Every designer of high-field instruments eventually runs into the same wall. You need a stable, uniform magnetic field above 1 Tesla — for a tabletop NMR, a portable MRI, a mass spectrometer, a compac...

Magnetic bead-based assays have transformed modern bioanalytical workflows. From ELISA to point-of-care diagnostics, the ability to rapidly capture, separate, and wash magnetic beads determines assay ...

Cryogenic scientific instruments use permanent magnets. But these magnets face a huge engineering hurdle. The extreme cold needed for these experiments actually destroys the smooth magnetic fields the...

To select the right magnet for a robot, you need to weigh three critical factors: performance (magnetic strength and size), safety (temperature and corrosion resistance), and cost (material and manufa...

Magnetic grades show how strong a magnet is and how it performs under certain conditions. Each grade is a measurable energy product, usually labeled as “N” with a number—N35, N52, and so on. These num...

In high-temperature settings like aerospace, automotive, and industrial work, you need the right permanent magnet to keep things running smoothly over time. Samarium Cobalt (SmCo) and Neodymium Iron B...

In the race to build lifelike robots, one component quietly powers the entire revolution: magnets. From lifting arms to sensing touch, magnets are the invisible drivers behind precise, efficient, and ...

Bonded NdFeB magnets and sintered NdFeB magnets stand apart in both how manufacturers make them and how these magnets perform. Bonded NdFeB magnets come from mixing magnetic powder with a binder and m...