For magnetic resonance
Magnetic Resonance Technology
Business background
- Φ200mm field strength=1[T]
- Output: DC500[A], 150[V] Long-term stability:24.4μA/A
- 1[T], Uniformity of magnetic field: 40ppm
Balanced Magnetic Field Electromagnet
Developing a 1[T]-grade normal conduction electromagnet engineered to form a highly balanced and precise magnetic field.
Dedicated DC Power Supply Unit
Developing a robust DC power supply unit specifically optimized to drive and power normal conduction electromagnets.
High-Precision Magnetic Field Mapper
Developing an advanced mapper device fully capable of accurately measuring and analyzing 1[T]-grade magnetic fields.
Quantitative Objectives and Applications
Achieving key quantitative objectives while expanding technology applications
to water quality analysis, fine dust composition, food safety, biomedical research, and cancer diagnostics.
| Evaluation items | Target value | Measurement method |
|---|---|---|
|
1[T]-grade normal conduction electromagnet |
1Tesla |
Achieving 1 Tesla of magnetic field strength at Φ200mm inner diameter of bore |
|
DSV 4cm uniform distribution of magnetic field |
1Tesla |
Achieving ±40ppm uniform distribution of magnetic field at DSV 40mm |
|
DC power supply unit |
Input: 500A 150V |
Output: DC500[A], 150[V] Current stability: Goal of 24.4μA/A |
Commercialization Result 1
Achieving the successful commercialization of high-precision electromagnet systems specifically tailored for small-bore NMR spectrometers.
Commercialization Result 2
Driving the localized commercialization of advanced MRI technology integrated with highly efficient normal conduction electromagnets.
Competitiveness Result 3
Securing proprietary core technologies while significantly enhancing international competitiveness within the global medical device market.
Measurement Tech Result 4
Developing cutting-edge magnetic field measurement technology optimized for solenoid electromagnet bores based on DSV performance metrics.