Differently oriented antenna-RF packages and zero-IF switching help mmWave phones avoid hand-blocking losses, link drops, and excess power use.
A common-mode feed between excitation and radiation parts enables multi-wavelength operation and high antenna isolation in compact terminals.
A movable phase center and phase-tuned resonance elements let a flat reflector antenna maintain wideband gain and aperture efficiency.
Electromagnetically coupled radiators on a support and back cover broaden antenna bandwidth and efficiency without adding device thickness.
Electric and magnetic coupling lets one frequency adjustment element tune multiple MIMO radiating elements, cutting component count and cost.
A processor switches antenna groups by folded or unfolded state to limit radiator interference and keep wireless performance stable.
Reactive-loaded dipole segments let a low-band antenna sit in a high-band antenna field with minimal sidelobe disturbance and compact size.
A quad-polarized antenna array uses phased filtering to separate beams by space and polarization, improving isolation in limited diplexer space.
High-permittivity substrates shrink dual-polarized antenna arrays while preserving 5G mmWave communication performance in compact devices.
A meander-shaped capacitive gap and shorting-pin arrays cancel mutual coupling in a compact dual-fed patch antenna while preserving bandwidth.
Switching between common and differential modes helps a compact mobile antenna widen band coverage and improve signal reception in full-screen terminals.
A multi-layer UWB antenna with coupled parasitic strips cuts module footprint, improves AoA accuracy, and frees space for larger mobile batteries.
A frame-and-insert reflector layout separates radiators by band, cutting base station antenna assembly complexity and manufacturing cost.
A multi-function link hides cable routing and enables antenna tilt and steering, simplifying indoor dual-band small cell installation.
Complex nested antenna contours create longer current paths in multibody smartphones, preserving multi-band RF coverage in a compact form.
A dual-mode RFID strap couples HF and UHF antennas without etching, cutting manufacturing cost, waste, and integration complexity.
Capacitive coupling between conductive plates enables dual-band operation and dual polarization while preserving antenna symmetry and saving mounting space.
Perpendicular coupling radiation parts redirect dual-band antenna output away from nearby TV walls and metal plates to limit radiation loss.
Multiple radiation elements and a tuning capacitor widen antenna bandwidth from 2.4 to 7.5 GHz while improving impedance matching in compact devices.
A multilayer ground layout near the embedded inductor limits magnetic coupling to nearby components while preserving inductor Q.
Integrated antenna arrays in a mobile case improve millimeter-wave coverage and signal penetration in vehicles and buildings while adding cloud connectivity.
Symmetric peripheral electrodes stabilize electric lines of force in compact antenna modules, helping preserve gain and frequency band.
Routing feedlines through cavities in folded monopole parasitic arms cuts field scattering in stacked arrays and improves direction-finding accuracy.
Slots and segmented radiators turn a metal back cover into a broadband antenna for GPS and 5G bands without losing the metal appearance.
Distributed UWB antennas across the housing and flexible display maintain positioning service in both rolled and extended states.
A switchable feedline with diodes lets one antenna deliver broadside, omnidirectional, and unilateral patterns in the same band.
A dual-inverted L antenna paired with an LC tank splits SAR hotspots across PCB apertures while supporting compact multiband radiation.
A conductive connector combines direct feed and gap coupling to support multi-band antennas in tight device space while improving radiation above 3.3 GHz.
Dynamic control of feed and ground points changes the housing antenna path, enabling wider band operation with strong radiation efficiency.
Multiple directive antennas, dynamic pulse bundles, and band selection improve UWB link quality in multipath indoor environments.
Rotated slots, dipole arms, and parasitic directors widen bandwidth while keeping a low-profile element compact for tightly spaced mMIMO arrays.
Split copper foil on a dielectric director weakens resonant current and reduces array coupling to keep beamwidth and gain stable.
By coupling mmWave and sub-6 GHz antenna components through an interposer, this case saves device space while preserving multi-band wireless capability.
Two planar antennas with dielectric-based impedance tuning maintain wireless signal performance in both potted and unpotted field devices.
A spaced and perpendicular multi-antenna layout supports low, mid, and high frequency bands while preserving radiation performance.
Embedding folded slot antennas in the vertical stabilizer cuts drag and radar cross-section while preserving VHF coverage and polarization control.
When antenna heat degrades 5G performance, the processor switches to a cooler 5G module or a legacy band to keep links stable.
Rotated stacked patch radiators equalize polarization edge spacing to improve dual-band gain balance and reject unwanted bands in 5G arrays.
Housing slits and a near-surface PCB antenna reduce external dielectric interference while preserving radiation coverage in thin electronic devices.
Independent varactor tuning in concentric annular slot elements enables compact dual-band MIMO antenna coverage from 1.7 to 3.8 GHz.
Varactor-loaded concentric annular slots enable compact dual-band MIMO tuning across 1.7-3.8 GHz while maintaining low correlation and high efficiency.
Uniformly spaced 3D plated antennas around a die equalize trace lengths, improve radiation propagation, and reduce cross-talk and beam-forming complexity.
A wire-mesh ring patch and parasitic layer improve antenna transparency while preserving radiation efficiency for windows and surfaces.
An additional element forms capacitive coupling with the slot edge to lower resonant frequency and shrink a multiband antenna without losing tuning.
A single-path metal band with a series capacitor enables dual-frequency resonance on less PCB space while making both bands easier to tune.
A circular 3D plated antenna layout equalizes trace lengths around the die, easing AiP interconnect complexity and beam-forming needs.
A 3D antenna layout uses inner and outer housing surfaces with common feeding to improve sub-6G multi-band performance in thin-bezel devices.
Multiple ground resonators and a routed coaxial cable extend bandwidth from 700-2700 MHz while preserving antenna efficiency on curved surfaces.
A waveguide radiator layout enables compact WiFi 2.4G, 5G, and 6G antenna modules while preserving isolation and radiation efficiency.