The Postgraduate Training Program in Medical Imaging (PTPMI) provides recent doctoral graduates with research training in medical imaging, as currently applied to disciplines such as nuclear medicine (PET and SPECT), magnetic resonance imaging (MRI) and computed tomography (CT). The importance of the field of Radiological Sciences has been recognized by the establishment of National Institute of Biomedical Imaging and Bioengineering (NIBIB). And within radiological science, medical imaging research has revolutionized the practice of radiology. Scientists may enter the field of medical imaging research after study of a curriculum that focuses directly on radiological science or after earning a doctoral degree in the physical sciences, mathematics, biophysics, or computer science. The PTPMI will provide trainees a strong background via structured didactic courses and seminars, enabling graduates to critically evaluate the field and formulate their own research ideas. Trainees will participate in leading-edge research, with the opportunity to interact with a world-class faculty in a setting that combines the resources of the Harvard Medical School (HMS), and the Harvard-affiliated Teaching Hospitals. The rationale for this program is based on several factors: 1) the growing need for basic scientists with training in radiological science (PET, MR, CT and optical) including structural, functional, and molecular imaging;2) the availability of outstanding research programs that provide exciting opportunities for trainees;3) the availability of modern well-equipped facilities and prototypes imaging systems;4) an unusually strong group of mentors and, in addition, a faculty who provide additional expertise and extend the range of contacts available to trainees;and 5) long-standing, diverse collaborations, both within the Massachusetts General Hospital (MGH) as well as the Harvard Joint Program in Nuclear Medicine, Harvard Medical School (HMS), other HMS-affiliated hospitals, Harvard University, and Massachusetts Institute of Technology (MIT).
The pace of change in medical imaging is increasing with the advent of the molecular imaging era. This offers both a challenge and a great opportunity. The future development and dissemination of radiological science depends on the availability of scientists who are not only well grounded in their basic science discipline, but also trained in the application of their knowledge to medical and molecular imaging research. However, scientists with thorough interdisciplinary training are not yet common in today's radiological sciences environment. In fact, the need for such individuals forms one of the central motivations of the NIH's Roadmap Initiative. The Postgraduate Training Program in Medical Imaging (PTPMI) aims to address this unmet need through a multidisciplinary approach that provides exciting research opportunities for the new generation of imaging scientists in a unique research environment at MGH, HMS and MIT.
|Mananga, Eugene S; El Fakhri, Georges; Schaefferkoetter, Joshua et al. (2014) Myocardial defect detection using PET-CT: phantom studies. PLoS One 9:e88200|
|Schaefferkoetter, Joshua; Ouyang, Jinsong; Rakvongthai, Yothin et al. (2014) Effect of time-of-flight and point spread function modeling on detectability of myocardial defects in PET. Med Phys 41:062502|
|Dagher, Joseph; Reese, Timothy; Bilgin, Ali (2014) High-resolution, large dynamic range field map estimation. Magn Reson Med 71:105-17|
|Mananga, Eugene Stephane (2013) Applications of Floquet-Magnus expansion, average Hamiltonian theory and Fer expansion to study interactions in solid state NMR when irradiated with the magic-echo sequence. Solid State Nucl Magn Reson 55-56:54-62|
|Stephane Mananga, Eugene (2013) Criteria to average out the chemical shift anisotropy in solid-state NMR when irradiated with BABA I, BABA II, and C7 radiofrequency pulse sequences. Solid State Nucl Magn Reson 55-56:63-72|
|Mananga, Eugene Stephane (2013) Progress in spin dynamics solid-state nuclear magnetic resonance with the application of Floquet-Magnus expansion to chemical shift anisotropy. Solid State Nucl Magn Reson 54:1-7|