Metallic side frame antenna structure uses switching circuit to generate wireless signals across multiple LTE-A frequency bands.
A compact antenna integrates multiple split ring resonators with distinct frequencies via a branched feed line.
An adhesive carrier attaches a thick patch element to a radiation face, increasing bandwidth and gain while avoiding complex dielectric structures.
A double-reflector antenna system uses a coaxial feeder to support the sub-reflector and transmit microwave signals.
Measuring reflected signals and calculating element correlation matrices allows beam weight adjustments that compensate for non-ideal reflector surfaces.
A multi-band antenna module forms a three-dimensional structure along a device casing outline using multiple radiators to couple distinct frequency bands.
Photoconductive cells switch antenna elements under optical light to reduce system weight and fabrication cost while maintaining multi-band coverage.
A vehicle antenna integrates multiple external signals into a single feeder cable for transmission to a controller.
A tuning circuit uses a switch group and variable capacitor to adjust antenna resonance for frequency band coverage.
Merging driven and passive elements into a unified PCB structure widens frequency bands for WiFi and WiMAX without increasing fabrication complexity.
A flexible antenna device uses a hybrid housing structure to maintain reliable coupling with printed circuit board assemblies.
Grooves in conductive sheets form radiating elements, enabling reliable RFID reading across all orientations while reducing power consumption.
Nano-imprinted dielectric antenna structures replace precision micro-machining with resin molding to reduce manufacturing costs.
Planar antennas on IC substrates overcome spatial constraints of traditional three-dimensional designs, enabling efficient wireless interconnects at 55-64 GHz.
Reusing vertical columns for multiple frequency bands reduces base station antenna space while maintaining acceptable performance.
Integrated arc and U-shaped antenna elements on a PCB enable simultaneous dual-band transmission, reducing circuit complexity while maintaining high throughput.
A compact antenna module uses a shared conductive sheet and distinct feeding points to radiate signals across multiple frequency bands.
Adaptive mm-wave antenna arrays detect blood glucose levels without invasive sampling.
A modified inverted-F antenna uses grounded capacitive stubs to tune impedance matching on a dielectric substrate.
Slotted openings in asymmetric conductor arms enable multi-band operation for WLAN and GPS signals while minimizing interference between frequency bands.
Placing transceiver circuitry adjacent to antennas in a clutch barrel eliminates coaxial cable losses, improving signal-to-noise ratio.
A folded antenna design fits within constrained smart meter housings while maintaining efficient resonance.
A composite patch antenna device merges a gap patch antenna and a dielectric patch antenna into a single stacked structure.
An asymmetric hexagonal parasitic element improves antenna gain while resolving design freedom constraints in low-profile devices.
A planar antenna uses a switch element to toggle radiator resonance between two central frequencies.
Multi-layered antenna array with capacitively loaded dipoles scans up to 90 degrees without grating lobes.
An integrated connector merges the antenna and radio frequency source via a plated internal channel, preventing stress-induced cracking in molded assemblies.
A laminated antenna device uses split ring resonators to support multiple frequency bands.
Radiation element functions as field emission antenna in one band and magnetic loop in another, sharing structure to reduce device size.
Switching elements adjust the radiator's electrical length to enable multiband operation while reducing noise interference and minimizing overall antenna size.
A stacked patch antenna module uses air chambers and ground layer slots to feed radiation patches across multiple frequency bands.
Segmented radiation elements with optimized coupling gaps resolve insufficient bandwidth constraints in compact mobile devices.
Nested antenna elements minimize grating lobes and RF ports while supporting wideband frequency ratios up to 120:1.
A non-contact communication apparatus adjusts antenna resonant frequency using a variable capacitor and control unit to maintain signal integrity.
Capacitive coupling between antenna branch parts suppresses mutual interference in overlapping frequency bands without increasing device space.
A multiband dipole antenna assembly uses a flexible conductive sleeve and RF control device to direct energy across frequency bands.
A multi-band antenna uses three distinct slots on a planar substrate to tune separate frequency bands within a compact volume.
Segmented linear traces in a near-closed polygonal chain microstrip antenna maintain fabrication tolerances while delivering broad bandwidth at 60 GHz.
Merging non-fed elements between adjacent radiators reduces periodicity, expanding beam scanning angles and bandwidth without increasing footprint.
A dominant H-field multiband loop antenna uses a passive nonlinear mixing component to collect energy from shared gaps.
A dual antenna structure uses segmented radiation portions and grounding gaps to reduce mutual current interference.
A multi-band antenna device uses a continuous trace with meandered and branched radiating portions to provide high-gain performance across multiple frequency bands.
A balanced antenna system uses a dielectric gap to couple a fed element with parasitic elements for wideband resonance.
A compact dipole antenna uses a retractable wire element to extend the hot arm for dual-band operation.
Segmented conductive housing structures radiate cellular ultra-high, WLAN, and UWB frequency bands while minimizing interference between adjacent elements.
A WWAN antenna uses independent ground strips to enable flexible device mounting while maintaining stable electrical characteristics.
A multiband planar antenna uses segmented conductive elements and precise clearances to resonate at multiple distinct frequencies.
A compact beamforming network uses a triaxial lattice waveguide slot array to support dual-polarized and dual-band operations.