Ultra-high field superconducting magnet technology

Compared with the 3T system, the ultra-high field superconducting system of 7T and above has more than twice the field strength, higher detection sensitivity, higher resolution (20 - 100 microns), and faster scanning speed. It has obvious advantages for clinical application. It can provide better medical image quality in brain, heart and blood vessel imaging, especially in brain imaging. For example, the qualitative and quantitative diagnosis of neurological diseases such as Alzheimer's disease and stroke has unparalleled advantages in 3T. When using the 7T system, the higher the resolution, the stronger the image contrast, and the more clearly the lesions can be identified. Imaging of the cerebral cortex at a plane resolution of 0.2 mm may produce clinical details that have never been seen before. 7T can provide accurate images of metabolic processes in the brain, and also contributes to the clinical research of neurological diseases such as Alzheimer and epilepsy, etc.

Time Medical R&D team has been developing ultra-high field magnets for more than 20 years with solid technology foundation for design and manufacturing of ultra-high field magnets, including liquid-helium-free magnet design, high homogeneity electromagnetic field design, low temperature Dewar technology, superconducting joint technology, Superconducting coil packaging technology, vacuum insulation technology, etc. The Company fully masters the ultra-high field superconducting magnet technology. The Company has designed and manufactured a variety of 7-9.4T superconducting magnets and gradient coils, which are used in narrow-bore MRI systems for biomed and preclinical research. The Company has the ability to independently develop ultra-high field magnetic resonance systems (7T-11.7T) as the leading player in the market, and the ultra-high field MRI is the industry trend for precision molecular imaging and neurological and cardiovascular clinical applications. Company is investing heavily in 7T large-bore brain MRI, aiming to become a world leader in brain MRI used for the research of nerves and neurons.