Radiating Element Housings TRIZ Cases

A retaining band with an inward groove seats the radome within a coaxial shroud, reducing wind loading and signal pattern degradation.

Evaporating carrier fluid during filament winding eliminates wrinkles in curved armor, ensuring superior ballistic performance and trauma resistance.

Protruded dielectric units on a substrate reduce reflection at the windshield interface, suppressing multipath interference and scattering.

Inert particle pressure transfer during hot pressing eliminates residual stress and cracks in cavity domes, ensuring uniform microstructures.

Overmolding conductive tracks into a thermoplastic bodywork eliminates manual welding, reducing assembly time while protecting cables from corrosion.

Additive manufacturing builds radiating and ground structures coated with conductive ink, reducing labor-intensive assembly costs.

Anti-reflective coating and de-icing member on transparent plastic wall resolve wave attenuation and frost interference in Lidar systems.

Segmented radome pieces feature independently optimized thickness profiles that minimize radar attenuation despite air gaps, reducing manufacturing complexity.

Horizontal and vertical polarization diversity reduces mutual coupling between closely spaced elements, improving data throughput in indoor WLAN environments.

Segmented radar modules with integrated chassis cooling resolve redesign bottlenecks while managing heat dissipation across scalable arrays.

Fiber placement of tacky dielectric ribbons reduces material waste and labor costs during radome manufacturing.

A radome forms a front null pattern by superimposing radio waves through distinct transmission regions.