Young et al. | Effect of a DNA nuclear targeting sequence on gene transfer and expression of plasmids in the intact vasculature | 2003 |
Action antitumorale
Chapitre | Ref. | Auteurs | Titre | Année |
Action antitumorale | [1] | Chunlin Yang et al | Adenovirus-mediated Wild-Type p53 Expression Induces Apoptosis and Suppresses Tumorigenesis of Prostatic Tumor Cells | 1995 |
Action antitumorale | [2] | Corrado Cirielli et al. | Adenovirus-mediated wild-type p53 expression induces apoptosis and suppresses tumorigenesis of experimental intracranial human malignant glioma | 1999 |
Action antitumorale | [3] | Su-Ping Ren et al. | Adenoviral-mediated transfer of human wild-type p53, GM-CSF and B7-1 genes results in growth suppression and autologous anti-tumor cytotoxicity of multiple myeloma cells in vitro | 2006 |
Action antitumorale | [4] | Zhao-hua Qiu et al | Growth suppression and immunogenicity enhancement of Hep-2 or primary laryngeal cancer cells by adenovirus-mediated co-transfer of human wild-type p53, granulocyte-macrophage colony-stimulating factor and B7-1 genes | 2002 |
Action antitumorale | [5] | Zhao-hua Qiu et al. | Co-transfer of human wild-type p53 and granulocyte-macrophage colony-stimulating factor genes via recombinant adenovirus induces apoptosis and enhances immunogenicity in laryngeal cancer cells | 2001 |
Action antitumorale | [6] | Markus Reiser et al. | Induction of cell proliferation arrest and apoptosis in hepatoma cells through adenoviral-mediated transfer of p53 gene | 2000 |
Action antitumorale | [7] | Louis L. Pisters et al. | Evidence That Transfer of Functional p53 Protein Results in Increased Apoptosis in Prostate Cancer | 2004 |
Action antitumorale | [8] | Susan C. Modesitt et al. | In Vitro and in Vivo Adenovirus-mediated p53 and p16 Tumor Suppressor Therapy in Ovarian Cancer | 2001 |
Action antitumorale | [9] | Yong-song GUAN et al. | Adenovirus-mediated wild-type p53 gene transfer in combination with bronchial arterial infusion for treatment of advanced non-small-cell lung cancer, one year follow-up | 2009 |
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