X-Ray Tube Structural Circuit Elements TRIZ Cases

Adjusting separate anode and cathode transformers keeps bipolar X-ray generator voltages balanced under unbalanced tube loads.

Additional grids intercept arcs and decelerate ions in an x-ray source, protecting the field emitter from back bombardment damage.

Independent anode and cathode transformer control keeps X-ray tube voltages within range, reducing insulation complexity and stabilizing operation.

A cathode covering member blocks triboelectrification at the insulating tube surface, suppressing abnormal discharge and improving X-ray tube insulation.

An insulating liquid and intermediary members block triboelectrification paths on the tube surface, suppressing abnormal discharge and extending service life.

A resin-covered shield and insulating liquid prevent triboelectric surface discharge on the X-ray tube, improving insulation reliability.

An insulating liquid and spaced insulating cover prevent triboelectrification on the X-ray tube surface, reducing abnormal discharge and failure.

An insulating member and zoned container layout prevent triboelectrification on the tube surface while preserving X-ray transmission and insulation.

A covering member around the cathode and insulating tube blocks triboelectrification in insulating liquid, reducing abnormal discharge and failure.

An insulating member and liquid-filled container layout block triboelectrification on the tube surface, reducing abnormal discharge and shutdown risk.

A low-triboelectric coating on the X-ray tube outer insulator suppresses abnormal discharge in insulating liquid and improves reliability.

Current limiting by emitter path helps field effect electron emitters survive high-voltage flashovers with minimal damage and continued operation.

Pre-switching and holding grid voltage during tube voltage changes keeps tube current below overload limits and preserves dual-energy CT dose uniformity.

Diagnostic capacitors shift filament circuit resonance so degraded X-ray tube components can be identified quickly without added isolation switches.

Diagnostic capacitors shift filament drive resonance so degraded X-ray tube filaments, cables, or circuit parts can be identified without added switches.

Pulse-by-pulse dose and HVL monitoring inside the collimator helps correct X-ray energy drift and keep scan images consistent.

Dynamic cathode window potential tuning limits electron beam emittance and matches focal point size during rapid tube current switching.

Low-voltage switching of field emitters enables fast x-ray pulses while keeping high-voltage electron acceleration stable for responsive imaging.

PCB-based planar transformers replace manual winding to improve x-ray source isolation consistency while cutting circuit weight and size.

Modular fixed-anode reflected ray tubes place focal points on one circle, avoiding large ring anodes while maintaining X-ray strength for static CT.

Optical fiber communication enables galvanically isolated gun controller programming in x-ray sources, even in harsh high-voltage environments.

An insulating member and liquid suppress cathode-side discharge, allowing longer projection geometry for stable higher-magnification X-ray imaging.

By placing Zener-based gate voltage regulation inside the vacuum tube, this case shrinks the radiation source without losing drive stability.

A cold-cathode on-chip X-ray source uses a vacuum cavity and resistive-switching electron emission to cut size, cost, and switching delay.

A shared driver and data collection circuit uses time-division switching to control multiple X-ray cathodes with lower hardware cost and fast response.

Multiple grids intercept arcs and decelerate ions in an x-ray source, protecting field emitters from back-bombardment damage.

Stacked circuit boards with flat capacitors and recessed diodes shrink X-ray high voltage generators while preserving insulation and assembly productivity.

Dynamic potential switching in an X-ray tube enables high-sensitivity pressure detection through ion current measurement, preventing abnormal discharges.

Segmented secondary window prevents debris from short-circuiting the heater, ensuring continuous self-cleaning operation.

A pre-controller calculates a reference duty ratio trajectory to drive an inverter, generating stable flat-top voltage pulses that eliminate overshoot.

A controller adjusts RF power via compensated control voltage to stabilize radiation beam generation.

An X-ray generating apparatus uses a flowable insulating fluid gap between windows to prevent electrical discharge.

A radiation generating tube bonds electrodes to an insulating tubular member using a conductive material coated with a dielectric layer.

Stress compensation features on flat emitters prevent electrical shorts caused by thermal expansion and centrifugal forces exceeding 30 G.

A double-pulsed X-ray source generates sub-microsecond pulses to capture high-speed fluid flow and fragment motion.

Staged planar transformers amplify high voltage using flat windings, eliminating bulky cylindrical components and reducing power supply weight.

Curved shielding member blocks electric field disruption at the exhaust port, preventing discharge at the anode tip during vacuum operation.

An interchangeable x-ray anode carousel enables multi-depth crystallographic analysis within a single sample.

A circulating cooling medium removes heat from an X-ray source inside a sealed container, preventing dust contamination and component malfunction.

Counting voltage supply cycles and energization time enables accurate deterioration assessment of X-ray tube components, preventing unplanned downtime.

Electrode segments detect beam direction via electrical signals and redirect the path away from the inner wall, protecting the tube from damage.

Vacuum box array replaces slip rings, boosting CT inspection speed and reliability.

Dual metal tube anode manages thermal expansion differences to maintain vacuum integrity in X-ray generating tubes.

Connector circuits in the input receptacle extract diagnostic data from high-voltage wiring, preventing shorts and ensuring reliable X-ray tube monitoring.

A ground-plane potential monitoring system detects partial discharge events in high-voltage generators to enable proactive control.

Alternating collimation settings shutter unimaged volume parts, reducing scattered radiation and improving image quality without increasing device complexity.

A strain gauge on the circuit board cover detects pressure-induced deformations to prevent boiler bursts from thermal oil expansion.

A portable x-ray device uses electric field emission to generate radiation with reduced weight.

Segmenting the beam via a rotating collimator enables spot-by-spot scanning while extraction of thermal management maintains compact integration.

Tube auxiliary unit automates calibration file updates and authentication to prevent tube-control mismatches and reduce downtime.

Closed-loop control adjusts pulse parameters using time-resolved measurements to resolve transient response drifts in linear accelerator systems.

An interface circuit bridges a filament emitter and a flat emitter supply to resolve voltage incompatibility while preserving focal spot stability.