Magnetic Measurements TRIZ Cases

Segmented microchip reactor isolates sample from reusable deuterated solvent, eliminating resolution readjustment and reducing operating costs.

Aligning compression matrices along the readout direction reduces reconstruction time while maintaining image quality for 3D MRI scans.

A magnetic resonance dataset correction method detects slice discontinuities using local geometry information to eliminate artifacts in combined images.

A magnetoresistive sensor circuit uses alternating current amplification and signal integration to cancel offset voltage interference.

A multifunctional superconducting coil integrates shielding and shimming functions to correct magnetic field uniformity in MRI systems.

A magnetic flux concentrator increases local field density in a magneto-resistive free layer to enhance sensor sensitivity.

Hollow conducting wire segments distribute current through multiple smaller conductors to reduce electrical resistance in MRI gradient coils.

Non-cuboid slice definitions conform to target volume geometry, reducing unnecessary data collection and improving image acquisition accuracy.

Dual pulse sequence subtraction isolates cerebrospinal fluid production and proton movement, resolving detection limits in capillary beds.

Digital demodulation replaces analog filters to shrink circuit size while stabilizing magnetic bearing sensor signals.

A ring-shaped magnetic field sensor uses a moving vertical Hall element to transform spatial direction into a time signal phase shift.

Selective deuteration of aliphatic amino acids reduces signal overlap, enabling precise structural analysis of high molecular weight proteins.

A phase shift correction unit cancels echo data phase shifts during readout to maintain image accuracy.

A processor computes accurate digital Hall effect sensor positions using timing data from a rotating magnetic field to create a system memory reference table.

An optimization technique determines a shield current distribution that eliminates eddy currents induced in magnet poles, preserving gradient field homogeneity.

Nuclear magnetic resonance sensors measure T2 relaxation times to adjust blending parameters and prevent pipeline clogging from incomplete mixing.

A cardiac phase interpolation model assigns MR images to variable time intervals based on heartbeat signals.

A transformer-coupled transimpedance amplifier converts secondary winding currents into voltage signals for scanning force microscopy.

Quantitative 1H-NMR spectroscopy determines ethanol concentration in whole blood using deuterated internal standards.

Measuring magnetic fields and positioning ferromagnetic shims to balance electromagnetic forces, stabilizing homogeneity without structural deformation.

A non-magnetic spacer positions magnetic shims in MRI trays, suppressing discrepancies between calculated and actual magnetic field output values.

Simultaneous multi-slice excitation detects nuclear magnetic resonance signals from multiple anatomical regions using orthogonal gradients and RF pulses.

Parallel echo signal measurement corrects gradient magnetic field non-linearity without extending imaging time.

Laminated seed layers stabilize antiferromagnetic MnIr grains, suppressing random telegraph noise and improving signal integrity during sensor miniaturization.

Undersampled k-space data undergoes iterative reconstruction to reduce processing time while maintaining image quality.

Peripheral retaining clips secure the sensor package while completely exposing the sensing face, reducing airgap and assembly errors.

Target phantom with distinct emission and magnetic resonance sources enables precise spatial alignment of multi-modality imaging systems.

Vertical displacement of an annular magnet structure accommodates naturally positioned limbs, eliminating bulky support devices and anesthesia requirements.

Six linear contacts wired by a repeating four-number scheme enable spinning current operation, reducing offset voltage in thin wells.

A multi-spectral MRI system acquires distinct frequency offset data sets to construct a composite image with reduced signal pileup.

A control unit simulates average load voltage and current to predict optimal timing settings.

A high temperature superconducting tape coil uses selective inner etching to remove conductive sheathing while retaining an outer protective layer.

Dual-component hard bias initialization prevents synthetic antiferromagnetic canting during high-temperature processing, improving signal-to-noise ratio.

Interleaved sense and reference element strings with shielding structures and attenuators enable high-intensity magnetic field operation.

Iterative reconstruction compensates for reduced sampling rates, shortening scan time while maintaining image quality in MRI systems.

A signal processing system calculates steering angles using sine and cosine magnetic detection units with shared components.

Shared Velocity Encoding reconstruction reuses adjacent k-space data to double frame rates in phase contrast magnetic resonance imaging.

A 46-channel AC/DC shim array applies arbitrary waveform currents to compensate spatial phase modulations during data acquisition.

Amorphous Co-X buffers and polycrystalline Ni-Fe shields reduce the CPP read sensor gap by 4 nm while maintaining thermal stability.

Dual magneto-electric conversion units with minimized potential differences suppress electrode migration in moisture, maintaining high detection sensitivity.

Segmenting the free layer into CoFeB and NiFe sub-layers resolves the trade-off between high TMR ratio and low magnetostriction.

Low-temperature alternating deposition stacks pMTJ sensors and ohmic contacts vertically, avoiding thermal degradation while reducing processing complexity.

Position-specific k-space correction values eliminate eddy current distortions in MRI diffusion imaging.

Iterative optimal control minimizes error against Bloch equations, resolving distortion trade-offs in multi-channel RF pulse design.

A current sensor uses slit conductive plates to minimize skin effect and eddy currents for stable magnetic field detection.

Segmented acquisition processes reduce T1 determination time in nuclear magnetic flowmeters while maintaining precision.

Remote computers replicate imaging device controller states to allow experts configure settings via virtual twins without compromising patient safety.

High permeability passive shields reduce eddy currents without active coils, lowering power consumption and acoustic noise.

A magnifying lens in a magnetically shielded room projects external images onto inner walls, reducing pressure from confined spaces.