Geological Detection Using Milimetre Waves TRIZ Cases

NIR sensing through an electrochromic rearview mirror detects hand proximity without conductive-layer ablation, improving in-cabin user input.

Reconfigurable sparse antenna panels combine radar and optical sensing to capture fuller target views with lower size, cost, and false alarms.

RF transmission and signal comparison detect water and other analytes in vessels more accurately than mechanical or electrical sensors.

A UAV with ground penetrating radar detects underground pipe features and maps them to the network to speed targeted inspections.

Aerial sensor data replaces slow pipe robots and manual crews to quickly detect underground water and prioritize pipe inspections.

Local synchronous filtering in each terahertz pixel avoids phase mismatch, improving signal extraction, amplification, and spatial resolution.

Optimized reflect-array illumination and compressive sensing cut scan counts, speeding threat detection while lowering hardware complexity.

A scanning MMW camera builds digital sub-images from single-pixel detectors to detect concealed weapons remotely without x-ray exposure.

By fusing millimeter-wave scans with platform sensor data, this case removes separate footwear checks while improving detection accuracy and reducing false alarms.

By fusing millimeter wave and platform sensor data in one scan, this case cuts separate footwear checks, false alarms, and screening delays.

Pre-entry posture prompts cut adjustment time in millimeter-wave body scanning while preserving recognition accuracy and improving throughput.

Single-pixel millimeter wave detectors build scanned sub-images to spot concealed weapons remotely without x-ray health risks.

Motion-driven THz scanning separates hidden objects from interfering container contents for more accurate detection and characterization.

A matrix of single-pixel MMW detectors stitches sub-images to detect concealed weapons remotely through clothing and bags without x-rays.

A temperature-controlled MMW calibration panel keeps the camera baseline stable for passive concealed weapon detection through clothing.

Selectable frequency channels decouple adjacent microwave barriers, improving signal-to-noise ratio and preventing false switching.

A sparse MIMO antenna layout and Fourier-based holographic reconstruction cut antenna count while speeding millimeter-wave body imaging.

A remote management system coordinates object and body scans to speed unattended security access screening while keeping checks consistent.

THz scanning combines controlled object motion and image processing to separate hidden items from container-wall interference.

Fluid injection and suction remove moisture and foreign material before electromagnetic scanning, improving hidden-substance detection without shoe removal.

See how a server assigns manual inspection and image interpretation tasks dynamically as passenger flow and station availability change.

Microwave sensing passes through dielectric blade coatings to locate substrate edges, enabling automated chamfering without damage.

Microwave signals penetrate dielectric coatings to locate blade edges, enabling automated dressing without manual probing.

Continuous screen monitoring can fatigue security staff; AR image recognition marks contraband in real time for faster response.

A multistatic antenna array and staged 3D focusing process radar reflections to speed concealed-object screening while preserving image quality.

Dual pipeline measurements compare permittivity before and after compression to distinguish foreign bodies from gas bubbles.

A matrix of single-pixel MMW detectors redirects viewing positions to stitch scene sub-images for contactless screening.

A shared walk-through structure combines metal and millimetre-wave scanning, using spacing and shielding to limit interference.

Segmented panels with angled passages form a virtual aperture to enhance detection capability while reducing system complexity.

Three inductive transducers enable spatial discrimination of metal objects, resolving the contradiction between measurement precision and device complexity.

A sensor architecture dynamically switches between passive detection and active scanning modes to manage electromagnetic radiation exposure.

Segmenting the scan unit and platform resolves accessibility barriers for disabled persons while maintaining reliable electromagnetic detection.

Parallel GPU kernel processing overcomes CPU bottlenecks to accelerate human body microwave echo simulation for real-time imaging.

A millimeter wave scanning imaging system uses multiple oriented devices to rapidly detect objects across different inspection areas.

Thermoelectric cooler modules maintain stable receiver pixel temperatures in harsh environments, resolving size and weight constraints.

A handheld millimeter wave array antenna transmits signals and receives echoes to generate high-quality image data of detected objects.

A rotatable reflector converges millimeter waves onto a detector array to enable simultaneous dual-object imaging.

A movable millimeter wave transceiver scans both sides of an object without rotation, reducing hardware costs and increasing throughput.

A polarized millimeter wave imaging system uses a polarization analyzer to generate null detection values from brightness temperature data.

Antenna arrays illuminate the inspection channel to resolve the contradiction between simple passive structures and poor image quality.

Millimeter-wave imaging system processes reflected signals to identify body features and hidden objects.

A screening system uses multiple detectors to adapt functionality based on prior findings, enhancing detection accuracy and throughput.

H11 mode waveguides transfer signals through rotary joints to rotating antennas, maintaining constant polarization during continuous high-speed scanning.

A transmissive prism with a continuously variable angle surface refracts millimeter-wave radiation to provide a continuous linear scan of the scene.

Segmented scanning modules sharing infrastructure resolve the throughput versus footprint trade-off, enabling simultaneous multi-person screening at airports.

Millimeter wave radiation detects harmonic reflections to classify explosives at standoff ranges without physical contact or ignition risk.

A radar array and metal detection system correlate scan data to identify suspicious regions in baggage.

Line array antennas integrate into automatic doors to transmit and receive scattered electromagnetic radiation.

Inverse synthetic aperture radar imaging processes signals from a conveying device to enlarge the field of view and improve scanning speed.

Inductive screening triggers targeted microwave imaging, lowering false alarm rates from 65% to 20%.