An integrated ultrasonic transducer array brings pulse-echo imaging to wearables for continuous monitoring of blood flow, bleeding, and organ liquid levels.
Configured SRS resources let a 5G/NR device perform radar sensing while limiting RF interference to base stations and nearby UEs.
Split waveform parameters before and after RF transmission to block MITM attacks and reduce radar interference in dense 5G sensing.
A staged edge-to-application sensing pipeline lets mobile networks deliver diverse sensing services without pushing heavy processing onto base stations and user equipment.
A transmission enhancement layer forms a resonator that offsets stiffener loss and preserves ultrasonic fingerprint sensing in foldable displays.
Uplink channel estimation guides echo-signal processing to remove inherent radar multipath interference and improve detection accuracy.
Extended cyclic prefix control lets UE adapt sensing signal length from SCS and resource indications to cut inter-symbol interference and extend range.
Threshold-based waveform indexing filters reflected shear-wave effects, improving stable tissue firmness measurement in ultrasound elastography.
Phase-locked oscillators and frequency converters cut relative phase noise, stabilizing optical comb interference for faster, more accurate distance measurement.
Vertical storage gate extensions and a barrier area help smaller depth-sensor pixels retain charge capacity while reducing parasitic light sensitivity.
Recorded scanning actions and imaging settings are converted into a custom ultrasound protocol, avoiding complex manual software configuration.
A modular steerable ultrasound probe separates handle, sheath, and electrical contacts for cleaning and reliable reassembly after blood exposure.
A multi-cylinder target and ellipse fitting align 2D camera and line laser 3D sensor coordinates without disclosing 3D sensor intrinsic parameters.
Adaptive read-out circuitry changes SPAD sampling rate with incident radiation to extend dynamic range while preserving signal-to-noise ratio.
Noise is mixed with a Doppler-shifted deception signal to mask FMCW radar reflections while preserving the false target frequency.
Adaptive optical sequences and matched filters improve LiDAR resolution, cut latency, and resist interference in dynamic scenes.
Existing point cloud and transmittance data reveal beam path contamination, distinguish internal vs external fouling, and trigger cleaning.
Automatic frame and ROI selection uses confidence and stability scoring to make ultrasound stiffness measurements more consistent and less user-dependent.
Selecting one calculated result brings up all linked ultrasound images and measurement values on one screen, cutting manual review steps.
DTOA histograms and phase-based grouping separate agile radar pulse trains accurately in dense environments with lower compute and memory cost.
Dual power sources and an auxiliary reception circuit let a wireless ultrasonic probe sustain CW and SWE modes without sacrificing compact portability.
Calibration-based channel addressing aligns lidar emitters with detection units to cut signal loss and improve echo detection stability.
A multilayer functional stack separates etch-stop and refractive-index roles to cut interface reflectance while preserving phase modulation.
A detachable rotating module and baffle fixing structure simplify LiDAR assembly, lower cost, and improve emitted-reflected laser isolation.
Specific colorants and thermal stabilizers let molded polycarbonate block visible-to-NIR noise while preserving heat, moisture, and photostability.
Selective RF blanking tunes, filters, and attenuates platform transmission interference to preserve receiver range, duty cycle, and signal quality.
Coordinated grants and radar sequence selection let wireless devices sense on shared bands while limiting interference to communication and other radar users.
Small interfering tissue regions are identified from ultrasonic parameters and removed early, improving ROI localization and detection accuracy.