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Radiology > Radiology Divisions > Hollings Small Animal Imaging Core
Hollings Small Animal Imaging Core

The Small Animal Imaging Center, which opened in March 2008, provides state-of-the-art in vivo imaging capabilities to MUSC researchers. The center's mission is to support the thriving and growing research environment at the Hollings Cancer Center and the university at large.

In vivo serial imaging of animal models of disease can provide information not easily obtained by other methods. With tracking of disease process, the number of animals used in an experiment can be reduced by eliminating the need to sacrifice animals at multiple time points. The advent of commercially available imaging devices capable of interrogating small animals is revolutionizing biomedical research and has opened up the field of molecular imaging. Our center provides access to instruments and expertise to aid MUSC researchers in leading the way to advancing biomedicine.

Equipment
  • Caliper Life Sciences/Xenogen IVIS 200 Bioluminescent/Fluorescent Imaging System
  • Siemens Inveon micro-CT/PET
  • Bruker 7T MRI


Micro-CT Images of Inflammatory Arthritis
Micro-CT images of bony changes with inflammatory arthritis. 2-D and 3-D reconstructions of mice hindlimbs in control (left column) and TNF transgenic, sphingosine kinase double knockout (right column) mice. Arrows point to interdistal tarsal gap, widened significantly due to erosion in experimental mice. Images reconstructed with 18 µm on-a-side voxels. 
Mouse CNS vascular imaging with micro-CT
Mouse CNS vascular imaging with micro-CT. High-resolution imaging of the vascular system of the mouse CNS filled with a solution of 40% Barium Sulfate and 5% gelatin in saline. Imaging of vasculature such as this enables studies of normal and abnormal vessels in animal models of disease, including brain tumor and ocular disease.
Bioluminescence imaging of human glioma

Bioluminescence imaging of human glioma in spinal cord of rats. Longitudinal images demonstrating signal intensity over time in control (left) and animals with human glioblastoma expressing firefly luciferase injected into the spine (mid and right). Bioluminescence imaging enables noninvasive assessment of tumor presence and size over time in the same animals.