Magnetic and conductive nanoparticles in a polymer matrix cut shield weight while maintaining strong high-frequency EMI attenuation.
Spaced shielding strips maintain electric field shielding between display circuits while opening heat paths that extend control unit lifespan.
A localized EMI shield with an aligned aperture and lens isolates optical sensor emitters, reducing leakage, crosstalk, footprint, and assembly cost.
An adhesive-backed thermal interface structure keeps the heat sink in close contact, lowering thermal resistance and preventing detachment.
A grounded shielding frame and cover suppress EMI at camera connection terminals, preventing shooting artifacts and signal freezing.
A segmented housing keeps metal over the atomizing unit for heat diffusion while leaving the communication unit uncovered for stable external links.
Melting the substrate surface around a conductive screen embeds it in transparent material, preventing EMI mesh delamination during encapsulation.
Comb-shaped conductive housing partitions shrink connector openings to block EMI, cut resonance, and reduce communication errors at lower cost.
A layered conductive and nonconductive shield cuts EMI and EMR leakage while improving heat dissipation and keeping electronic assemblies lightweight.
A bendable injection cover and partitioned shield can contain heat transfer material without adding protrusion, helping maintain device thickness.
A sealed dual-chamber layout cools the display module and main board while blocking dust and moisture behind the cover plate.
A segmented fastener and EM-absorbing piece improve optical module shielding, fastening stability, and vibration resistance.
External dipole antenna placement and detector shielding improve occupancy sensing while limiting wireless interference in lighting fixtures.
Nested grounded shield cans contain EMI from high-power TOF sensing, protecting nearby circuits and internal antenna performance.
An integrated resin protection layer and shielding layer simplify COF edge-chip protection while maintaining physical and electromagnetic coverage.
EMI shielding between transmitter and receiver assemblies plus folded optical paths cuts crosstalk, saves space, and supports higher bandwidth.
A two-layer polymer-carbon structure balances microwave absorption and low reflection, improving radar signal attenuation and sensor accuracy.
A reinforcing section above a stepped component prevents shielding cover collapse while preserving tight PCB spacing and reliability.