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North Chicago, IL, United States

Rosalind Franklin University of Medicine and Science is a non-profit, private, interprofessional graduate school located in North Chicago, Illinois. It has more than 2,000 students in five schools: the Chicago Medical School, the College of Health Professions, the College of Pharmacy, the School of Graduate and Postdoctoral Studies, and the Dr. William M. Scholl College of Podiatric Medicine.The university is named for Rosalind Franklin, the DNA crystallographer. Photo 51, Dr. Franklin's X-ray diffraction pattern for B-DNA, was pivotal in the history of biology in the twentieth century, and this photograph is the basis for the university's seal and logo.The university offers over 29 study programs in graduate health-related subjects, including PhD programs for medical and basic research.Facilities include a multi-media laboratory, a virtual microscopy lab, a simulation lab, and the Education and Evaluation Center, with high-tech opportunities for education and research.The University is located to the west of the Naval Station Great Lakes and to the south of the Captain James A. Lovell Federal Health Care Center. Wikipedia.

Bridges D.R.,Rosalind Franklin University of Medicine and Science
Medical education online | Year: 2011

Interprofessional education is a collaborative approach to develop healthcare students as future interprofessional team members and a recommendation suggested by the Institute of Medicine. Complex medical issues can be best addressed by interprofessional teams. Training future healthcare providers to work in such teams will help facilitate this model resulting in improved healthcare outcomes for patients. In this paper, three universities, the Rosalind Franklin University of Medicine and Science, the University of Florida and the University of Washington describe their training curricula models of collaborative and interprofessional education.The models represent a didactic program, a community-based experience and an interprofessional-simulation experience. The didactic program emphasizes interprofessional team building skills, knowledge of professions, patient centered care, service learning, the impact of culture on healthcare delivery and an interprofessional clinical component. The community-based experience demonstrates how interprofessional collaborations provide service to patients and how the environment and availability of resources impact one's health status. The interprofessional-simulation experience describes clinical team skills training in both formative and summative simulations used to develop skills in communication and leadership.One common theme leading to a successful experience among these three interprofessional models included helping students to understand their own professional identity while gaining an understanding of other professional's roles on the health care team. Commitment from departments and colleges, diverse calendar agreements, curricular mapping, mentor and faculty training, a sense of community, adequate physical space, technology, and community relationships were all identified as critical resources for a successful program. Summary recommendations for best practices included the need for administrative support, interprofessional programmatic infrastructure, committed faculty, and the recognition of student participation as key components to success for anyone developing an IPE centered program. Source

Dundr M.,Rosalind Franklin University of Medicine and Science
Cold Spring Harbor perspectives in biology | Year: 2010

The nucleus is unique amongst cellular organelles in that it contains a myriad of discrete suborganelles. These nuclear bodies are morphologically and molecularly distinct entities, and they host specific nuclear processes. Although the mode of biogenesis appears to differ widely between individual nuclear bodies, several common design principles are emerging, particularly, the ability of nuclear bodies to form de novo, a role of RNA as a structural element and self-organization as a mode of formation. The controlled biogenesis of nuclear bodies is essential for faithful maintenance of nuclear architecture during the cell cycle and is an important part of cellular responses to intra- and extracellular events. Source

Dundr M.,Rosalind Franklin University of Medicine and Science
Current Opinion in Cell Biology | Year: 2012

It has become increasingly apparent that gene expression is regulated by the functional interplay between spatial genome organization and nuclear architecture. Within the nuclear environment a variety of distinct nuclear bodies exist. They are dynamic, self-organizing structures that do not assemble as pre-formed entities but rather emerge as a direct reflection of specific activities associated with gene expression and genome maintenance. Here I summarize recent findings on functions of some of the most prominent nuclear bodies, including the nucleolus, Cajal body, PML nuclear body, Polycomb group body and the 53BP1 nuclear body. The emerging view is that their organization is orchestrated by similar principles, and they function in fundamental cellular processes involved in homeostasis, differentiation, development and disease. © 2012 Elsevier Ltd. Source

Katara G.K.,Rosalind Franklin University of Medicine and Science
Oncogene | Year: 2014

Macrophage polarization contributes to distinct human pathologies. In tumors, a polarized M2 phenotype called tumor-associated macrophages (TAMs) are associated with promotion of invasion and angiogenesis. In cancer cells, vacuolar ATPase (V-ATPase), a multi-subunit enzyme, is expressed on the plasma/vesicular membranes and critically influences the metastatic behavior. In addition, the soluble, cleaved N-terminal domain of a2 isoform of V-ATPase (a2NTD) is associated with in vitro induction of pro-tumorigenic properties in monocytes. This activity of a2 isoform of V-ATPase (a2V) caused us to investigate its role in cancer progression through the evaluation of the immunomodulatory properties of a2NTD. Here, we present direct evidence that surface expression of V-ATPase is associated with macrophage polarization in tumor tissue. Macrophages from BALB/c mice (peritoneal/bone marrow derived) were stimulated with recombinant a2NTD in both ex vivo and in vivo systems and evaluated for TAM characteristics. a2V was highly expressed in tumor tissues (breast and skin) as well as on the surface of tumor cell lines. The a2NTD-stimulated macrophages (a2MΦ) acquired TAM phenotype, which was characterized by elevated expression of mannose receptor-1, Arginase-1, interleukin-10 and transforming growth factor-β. a2MΦ also exhibited increased production of other tumorigenic factors including matrix metalloproteinase-9 and vascular endothelial growth factor. Further, a2MΦ were cocultured with mouse B-16F0 melanoma cells for their functional characterization. The coculture of these a2MΦ subsequently increased the invasion and angiogenesis of less invasive B-16F0 cells. When cocultured with naive T cells, a2MΦ significantly inhibited T-cell activation. The present data establish the role of V-ATPase in modulating a macrophage phenotype towards TAMs through the action of a2NTD, suggesting it to be a potential therapeutic target in cancer. Source

Sarras Jr. M.P.,Rosalind Franklin University of Medicine and Science
International Journal of Developmental Biology | Year: 2012

The body wall of Hydra is organized as an epithelial bilayer (ectoderm and endoderm) with an intervening extracellular matrix (ECM), termed mesoglea by early biologists. Morphological studies have determined that Hydra ECM is composed of two basal lamina layers positioned at the base of each epithelial layer with an intervening interstitial matrix. Molecular and biochemical analyses of Hydra ECM have established that it contains components similar to those seen in more complicated vertebrate species. These components include such macromolecules as laminin, type IV collagen, and various fibrillar collagens. These components are synthesized in a complicated manner involving cross-talk between the epithelial bilayer. Any perturbation to ECM biogenesis leads to a blockage in Hydra morphogenesis. Blockage in ECM/cell interactions in the adult polyp also leads to problems in epithelial transdifferentiation processes. In terms of biophysical parameters, Hydra ECM is highly flexible; a property that facilitates continuous movements along the organism's longitudinal and radial axis. This is in contrast to the more rigid matrices often found in vertebrates. The flexible nature of Hydra ECM can in part now be explained by the unique structure of the organism's type IV collagen and fibrillar collagens. This review will focus on Hydra ECM in regard to: 1) its general structure, 2) its molecular composition, 3) the biophysical basis for the flexible nature of Hydra's ECM, 4) the relationship of the biogenesis of Hydra ECM to regeneration of body form, and 5) the functional role of Hydra ECM during pattern formation and cell differentiation. © UBC Press. Source

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