Under the background of new-era technological development and the implementation of national strategies, an increasing number of national major scientific and technological infrastructures led by universities have come into operation. How to take the advantages of national facilities to serve major scientific researches while fostering innovative graduates has become an important issue in recent studies. Taking Shanghai Jiao Tong University as an example and building upon the first National Facility for Translational Medicine (Shanghai), this paper focuses on the cultivation of graduates' innovative research and practical abilities, constructs a three-dimensional collaborative education system of "institutional empowerment-knowledge transfer-capability forging, " and explores the implementation pathway through which national major scientific and technological infrastructures empower innovative talent development. Practice has demonstrated that converting the research and technological advantages of national major scientific and technological infrastructures into high-quality educational resources yields remarkable outcomes in empowering innovative talent development, offering a replicable paradigm for universities to enhance the quality of innovative talent cultivation through national multidisciplinary cross-cutting science and technology platforms such as national major scientific and technological infrastructures.

Cerebral amyloid angiopathy (CAA) is a common cerebral small vessel disease, mainly caused by β-amyloid deposition on the small vessels less than 200 μm in diameter in cortex and leptomeninges. CAA is a major cause of spontaneous intracerebral hemorrhage in the elderly, especially lobar location. Early symptoms are insidious, and as the disease progress, they manifest as cerebral hemorrhage, cognitive decline, transient focal neurological episodes, cerebral infarction, epilepsy, headache, etc. MRI revealed that CAA is a disease in which bleeding and ischemia coexist, and even inflammation and immune responses are involved. MRI findings of CAA include cerebral hemorrhage, cerebral microbleeds, convexity subarachnoid hemorrhage and cortical superficial siderosis, cortical microinfarcts, CAA-associated inflammation, white matter hyperintensities, enlarged perivascular spaces, cerebral atrophy and lacune, etc. The same patient often has several of the above manifestations, and each manifestation has different specificity for the diagnosis of CAA. The rapid development of MRI technology has led to the improvement of the diagnostic level of CAA, and it is of great clinical significance to understand these imaging findings. This article reviews the MRI findings of sporadic CAA.

OBJECTIVE: To establish a cone beam computed tomography (ECBCT) system for high-resolution imaging of the extremities. METHODS: Based on three-dimensional X-Ray CT imaging and high-resolution flat plate detector technique, we constructed a physical model and a geometric model for ECBCT imaging, optimized the geometric calibration and image reconstruction methods, and established the scanner system. In the experiments, the pencil vase phantom, image quality (IQ) phantom and a swine feet were scanned using this imaging system to evaluate its effectiveness and stability. RESULTS: On the reconstructed image of the pencil vase phantom, the edges were well preserved with geometric calibrated parameters and no aliasing artifacts were observed. The reconstructed images of the IQ phantom showed a uniform distribution of the CT number, and the noise power spectra were stable in multiple scanning under the same condition. The reconstructed images of the swine feet had clearly displayed the bones with a good resolution. CONCLUSIONS The ECBCT system can be used for highresolution imaging of the extremities to provide important imaging information to assist in the diagnosis of bone diseases.
Algorithms ; Animals ; Artifacts ; Calibration ; Cone-Beam Computed Tomography ; instrumentation ; methods ; Equipment Design ; Extremities ; diagnostic imaging ; Image Processing, Computer-Assisted ; methods ; Phantoms, Imaging ; Radiographic Image Enhancement ; instrumentation ; methods ; Swine

Micromachining of capillary electrophoresis chips is described.The current in channels was determined versus the voltage applied on the chip.Using laser-induced fluorescence detection,the process of injection and separation on chips was recorded with charge-coupled device(CCD).With defferent voltge of reservoirs on glass chips,profiles of the sample plug were studied. The elctropherogram of hydrolysis product of fluorescein isothiocyanate (FTTC-OH) and arginine labeled by fluorescein isothiocyante(FTTC-Arg) was obtained.