Diagnostic Recording/Measuring TRIZ Cases

A double-clad optical fiber guides ultraviolet excitation light through its multimode inner cladding while transmitting coherent infrared light via a single-mode central core.

Reconstructs individual HRTF transfer functions using reference directivity functions to reduce measurement time while maintaining high modeling quality.

Portable electronics suspend fall detection when device status indicates normal handling, reducing false positives from sporadic movements.

Modulated illumination and synchronous demodulation filter ambient light interference, enabling accurate vital sign extraction in challenging environments.

Processor calculates von Neumann entropy of interference signals to remove noise bias and resolve dependency on incident polarization state.

Concurrent acquisition of perfusion and diffusion images via a single 3D MR scan eliminates manual alignment delays and reduces diagnosis time.

Rotatable flexible arms accommodate breathing and motion, reducing mechanical stress noise and improving ECG signal quality.

Segmenting facial feature points into regions reduces system complexity while maintaining high accuracy through age-group calibrated expression functions.

Segmentation separates the sensor block from the display unit, enabling discreet continuous monitoring of emotional state without bulky smartwatch constraints.

Molded epoxy resin lenses focus light beams from integrated sources to photodetectors, reducing crosstalk between multiple wavelengths.

Segmenting the accelerator and collection units prevents chemical interference, ensuring accurate blood glucose concentration detection.

Combined goniometer and calliper apparatus measures bird keel angle and tarsus length simultaneously.

Passive sensors detect induced potentials from MRI gradient coils to track device orientation without external fields causing image artifacts.

A controller processes touch sensor signals to enable light emission only when adequate contact exists, preventing exposure of non-target areas.

Flow path changeover valves introduce calibrating liquid through sample channels to correct measurement errors from pump and channel variations.

Computer method classifies physiological signals to measure specific deep muscle activity using surface sensors.

Frequency segmentation isolates water and lipid contributions to conductivity, resolving inaccuracies caused by mixed component interference.

Dual photodetectors in a gas chamber eliminate laser drift and calibration needs for stable transcutaneous CO2 monitoring.

Locking the coordinate system to a loopless MRI antenna probe reduces RF power deposition while enhancing anatomic resolution in vascular imaging.

Compensation circuits equalize contact impedance between measuring and reference electrodes to maintain signal quality.

A 3D optical coherence tomography angiography method establishes a two-dimensional feature space combining signal-noise ratio and decorrelation coefficients.

Dynamic sensor positioning minimizes elastic deformation of soft fingers, enabling accurate fingerprint image quality.

Three orthogonal laser units align patients in three dimensions, eliminating subjective positioning errors and improving biomechanical analysis precision.

Spectral splitting via optical branch coupler consolidates multiple diagnostic systems, reducing floor space and procedure time.

Mach-Zehnder interferometer with a reference arm delay line manages optical path length differences in swept-source OCT systems.

Weighted signal processing reduces magnetic resonance tomography channel counts without additional hardware.

Multi-axis sensor system detects patient orientation and movement, reducing caregiver compliance issues by automating turn alerts.

Sensor holder uses ventilation channels to reduce sweating while flexible cable relief prevents wire breakage during repeated bending.

Multi-frequency bioelectrical impedance analysis estimates patient weight without movement, resolving labor-intensive handling and nutritional assessment gaps.

Digital fundus camera measures scattered light intensity in non-illuminated areas to correct ocular images.

Control system decomposes ECG data into frequency and amplitude dimensions to identify a dominant window for atrial fibrillation classification.

Automated eye movement analysis system tracks saccadic and pupillary parameters to detect neurological disorders.

A finger-worn ring with interior and exterior electrodes measures bioelectrical impedance across the body.

Mutual injection locking between sensing and cancellation modules removes body movement interference, preserving breathing and heartbeat accuracy.

A photoacoustic apparatus adjusts light emission position density to increase total light amount in each voxel.

Retinal birefringence scanning detects foveal fixation status to gate optical coherence tomography data collection, eliminating sedation needs.

A pivotable head stop enables contact or non-contact measurement modes, reducing inaccuracies for restless patients.

A clinical workstation generates personalized macro sets from recorded user habits to automate application tool selection.

Wireless offloading moves heavy computation from wearables to mobile devices, lowering weight and heat.

Rotating focusing elements or prisms scans light rays while avoiding alignment errors from mechanical movement.

A cam-based transmission system adjusts prosthetic ankle stiffness to match human biomechanics during gait.

Angular velocity sensors measure grip dynamics to match shaft torque, resolving subjective fitting errors that degrade flight distance and directionality.