A non-circular liquid target widens the electron impact area, improving thermal loading, X-ray flux, and spot flexibility.
A low-expansion support member and target holder keep X-ray emission aligned under heat, preserving detection precision and image quality.
Intersecting oblique x-ray beams from two rotating anode tubes deliver uniform 40-200 Gy/s dose at depth for self-shielded FLASH studies.
A tubular focusing electrode blocks X-rays from reaching the bulb unit, improving withstand voltage and reducing discharge risk.
A rotating annular liquid-metal target uses groove shaping, a CNT membrane, and shielding to curb contamination while sustaining high X-ray power.
A magnesium-based monolithic housing joins the power supply and x-ray tube to improve heat dissipation, shock protection, and EMI shielding.
A removable secondary target converts broadband X-rays into monochromatic output, cutting patient dose while preserving image quality.
A two-mode electron beam thins target regions and shifts beam position to match accelerating voltage for efficient X-ray generation.
Sensor-guided feedback aligns the electron beam and target automatically, cutting X-ray source downtime while preserving radiation quality.
A graded-dopant ceramic spacer suppresses triple-point electron emission and removes charge to prevent arcing in high-voltage X-ray tubes.
A grooved rotating surface shapes the liquid feed into a concave layer, limiting vapor spread and improving EUV plasma radiation stability.
Fixed CT tube angles balance heel-effect beam distribution with limited gantry space while allowing the emitter-detector ring to open for access.
A stepped emitter and guard electrode structure corrects axis misalignment, stabilizes field emission, and improves electron beam focus.
Fluid cooling at the centering aperture, target, and diamond window limits overheating and supports a smaller x-ray focal spot.
Plastic directing bodies and potting compound keep turned coolant hoses precisely spaced, enabling compact X-ray tube insulation with lower flashover risk.
Balanced coolant passages through the anode support and anode reduce thermal bowing, focal spot shift, and x-ray beam gap variation.