Nanomagnetism TRIZ Cases

Magnetic-field-responsive core-shell particles self-assemble into adjustable 3D structures with higher precision and less synthesis complexity.

Controlled pH, temperature, and alcohol-water ratios enable monodisperse silica magnetic particles for scalable, sensitive nucleic acid isolation.

Combining BaTiO3 with rare-earth substituted ferrite strengthens magnetoelectric coupling while keeping dielectric loss low and lead out.

Lead-free BaTiO3 and rare-earth spinel ferrite are combined to strengthen magnetoelectric coupling while keeping dielectric loss low.

Antiferromagnetically coupled ferromagnetic layers help a superparamagnetic tunnel junction resist external fields while preserving random switching.

A thin conformal silica shell keeps magnetic nanoparticles dispersed while enabling fast nucleic acid binding, washing, and magnetic separation.

Direct oxide-acid mixing forms high-purity nanoporous manganese iron phosphate, avoiding dense impurity-rich particles in Li-ion cathodes.

A femtosecond laser embeds galfenol nanoparticles in graphene oxide in water, avoiding complex chemical routes and enabling better supercapacitors.

Using spin-orbit torque layers and a spin wave propagation layer, this case replaces coils to preserve inductance in miniaturized transformers.

A silicide and surface-control seed layer blocks Sb migration and promotes BiSb (012) texture for higher conductivity and spin Hall angle.