Pulse Magnet Device Using Diamagnetic Flux Compression

The patent divides the single-stage magnet into multiple stages (first-stage magnet and second-stage magnet). Each stage has its own coil system with optimized turns and layers, avoiding the need for a single complex high-impedance coil. The magnetic fields from multiple stages are superimposed to achieve high intensity while keeping each stage's impedance manageable.

The patent combines multiple magnet stages and their respective magnetic fields to achieve the desired high field intensity. By merging the output of multiple lower-impedance coil systems, the system achieves high magnetic field strength without the impedance problems of a single high-turn coil.

The patent transitions from a single large aperture to multiple smaller apertures arranged in different spatial positions. This dimensional arrangement allows multiple samples to be measured simultaneously without requiring a single large aperture that would demand excessive energy and produce uneven field distribution.

Instead of one large aperture, the system uses multiple smaller apertures distributed across different stages. Each aperture corresponds to a localized region with optimized magnetic field distribution, allowing multiple samples to be processed in parallel with reduced energy consumption per sample.

The system divides the measurement space into multiple independent regions, each with its own optimized magnetic field. By segmenting the aperture into multiple smaller openings, each sample occupies a localized region with uniform magnetic field characteristics, ensuring measurement precision while allowing multiple samples simultaneously.

Each aperture region is designed with local optimization of magnetic field distribution. The coil windings and geometric parameters are tailored for each local region to ensure uniform field distribution at each sample position, rather than attempting to create a single large uniform field.