Molecular Magnetic Resonance Imaging of Tumor Response to Therapy

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作者
Adam J. Shuhendler
Deju Ye
Kimberly D. Brewer
Magdalena Bazalova-Carter
Kyung-Hyun Lee
Paul Kempen
K. Dane Wittrup
Edward E. Graves
Brian Rutt
Jianghong Rao
机构
[1] Molecular Imaging Program at Stanford,Department of Chemical Engineering, Department of Biological Engineering
[2] Departments of Radiology,undefined
[3] Radiation Oncology,undefined
[4] Materials Science and Engineering,undefined
[5] Stanford University,undefined
[6] Koch Institute for Integrative Cancer Research,undefined
[7] Massachusetts Institute of Technology,undefined
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摘要
Personalized cancer medicine requires measurement of therapeutic efficacy as early as possible, which is optimally achieved by three-dimensional imaging given the heterogeneity of cancer. Magnetic resonance imaging (MRI) can obtain images of both anatomy and cellular responses, if acquired with a molecular imaging contrast agent. The poor sensitivity of MRI has limited the development of activatable molecular MR contrast agents. To overcome this limitation of molecular MRI, a novel implementation of our caspase-3-sensitive nanoaggregation MRI (C-SNAM) contrast agent is reported. C-SNAM is triggered to self-assemble into nanoparticles in apoptotic tumor cells and effectively amplifies molecular level changes through nanoaggregation, enhancing tissue retention and spin-lattice relaxivity. At one-tenth the current clinical dose of contrast agent and following a single imaging session, C-SNAM MRI accurately measured the response of tumors to either metronomic chemotherapy or radiation therapy, where the degree of signal enhancement is prognostic of long-term therapeutic efficacy. Importantly, C-SNAM is inert to immune activation, permitting radiation therapy monitoring.
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