Radiation Diagnosis Data Transmission TRIZ Cases

A modular fixture layout and equalizing arrangement let medical battery packs add replacement modules with different charge levels while limiting loss.

Ceiling-mounted articulated arms route CT gantry supply lines to enable 180° rotation, longer travel, and safer access without floor obstacles.

A split thick-thin housing places wireless power reception without enlarging the detector panel, preserving cart compatibility and portability.

Electromagnetically coupled stator and rotor antennas replace brush slip rings in CT rotary assemblies to cut carbon powder, noise, and transmission faults.

Electromagnetically coupled stator and rotor antennas replace carbon brushes to cut CT slip ring noise, powder, and transmission faults.

A split waveguide with mode-selective injection and absorber termination lifts CT gantry data transfer to 270 Gbit/s while limiting loss.

A reflective member and transmissive housing region help antenna radio waves exit a shielded detector with lower power loss and stronger communication.

A secondary brake on the transmission side prevents C-arm reverse driving, reducing safety risk and easing modular maintenance.

Articulated arms and pulleys guide CT supply lines above the gantry, reducing collisions, kinking, and room modification costs.

A repositionable high-voltage connector and dielectric-oil interface reduce air bubbles, electrical stress, and maintenance downtime in X-ray systems.

A floor-level cable duct with a displaceable support passage lets medical appliance cables move freely without interfering with ceiling systems.

Directed radio beams and gantry-synced switching replace optical links to carry high-rate CT measurement data with lower hardware complexity.

An elastically supported charging head and buffer assembly absorb impact and reduce abrasion when a device is inserted in the wrong orientation.

Recovered rotational energy keeps the CT X-ray tube spinning and cooling during power loss, preventing bearing fusion and tube replacement.

During CT power loss, backup power is routed to cool the X-ray tube and prevent liquid metal bearing seizure and downtime.

Remaining UPS power is allocated to controlled X-ray tube cooling, preventing liquid metal bearing hot landing during CT power outages.

Magnetic coupling with a ferrite core and removable attachment replaces slip-rings to cut dust, noise, and manufacturing complexity.

Power-state feedback between the main body and DR console avoids repeated status checks, reducing battery drain and mistimed shutdowns.

A battery-backed power switch keeps selected X-ray components energized during unplugging, cutting reconnection and restart delays.

Preselected antenna assignment uses system location and link quality data to avoid unstable wireless image transfer and downtime.

Microwave reflections between conductive rings and sidewalls enable a rotary joint to exceed 10 Gbit/s data transfer between rotating parts.

A three-phase CT gantry drive combines rotor motion and payload power transfer to cut space, wear, and maintenance from separate transmission systems.

Electromagnetic coupling through annular cores replaces CT slip rings, cutting gantry weight, maintenance, and scan-speed limits.

Directed RF beam steering and transmitter switching keep rotating CT gantries linked at spectral-CT data rates with lower cost.

A gravity- and airflow-guided collection container captures slip ring abrasion powder in CT systems, reducing filter buildup and cooling loss.

A movable, oil-filled HV connector assembly reduces air bubbles and high-voltage stress while simplifying X-ray tube installation and replacement.

Automatic battery type detection lets a radiation imaging unit charge different batteries with matched voltage and current, without a dedicated cradle.

Predetermined state checks let a mobile X-ray console coordinate dual power shutdown, preserving battery life and avoiding data interruption.

An H-bridge matrix battery setup charges and discharges through shared lines, enabling scalable medical imaging power and battery hot-swapping.

A multiphase transformer and stacked rectifier layout cuts high-voltage ripple without higher switching frequency, large capacitance, or added losses.

Using interconnected multiphase windings and layered secondary coils, this case cuts output ripple and speeds voltage switching without higher losses.

Combining small and large CT focal spots within one view improves spatial resolution, expands focus area, and reduces noise distribution.

An onboard UPS, batteries, and generators let a transportable CT scanner run independently where grid power is unreliable.

A reflective ring-and-antenna rotary coupler improves CT scanner data transfer by widening microwave bandwidth and reducing signal distortion.

A circular waveguide channel with rotating rings and sidewalls enables faster rotary data links by improving bandwidth, decoupling, and antenna efficiency.

A multiphase gantry motor delivers rotation and payload power together, cutting slip-ring maintenance and installation space in CT systems.

Positional sensing and force-based speed control guide X-ray tubes and detectors around obstacles for safer, more precise radiography.

A spring-biased self-locking clamp keeps the C-arm cable chain aligned during motion, reducing obstructions without powered retention.

A two-half-shell strain relief secures coaxial cables with a tool-free SMP push-on plug, improving shielding and stability under movement.

A timed UPS keeps AC loads on immediately and delays HVDC power to preserve CT tube cooling during outages and extend component life.

Pivot-limited joints and rollers guide C-arc imaging cables to cut friction, reduce degradation, and preserve sterility and image quality.

Phase- and amplitude-controlled annular conductor groups offset slip-ring magnetic fields, preserving MRI image accuracy while powering a treating device.

An elevated, adjustable directional antenna avoids arm blockage and keeps wireless image transfer stable as the radiography unit moves or rotates.

A conductive plate doubles as antenna ground, enabling thin radiation detector panels to keep wireless communication performance.

A sealed brush holder and suction path contain and collect slip-ring wear debris in CT gantries, reducing scattering, defects, and image issues.

Combining multiple X-ray focal spots in CT improves spatial resolution while expanding the area of focus in a single image.

A UPS with an autotransformer and AC/DC conversion keeps CT cooling and HVDC loads powered during outages to prevent X-ray tube damage.

A UPS with direct AC output plus autotransformer and AC/DC conversion keeps CT cooling active during outages to protect X-ray components.

A housed cable chain keeps C-arm imaging cables aligned through wide movement, reducing obstructions and preserving access around the base.

A split power-buffer circuit keeps CT detector bias voltage stable during UPS changeover, avoiding uncontrolled transitions and long recovery.

A rotating imaging sensor and mobile C-arm expand 3D field of view while improving positioning in tight operating-room spaces.

Rotational feedback and antenna displacement keep capacitive coupling stable in CT scanners despite gantry deformation during data transfer.