Immune implications of gene therapy for hemophilia

被引:40
作者
Herzog, RW
Dobrzynski, E
机构
[1] Childrens Hosp Philadelphia, Abramson Res Ctr 302, Philadelphia, PA 19104 USA
[2] Univ Penn, Dept Pediat, Ctr Med, Philadelphia, PA 19104 USA
[3] Childrens Hosp Philadelphia, Philadelphia, PA USA
关键词
immune response; inhibitor; T cell; B cell; cytotoxic T lymphocyte;
D O I
10.1055/s-2004-825635
中图分类号
R5 [内科学];
学科分类号
1002 ; 100201 ;
摘要
Similar to any novel treatment strategy for hemophilia, gene therapy faces the question of the risk of formation of inhibitory antibodies to the therapeutic factor VIII or factor IX protein. Activation of CD4(+) or CD8(+) T cells could lead to antibody formation or cytotoxic T lymphocyte responses to transgene-expressing cells. Preclinical studies in animal models of hemophilia A and B with different mutations in the dysfunctional gene shed light on the risk for such immune responses and point toward strategies to avoid immune activation or even promote tolerance induction. The impacts of variables such as choice and design of gene transfer vector, underlying gene mutation, route of vector administration, and transient immune suppression are discussed. Maintenance of immunological hyporesponsiveness to the therapeutic gene product is critical for successful gene therapy. Recent studies provide evidence for tolerance induction to coagulation factor antigens by viral hepatic or neonatal in vivo gene transfer, by in utero gene delivery, and by oral or nasal administration of protein or peptides.
引用
收藏
页码:215 / 226
页数:12
相关论文
共 95 条
[21]   Risk and prevention of anti-factor IX formation in AAV-mediated gene transfer in the context of a large deletion of F9 [J].
Fields, PA ;
Arruda, VR ;
Armstrong, E ;
Chu, K ;
Mingozzi, F ;
Hagstrom, JN ;
Herzog, RW ;
High, KA .
MOLECULAR THERAPY, 2001, 4 (03) :201-210
[22]   Immunobiology of inhibitor development in hemophilia A [J].
Fijnvandraat, K ;
Bril, WS ;
Voorberg, J .
SEMINARS IN THROMBOSIS AND HEMOSTASIS, 2003, 29 (01) :61-68
[23]   Recombinant adeno-associated virus for muscle directed gene therapy [J].
Fisher, KJ ;
Jooss, K ;
Alston, J ;
Yang, YP ;
Haecker, SE ;
High, K ;
Pathak, R ;
Raper, SE ;
Wilson, JM .
NATURE MEDICINE, 1997, 3 (03) :306-312
[24]   Adenoviral transfer of a single donor-specific MHC class I gene to recipient bone marrow cells can induce specific immunological unresponsiveness in vivo [J].
Fry, JW ;
Morris, PJ ;
Wood, KJ .
GENE THERAPY, 2002, 9 (03) :220-226
[25]   Systemic delivery of an adenoviral vector encoding canine factor VIII results in short-term phenotypic correction, inhibitor development, and biphasic liver toxicity in hemophilia A dogs [J].
Gallo-Penn, AM ;
Shirley, PS ;
Andrews, JL ;
Tinlin, S ;
Webster, S ;
Cameron, C ;
Hough, C ;
Notley, C ;
Lillicrap, D ;
Kaleko, M ;
Connelly, S .
BLOOD, 2001, 97 (01) :107-113
[26]   Natural adjuvants: Endogenous activators of dendritic cells [J].
Gallucci, S ;
Lolkema, M ;
Matzinger, P .
NATURE MEDICINE, 1999, 5 (11) :1249-1255
[27]  
GIANELLI F, 1996, CLIN HAEMATOLOGY HAE, V9, P211
[28]   The molecular basis of hemophilia A: Genotype-phenotype relationships and inhibitor development [J].
Goodeve, AC ;
Peake, IR .
SEMINARS IN THROMBOSIS AND HEMOSTASIS, 2003, 29 (01) :23-30
[29]   Introduction of a xenogeneic gene via hematopoietic stem cells leads to specific tolerance in a rhesus monkey model [J].
Heim, DA ;
Hanazono, Y ;
Giri, N ;
Wu, T ;
Childs, R ;
Sellers, SE ;
Muul, L ;
Agricola, BA ;
Metzger, ME ;
Donahue, RE ;
Tisdale, JF ;
Dunbar, CE .
MOLECULAR THERAPY, 2000, 1 (06) :533-544
[30]   Adeno-associated virus-mediated gene transfer of factor IX for treatment of hemophilia B by gene therapy [J].
Herzog, RW ;
High, KA .
THROMBOSIS AND HAEMOSTASIS, 1999, 82 (02) :540-546