Kuroda Kagayaki | Department Of Human And Information Sciences Faculty Of Information And Electronics Tokai University
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概要
- KURODA Kagayakiの詳細を見る
- 同名の論文著者
- Department Of Human And Information Sciences Faculty Of Information And Electronics Tokai Universityの論文著者
関連著者
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Kuroda Kagayaki
Department Of Human And Information Sciences Faculty Of Information And Electronics Tokai University
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KURODA Kagayaki
Department of Image-Based Medicine, Institute of Biomedical Research and Innovation
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Oshio Koichi
Department Of Diagnostic Radiology Keio University School Of Medicine
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Jolesz Ferenc
Department Of Neurological Surgery University Of Louisville
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Jolesz Ferenc
Department Of Radiology Brigham And Women's Hospital Harvard Medical School
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Keserci B
Ge Yokogawa Medical Systems Inc.
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Keserci Bilgin
先端医療振興財団
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Keserci Bilgin
Ge Yokogawa Medical Systems Iatc
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Mulkern Robert
Department Of Radiology Brigham And Women's Hospital Harvard Medical School
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OSHIO Koichi
Department of Radiology, Brigham and Women's Hospital, Harvard Medical School
著作論文
- Feasibility of Internally Referenced Brain Temperature Imaging with a Metabolite Signal
- Non-Invasive MR Temperature Imaging : Work-in-Progress
- Magnetic Resonance Thermography Using Water Proton Chemical Shift : Preliminary Results on Self-referenced Technique for Motion Compensation(PROCEEDINGS OF THE SCHOOL OF INFORMATION TECHNOLOGY AND ELECTRONICS OF TOKAI UNIVERSITY)
- Accuracy of MR Temperature Measurement Based on Chemical Shift Change for Radiofrequency Ablation Using Hook-shaped Electrodes
- High b-value Diffusion-weighted Imaging in Normal and Malignant Peripheral Zone Tissue of the Prostate : Effect of Signal-to-Noise Ratio
- Clinical Trials of MR Thermography for Laser Ablation of Brain Tumors
- Magnetic Resonance-visible Coating for Endovascular Device Visualization : Gadolinium(III)-Diethylenetriaminepentaacetic Acid-based Insoluble Polymer Coating
- 水プロトン化学シフトを用いた体内温度の非侵襲画像化における最近の進歩
- Feasibility of Internally Referenced Brain Temperature Imaging with a Metabolite Signal
- Gd-DTPA-based MR-visible Polymer for Direct Visualization of Interventional Devices