🧠 演講主題 Deep Phenotyping Individual Human Brains with Ultra-high Field MRI
👨🔬 講者 法國原子能暨替代能源署 (CEA) NeuroSpin 中心主任 Cyril POUPON, Ph.D.
🕒 時間 2026年9月10日（星期四）12:00–13:00
📍 地點 第一醫學大樓 12 樓－醫放系大教室
💻 直播連結 🔗
📖 講者簡介 Cyril POUPON 博士現為法國原子能暨替代能源署（CEA）NeuroSpin 中心主任、研究總監（Research Director），同時擔任法國國家醫學學會（Académie Nationale de Médecine）與歐洲科學院（European Academy of Sciences）會士。 渠長期專注於超高場磁振造影（Ultra-High Field MRI）技術、擴散磁振造影（Diffusion MRI）以及腦部網絡連接組學（Connectomics）研究，為國際著名之腦科學影像專家。
公告單位：醫學院醫學影像暨放射科學系
承辦人：葉俊宏
聯絡分機：409-3838
The Department of Medical Imaging and Radiological Sciences at Chang Gung University is pleased to host the International Advanced Radiological Medicine Forum. We are honored to invite Dr. Cyril Poupon, Research Director of NeuroSpin at CEA, who will deliver an online lecture entitled “Deep Phenotyping Individual Human Brains with Ultra-high Field MRI.”
Time: Thursday, September 10, 2026, 12:00-13:00
Speaker: Cyril POUPON, Ph.D.
Position: Research Director, Head of Department
Affiliation: The NeuroSpin Centre, CEA (French Alternative Energies and Atomic Energy Commission)
Topic: Deep Phenotyping Individual Human Brains with Ultra-high Field MRI
Location: MIRS Classroom, 12th floor, 1st Medical Building, Chang Gung University
Online link (Microsoft Teams): https://reurl.cc/nxvZDD
Detailed in vivo mapping of brain anatomy, function, and metabolism remains a goal to be achieved in order to address public health challenges. Magnetic resonance imaging remains a preferred tool for meeting this need due to its noninvasive nature and relative accessibility in routine healthcare settings. The advent of artificial intelligence has driven the research community to collect data from increasingly large cohorts, giving rise to what is now known as population-based imaging, which allows digital health stakeholders to access databases containing up to hundreds of thousands of individuals. While the strategy of acquiring big data at the population level provides an initial statistical response to the challenges of developing digital tools for brain health, it does not fully address the need to access the diversity of organizational scales of the brain, which requires imaging instruments capable of covering scales ranging from the macroscopic to the microscopic.
The development of very high-field and extreme-field magnetic resonance imaging instruments and methods addresses this need, and the CEA’s NeuroSpin department was created for this purpose. During this presentation, we will explore how extreme-field imaging (11.7 tesla for humans and 17.2 tesla for small animals) enables in vivo access to the mesoscopic scale and allows us to investigate brain structure, function, and metabolism at unprecedented scales. We will also demonstrate how a strategy of deep brain phenotyping and individual-level big data collection can complement population-based imaging by enabling the development of digital tools capable of better elucidating the pathophysiological mechanisms at play at scales currently inaccessible with standard clinical instruments.
