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Dive into the research topics where Kenneth W. Culver is active.

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Featured researches published by Kenneth W. Culver.


Science | 1995

T Lymphocyte-Directed Gene Therapy for ADA− SCID: Initial Trial Results After 4 Years

R. Michael Blaese; Kenneth W. Culver; A. Dusty Miller; Charles S. Carter; Thomas A. Fleisher; Mario Clerici; Gene M. Shearer; Lauren Chang; Yawen Chiang; Paul Tolstoshev; Jay J. Greenblatt; Steven A. Rosenberg; Harvey G. Klein; Melvin Berger; Craig A. Mullen; W. Jay Ramsey; Linda M. Muul; Richard A. Morgan; W. French Anderson

In 1990, a clinical trial was started using retroviral-mediated transfer of the adenosine deaminase (ADA) gene into the T cells of two children with severe combined immunodeficiency (ADA− SCID). The number of blood T cells normalized as did many cellular and humoral immune responses. Gene treatment ended after 2 years, but integrated vector and ADA gene expression in T cells persisted. Although many components remain to be perfected, it is concluded here that gene therapy can be a safe and effective addition to treatment for some patients with this severe immunodeficiency disease.


The New England Journal of Medicine | 1990

Gene transfer into humans--immunotherapy of patients with advanced melanoma, using tumor-infiltrating lymphocytes modified by retroviral gene transduction.

Steven A. Rosenberg; Paul Aebersold; Kenneth Cornetta; Attan Kasid; Richard A. Morgan; Robert C. Moen; Karson E; Michael T. Lotze; James Chih-Hsin Yang; Suzanne L. Topalian; Maria J. Merino; Kenneth W. Culver; A. Dusty Miller; R. Michael Blaese; W. French Anderson

BACKGROUND AND METHODS Treatment with tumor-infiltrating lymphocytes (TIL) plus interleukin-2 can mediate the regression of metastatic melanoma in approximately half of patients. To optimize this treatment approach and define the in vivo distribution and survival of TIL, we used retroviral-mediated gene transduction to introduce the gene coding for resistance to neomycin into human TIL before their infusion into patients--thus using the new gene as a marker for the infused cells. RESULTS Five patients received the gene-modified TIL. All the patients tolerated the treatment well, and no side effects due to the gene transduction were noted. The presence and expression of the neomycin-resistance gene were demonstrated in TIL from all the patients with Southern blot analysis and enzymatic assay for the neomycin phosphotransferase coded by the bacterial gene. Cells from four of the five patients grew successfully in high concentrations of G418, a neomycin analogue otherwise toxic to eukaryotic cells. With polymerase-chain-reaction analysis, gene-modified cells were consistently found in the circulation of all five patients for three weeks and for as long as two months in two patients. Cells were recovered from tumor deposits as much as 64 days after cell administration. The procedure was safe according to all criteria, including the absence of infections virus in TIL and in the patients. CONCLUSIONS These studies demonstrate the feasibility and safety of using retroviral gene transduction for human gene therapy and have implications for the design of TIL with improved antitumor potency, as well as for the possible use of lymphocytes for the gene therapy of other diseases.


Archive | 1993

Gene Therapy for Immunodeficiency and Cancer

R. Michael Blaese; Kenneth W. Culver; A. Dusty Miller; W. French Anderson

Gene transfer technology has enormous potential for the treatment of both inherited “genetic” disorders as well as diseases not ordinarily thought of as “genetic.” Since initial studies would be restricted to ex vivo gene transfer, our strategy for bringing this technology to the clinic has been to develop gene transfer protocols in the setting of clinical treatments which employ infusion or implantation of various types of cultured cells. Retroviral vectors are the current method of choice for clinical gene transfer because they provide relatively high efficiency gene transfer and usually give stable integration of the inserted genes. However, retroviruses only stably transfer genes into proliferating cells so that many potential target tissues (eg., brain, muscle) are not receptive to gene transfer with these vectors. This limitation has so far prevented the effective use of retroviral vectors for gene therapy of many of the disorders originally thought to be prime candidates for this treatment, disorders involving the totipotent bone marrow stem cell, since these cells are usually not cycling and thus are not receptive to this technique of gene transfer.


Proceedings of the National Academy of Sciences of the United States of America | 1990

Human gene transfer: characterization of human tumor-infiltrating lymphocytes as vehicles for retroviral-mediated gene transfer in man

Attan Kasid; Shoshana Morecki; Paul Aebersold; Kenneth Cornetta; Kenneth W. Culver; S Freeman; Michael T. Lotze; R M Blaese; William F. Anderson


Human Gene Therapy | 1990

Amphotropic murine leukemia retrovirus is not an acute pathogen for primates.

Kenneth Cornetta; Robert C. Moen; Kenneth W. Culver; Richard A. Morgan; Jeanne R. McLachlin; Sabine Sturm; Jane E. Selegue; William T. London; R. Michael Blaese; W. French Anderson


Proceedings of the National Academy of Sciences of the United States of America | 1991

Lymphocytes as cellular vehicles for gene therapy in mouse and man.

Kenneth W. Culver; Kenneth Cornetta; Richard A. Morgan; Shoshana Morecki; Paul Aebersold; Attan Kasid; Michael T. Lotze; Steven A. Rosenberg; William F. Anderson; R M Blaese


Human Gene Therapy | 1996

Human gene marker/therapy clinical protocols.

Steven A. Rosenberg; R. M. Blaese; Malcolm K. Brenner; Albert B. Deisseroth; Fred D. Ledley; M. T. Lotze; James M. Wilson; Gary J. Nabel; Kenneth Cornetta; J. S. Economou; S. M. Freeman; S. R. Riddell; E. Oldfield; B. Gansbacher; Cynthia E. Dunbar; R. E. Walker; F. G. Schuening; J. A. Roth; Ronald G. Crystal; Michael Welsh; Kenneth W. Culver; Helen E. Heslop; J. Simons; R. W. Wilmott; Richard C. Boucher


Transplantation Proceedings | 1991

Correction of ADA deficiency in human T lymphocytes using retroviral-mediated gene transfer

Kenneth W. Culver; W. R A Osborne; A. D. Miller; Thomas A. Fleisher; M. Berger; W. F. Anderson; R. M. Blaese


Human Gene Therapy | 1996

Molecular analysis of T lymphocyte-directed gene therapy for adenosine deaminase deficiency: long-term expression in vivo of genes introduced with a retroviral vector.

Craig A. Mullen; Karen Snitzer; Kenneth W. Culver; Richard A. Morgan; W. French Anderson; R. Michael Blaese


Human Gene Therapy | 1990

In Vivo Expression and Survival of Gene-Modified T Lymphocytes in Rhesus Monkeys

Kenneth W. Culver; Richard A. Morgan; William R. A. Osborne; Robert Lee; Deborah Lenschow; Cynthia Able; Kenneth Cornetta; W. French Anderson; R. Michael Blaese

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R. Michael Blaese

National Institutes of Health

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Richard A. Morgan

National Institutes of Health

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W. French Anderson

National Institutes of Health

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Steven A. Rosenberg

National Institutes of Health

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A. Dusty Miller

Fred Hutchinson Cancer Research Center

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Attan Kasid

National Institutes of Health

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Michael T. Lotze

National Institutes of Health

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Paul Aebersold

National Institutes of Health

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