Shielding Materials TRIZ Cases

Directly contacting the glass with a silk-screen printed pattern layer removes the film layer, reducing manufacturing complexity and cost.

A magnetic assembly uses shaped magnets and a ferrous shield to enable secure accessory attachment without external fasteners.

Filament-based shielding suppresses eddy currents and prevents receiver saturation during dynamic magnetic field measurements.

Segmenting the shield can allows heat radiation through an opening without compromising noise shielding performance.

A composite material blends polymer resin with metal-coated particles and dispersants to achieve effective electromagnetic interference shielding.

Conductive concrete mixtures integrate steel fibers and taconite aggregate to attenuate electromagnetic waves during shotcrete application.

A wireless power receiving module uses a hollow coil antenna and dual shielding sheets to manage magnetic fields.

A shielding fabric uses satin weave and non-metallic threads to improve flexibility.

Grooved shield tools affix to metal enclosures to block conductive contact and prevent shock hazards during component handling.

A sintered conductive layer stabilizes ESD discharge paths in multilayer alumina substrates.

A flexible shielding film with a three-dimensional shaping layer conforms to printed circuit boards.

Specifying functional groups in epoxy and phenol resins alongside acrylic content suppresses spring back gaps during reflow treatment.

Integrating a protruding wall into the housing parts of a noise current absorber to maintain magnetic body alignment.

Nonmetallic yarn loops fix inserted metal wires, preventing mesh distortion and maintaining consistent shielding effectiveness.

Tin-coated copper particles in a polymer matrix achieve 40 dB shielding across 0.01 to 25 GHz while maintaining mechanical durability.

Flexible mesh flaps in a suppression tunnel block microwave leakage while allowing continuous material flow through the conveyor unit.

A noise suppression sheet uses flat magnetic powder with controlled saturation magnetostriction to absorb electromagnetic interference.

A shielded conduction path uses a circumferential lock hole and inner holder projection to join components without inward protrusions.

Multilayer battery protective case integrates a metal-dispersed polyester shielding layer within a resin matrix to provide structural integrity and electromagnetic radiation protection.

A core-shell iron oxide material absorbs electromagnetic waves through magnetic interaction.

Hybrid structural component integrates conductive thermoplastic with organic fibers to achieve electromagnetic field screening and damping.

Conformal carbon nanostructure coatings bridge fiber apertures to prevent nanotube agglomeration and ensure reliable electromagnetic radiation shielding.

A nickel-coated wallpaper substrate provides broadband electromagnetic shielding through isotropic conductivity.

A switchable electromagnetic shield uses a switching assembly to toggle conductive elements between open and shorted states.

A shield plate combines a magnetic ceramic sintered sheet with metal films to block electromagnetic interference.

Directly forming a pattern layer on a glass member eliminates intermediate film layers, reducing manufacturing complexity and thickness.

Reduced diameter pipe portions and nested crimp rings minimize the external diameter of shielded conduction paths while maintaining reliable fixing.

Knitted sensor layers detect driver hands while a shielding layer blocks electromagnetic interference.

An insulating plate extends from one case to overlap the second, establishing a creepage distance.

Optimizing the electrically conductive layer thickness maximizes the magnetic field shield effect in the targeted frequency band.

A cover member with conductive layers guides static electricity to a metal layer, forming a discharge path spaced from the display driver integrated circuit.

Segmented damping films with varying coercivity reduce eddy current losses while maintaining shielding effectiveness for wireless charging systems.

A magnetic shield uses undulating Litz wire conductors to distribute induced eddy currents away from the surface.

A wire harness groups shield ends into a conductive terminal press-fitted into a tube for stable fixation.

Variable height support pins warp substrates for rigidity, reducing vibration and electrostatic discharge risks during transfer.

Shielding layers reduce electromagnetic noise in multi-chip assemblies, enabling reliable wireless communication in compact hearing devices.

Nickel plating on the copper film prevents corrosion while maintaining electrical conductivity.

An all-wire weft-knit tubular sleeve interlaces a conductive bus wire to maintain electrical contact along the entire gasket length.

Composite textile sleeves reduce weight while preserving electromagnetic interference protection by enabling radial expansion to fit various connector shapes.

Gold plating protects exposed copper surfaces from transmission oil corrosion and 15 kV ESD damage.

A carbon nanotube-infused composite material absorbs and reflects electromagnetic radiation across a broad frequency range.

A multilayer electromagnetic wave attenuator combines alternating magnetic and conductive nonmagnetic layers with a thick magnetic member to enhance magnetostatic interaction.

Curved folded edges bonded by adhesive seal signal transceivers, stopping high-frequency leakage and noise interference.

A deflectable gasket assembly uses a branched sealing edge to shield aircraft electronics from electromagnetic interference.

A display apparatus positions a shielding adhesive tape to expose the bridging circuit board.

Integrating coils into modular wall elements eliminates physical obstructions and reduces cabling complexity for active magnetic shielding.

A conductive fitting sandwiches sheet ends against a bent apex to secure electrical contact.

An interlaced ground strap merges individual grounding operations into one assembly, eliminating soldering labor and vibration-induced connection failures.

Patterned EMI mitigation materials use carbon nanotubes within a filled dielectric to absorb electromagnetic interference while conducting heat.

Soft magnetic particles in a non-metal matrix satisfy specific parameter relationships to resolve interference effects and ensure reliable signal processing.