The development of effective gene therapies for inherited disorders requires interdisciplinary programs that focus on the identification of disease genes, an elucidation of disease pathogenesis, and the development of technologies for genetic modulation. The Center's goal has been to provide investigators with the opportunity to improve and/or expand their gene therapy-based research. Although this Center has a primary focus on the development of gene therapies for cystic fibrosis (CF), as evidenced through two of its Research Cores that apply specialized airway model systems to CF research, it also maintains active research programs in molecular medicine for a diverse range of other genetic diseases. The Center has productively fostered gene therapy research through the following mechanisms. 1) The Center's Pilot and Feasibility Program, which has sponsored 50 pilots over the previous 9 years of funding, has brought numerous new Members and expertise into the Center while fostering the development of talented junior Associate Members into independent tenure-track faculty positions. 2) The Center has successfully established and expanded existing specialized Core facilities (Vector Core, Cell and Tissue Core, Cell Morphology and Pathology Core, and Animal Models Core) that are devoted to gene therapy research. These Cores have provided Center investigators with specialized vectors, human and mouse CF model systems, and methods that have allowed them to test hypotheses that could not otherwise be evaluated. The Center has also served as a resource for the distribution of viral vectors and CF models to numerous outside institutions. 3) By combining viral gene-targeting technologies with animal modeling, the Center has also created two new larger CF animal models, in the pig and ferret, to address the growing need for phenotypic models of human CF lung disease. 4) The Center has successfully maintained a CF Lung Tissue Acquisition Consortium of lung transplant centers, which has allowed for significant expansion of the humanized CF model systems. This consortium, which receives between 15-20 CF lung transplants per year, has also promoted numerous intrainstitutional collaborations on CF research that have led to new research programs. 5) The Center has also fostered interdisciplinary interactions and training through its Enrichment Programs, consisting of a centralized center website, a trainee seminar series, an external speaker seminar series, smaller informal research focus groups, and the annual Gene Therapy Center Retreat. 6) The Center has established formal internal and external mechanisms for review of the Center, the Cores, and the Pilot and Feasibility projects, thereby ensuring a high level of excellence and the most appropriate utilization of the Center's resources. In summary, the Center for Gene Therapy of Cystic Fibrosis and Other Genetic Diseases has greatly strengthened existing gene therapy-based research programs at the University of Iowa and consortium institutions, while also serving as a resource for other institutions that perform gene therapy and CF research. These efforts have led to numerous basic and applied research findings that have enhanced the utility of gene therapies to both study and treat genetic diseases.
| Gray, Robert D; Hardisty, Gareth; Regan, Kate H et al. (2018) Delayed neutrophil apoptosis enhances NET formation in cystic fibrosis. Thorax 73:134-144 |
| Rosen, Bradley H; Chanson, Marc; Gawenis, Lara R et al. (2018) Animal and model systems for studying cystic fibrosis. J Cyst Fibros 17:S28-S34 |
| Diehl, Lauri; Meyerholz, David K; Day, Michael J et al. (2018) Pathology and Pathogenesis of Immune-Mediated Diseases of Animals. Vet Pathol 55:5-7 |
| Caswell, Jeff L; Bassel, Laura L; Rothenburger, Jamie L et al. (2018) Observational Study Design in Veterinary Pathology, Part 2: Methodology. Vet Pathol 55:774-785 |
| Trillo-Muyo, Sergio; Nilsson, Harriet E; Recktenwald, Christian V et al. (2018) Granule-stored MUC5B mucins are packed by the non-covalent formation of N-terminal head-to-head tetramers. J Biol Chem 293:5746-5754 |
| Yoshida, Mitsuteru; Oishi, Hisashi; Martinu, Tereza et al. (2018) Pentraxin 3 deficiency enhances features of chronic rejection in a mouse orthotopic lung transplantation model. Oncotarget 9:8489-8501 |
| Thornell, Ian M; Li, Xiaopeng; Tang, Xiao Xiao et al. (2018) Nominal carbonic anhydrase activity minimizes airway-surface liquid pH changes during breathing. Physiol Rep 6: |
| Clippinger, Amy J; Allen, David; Behrsing, Holger et al. (2018) Pathway-based predictive approaches for non-animal assessment of acute inhalation toxicity. Toxicol In Vitro 52:131-145 |
| Cheng, Sunny Lihua; Li, Xueshu; Lehmler, Hans-Joachim et al. (2018) Gut Microbiota Modulates Interactions Between Polychlorinated Biphenyls and Bile Acid Homeostasis. Toxicol Sci 166:269-287 |
| Cooney, Ashley L; McCray Jr, Paul B; Sinn, Patrick L (2018) Cystic Fibrosis Gene Therapy: Looking Back, Looking Forward. Genes (Basel) 9: |
Showing the most recent 10 out of 669 publications
