Segmented ferrite granules in a resin matrix resolve deformation flexibility limits while maintaining magnetic shielding.
A corona shielding system uses a polymeric matrix with mixed planar and spherical particles to achieve adjustable anisotropic conductivity.
An electromagnetic wave absorber uses an array of magnetic material bodies to absorb radiation across multiple frequency bands.
A collapsible Faraday enclosure uses conductive fabric walls and a vestibule section to isolate electronic devices from RF signals.
Laminated ceramic electrostatic protection component uses side-edge discharge electrodes to extend the discharge path length.
Flexible nanowire films shield electronics while reducing weight and material usage.
A graphene-reinforced overmolded outer layer provides electromagnetic interference shielding and electrostatic discharge protection.
Oriented fibrous fillers and magnetic powder in a resin matrix balance thermal conduction with electromagnetic wave absorption.
A conductive label guides static electricity from housing openings to grounding points.
Polyarylethersulphone thermoplastic polymer coats conductive carbon nanotubes to facilitate dispersion within epoxy resin matrices.
An encapsulant layer disperses conductive particles to shield electrical circuitry from electromagnetic interference.
A notched magnetic shield redirects external flux to reduce noise in rotational angle detection.
A speaker assembly uses a magnetic field counteracting component to generate an opposing magnetic field.
Segmenting the shield into fence, lid, and insert resolves manufacturing cost versus reworkability trade-offs while enhancing electromagnetic shielding.
Silsesquioxane-like particles modify polymer matrices to enhance electromagnetic energy absorption.
Parallel planar superconducting shields expel magnetic flux via the Meissner Effect, eliminating residual fields trapped by cylindrical designs.
Continuous circumferential conductors route static discharge to ground, preventing circuit damage while insulating films block electromagnetic interference.
Alternating metal foils and resin layers create a symmetric laminate structure that balances shielding effectiveness with weight reduction and formability.
Segmenting the back frame reduces mold costs while the conductive fiber net in the reflector plate prevents electromagnetic interference.